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NC0024392_Regional Office Historical File Pre 2018 (10)
Duke Power Company Generation .Services Department � 13339 Halters Ferry Road Huntersville, NC 280 78- 7929 DUKEPO W'ER ,. November 10, 1994 Ms. Coleen Sullins North Carolina Department of Environment, Health, and Natural Resources Water Quality Section Permits and Engineering Unit 512 North Salisbury Street Raleigh, NC 27626-0535 Re. McGuire Nuclear Station Authorization to Construct Dear Ms. Sullins: Duke Power Company requests an Authorization to Construct (ATC) to modify :McGuire Nuclear Station's existing Conventional Waste and Sanitary Waste Disposal Systems DES Permit C0024392). This modification will involve the Training and Technology Center C) NPDES permitted systems (Permit # NC0026255). The TIC NPDES Permit requires that the Sanitary Treatment System (Outfall 001) comply with a Ironic toxicity test by April of 1995. To accomplish this, the TTC Outfall, 001 will be routed to the McGuire Nuclear Station MNS) Sanitary Treatment System )`, While we are making this modification, the rest of the outfalls associated with the TTC NPDES Permit will be eliminated by routing them to the MNS ConventionalWastewater Treatment System (WC), thus eliminating the TTC NPDES Permit altogether. This will be accomplished by the end of April 1995. In addition to this, plans are being made to eliminate the MNS Sanitary Waste System (Outfall 003) by sending all of the site's sanitary waste to the Charlotte Mecklenburg Utility Department for treatment. This connection is planned for early 1997. In order; to do this, the industrial waste currently being handled in the MNS Sanitary System and the industrial waste handled by the TTC permit will have to be separated d sent to the S Conventional Waste Treatment System. (WC - Outfall 002). FFV The industrial waste requiring separation from MNS WT includes the Vehicle Maintenance Facility, the McGuire Office Complex, Nondestructive Examination, and the Medical Facility. Therefore, this application for an ATC is for the following: 1. Separation of the TTC Permit industrial waste and sanitary waste; 2. Routing these two lines to the MNS Permitted systems WC and WT (respectively), and 3. routing the industrial waste currently treated by the MS WT system to the MNS WC System. The flow diagram included in this permit application shows a schematic of how the systems exist now and how they will discharge once this modification is complete. Enclosed for your review are three (3) copies of the drawings, specification and calculations which detail this project. Also enclosed is a check for $400.00 to cover the permit application processing fee. Please review this information at your earliest convenience. If there are any questions, please call me at (704)875-5939. Sincerely, Tami Carpenternteer Environmental Division Electric Systems Support Department Enclosures xc w/att: Mr. Rex Gleason 1. S. Carter N.G. Atherton P.R. Simpson D.L. Cline R.L. Smith D. Scronce .,, State of North Carolina Department of Environm t, Health, and Natural Resources Division of Environmental Management Non -Discharge Pertnit Application (THIS FORM MAYBE PHOTOCOPIED FOR USE AS AN ORIGINAL) GRAVITY `ITY SEWER EXTENSION, PUMP STATIONS, AND PRESSURE S WERS I. GENERAL INFORMATION: Duke Power Company 1. Applicant (corporation, individual, or other): McGuire Nuclear Station (MNS) . Print Owners or Signing {official's Name and Title (the person who is legally responsible for -the facility and its compliance); I.S. 'Carter, Technical System Manager 3. Mailing Address: 13339 Ragers Ferry Read 7 City:' untrsville State: NC Zip: 28078 JW Telephone No.: 794 875-5939, 8 5-5963 4. 'Project Name (subdivision, facility, or establishment name - should be consistent with project name on plans/specs., letters of flow acceptance, Operational Agreements, etc.): McGuire nuclear StaLion Plumbin - Island an Site 0 caLon- . Application Date: 9/19/94 6. Fee Submitted: 400 7. County where project is located- Mecklenbu PERMIT INFORMATION 1 Permit No. (will be completed by DEM): 2. Specify hether project is: new; renewal*; modification. *If renewal, complete only sections I through III and applicant signature (on pg.9). Submit only pgs. 1, 2, 9 (original and 3 copies of each). Engineer signature not required for renewal. 3. If this application is being submitted as a result of a renewal or modification to an existing permit, list the existing permit number and issue date 4. Specify whether the applicant is - public or __J�_ private. FORM: G PS 4/91 Page 1 of 1 GRAVITY SEWER EXTENSION & PUMP STATION , PAGE 2 (4/91) III. INFORMATION ON WASTEWATER: ER: 1, Nature of Wastewater; , 4 %Domestic; % Commercial, Industrial; % Other waste (specify): . Please provide a one or two ward description; specifying the origin of the wastewater, such as school, subdivision, hospital.., commercial, industrial, apartrnents, etc;: Industrial and sanitary . Indicate any parameter (and its concentration) that will be greater than normal domestic levels' None 4. If wastewater is not domestic in nature, what level of pretreatment has been provided to ensure protection of the receiving wastewater treatment facility" Industrial will be routed to MN - outfall 002 (WC System) Sanitar ° to MNS outfall 003 (WT System,) 5. Volume of wastewater generated by this project: 18,600 gallons per day +. Explanation of how wastewater volumewasdetermined: 1xisting flow, measurements from Island (TTC) Treatment System Outfall 001, & TTC cooling towers 002 and 004 outf lls. IV. DESIGN INFORMATION: 1. Brief project description: Elimination of TTC NPDES Permit QNC0026255). 122uting waste to MNS (NPDES Permit #NC0024392) waste treatment system 002 outfall industrialwaste from TT & outfall 003,(sanatar waste). 2. Name of wastewater treatment facility receiving wastewater: MNS Sanitary 003 and Conventional '002 a. Facility permit no.: NC00392 . Engineer should provide statement of his evaluation of downstream sewers to accept the wastewater. stem acids were evluatd and re routed wastestreams will not cause ea acties to be exceeded (based on measured and conservatively estimated flow rates). of 10 1 GRAVITY SEWER EXTENSION & PUMP STATION PAGE 3 (4/9I) 3. Summary of sewer pipe by diameter size pipe material. Indicate here whether factor or N factor is used and circle C or N below: Dia. Ungth Pipe CorN Min. Max; Minimum Max. Minimum (In.) . (Lin. Ft) Material .Factor Slope % Slope % Velocity, (fps) vel#ps) Cover (in) varies PVC 0.10 2` 4% 2.25 3.19 36 t s 2% 2.0 2.73 36 p.s —J % 2.52 3.57 36 NOTE.- The minimum velocity must not be less than 2 fps. / For public sewers the minimum diameter is 8 inches. 4. Anchors shall be provided for sewers with shapes greater than. 24 The anchor spacing shall be as follows: a. 36 feet separation for slopes of 2 ' to 35%; . 24 feet separation for slopes of 36% to 5096; - . 16 feet separation for slopes of and ;greater. For velocities greater than 15 fps, it is strongly !r o ended that rn 's es considered which will protect the sewers and manholes from erosion. For velocities greater than 20 fps, erosion control measures must be specificd. For any excessive slopes or velocities that will occur in any sewer line segment, what measum have been taken to protect the sewer pipe and manholes? /A 'rnu we c leng holes: / lin= fect. o. This sewer line segment occurs,bemeen manhole no. hole no . Does the nerd for have the ability to c1caii this length? Yes No. 8.. Sewer subject to existing or planned Tic bearing loads? x Yes No. If yes, what measures are being taken to enable the sewers io-7Tt-hstand the loads? Piping installed in sleeves. Piping laacfill material meets 95% and piping deformation is less than 1 . 9. tube drop manholes arr, provided where invert separations exceed: / feet. 10. Identify (by manhole number) those manholes that have drop nnections: 3 of 10 GRAVrl7Y SEWER EXTENSION & PUMP STATION PACE 4 (4/91) I I - Maximum allowable infilt ation/exf ltration test rate: 0 iPD/ pipe dia. in,/ ri-dle. Note: Must not exceed 200 GPI / pipe dia. inJ mile. 12. Minimum separation distances ces as shown on the plans or addressed in the specifications: a) 100 ft. horizontal p tion from wells or voter water supplies? _x- Yes — No b) 12 in. vertical separation from stormw or ferrous pipe sanitary sewerspecified? XYcs —No c) 10 fL horizontal separation from waterins or 18 in. vertical separation (water over sewer) or ferrous pipe specified? ?t 'Yes No 13. Are manholes subject to flooding? Yes No 14. If yes, art manhole rim elevations 1 foot above 100-year flood level, Yes — No (100 year flood elevation should be indicated on plans) 1. Or are manholes watertight and vented 1 foot above ft 1 flood elevation ( should b: shown on plans): ,.Yes —No 16. Identify (by manhole number) those manholes that am vented: 1.` Does this project involve any stream crossings? yes no. If yes, what pr 4 unions or special features have been utilized to ensure protection of the sewer line and not restrict stream flow? Identify the sheet of the plans and station number where stream crossings are located: Piping is installed on bridge, 4 of 10 GRAVITY SEWER EXMNSION & PUMP STATIC_t* PACES of 10 (4/91) Sheet 5 V. PUMP STATION INFORMATION I . PumpStation No.: SS-1 (A separate sheet V.I through V-15 should be submitted for each pump station) . Name of closest downslope surface waters; rake Norman 3 Classification of closest downslo surface waters: WSM 1 P (as established by the Environmental Management fission & specified on page of this applic.). . If a power failureat this pump station could impact waters classified as S, SA, B, or , describe which of the measures are beingimplemented to prevent such impact, as required in 15A NCAC .02 1,-101 s after the alarm energizes. If outage is more than 4 hours, employee will .5. What size pumps are provided? 89 P 6. How manypumps are provided? 7. What is the maximum capacityof the pump station? 1 , 212 ; p 8. What is tho design to taldynamic h? 2 f t; y, 9. How many pumping cyclesa e design flow rate?- 6.9 cycles ho ,. 0. Check if provided at pump station; Alternate. Power Sou Wet Well Vent en Fillets in wet Well x Check Valves d Gate Valves Security Fencing le Wet Well Cover Area Light. exis ing 10V Electrical nveniOutlet x Flood/Buoyancy Protection n a High Water Alarm Yes Audible andYisual yes Auto Dialer 11. ' Summary of force main (by diameter size pi )® Diameter Pipe ffigh LowMinitnum" . n um (Inches) Ft) Matexial Elevation .Elevation Vet ity( s} Vel.( s).. Cover (in) 4 1,490- PE 783. - 2'. 14 ' 2. 5 36 1:. Are air release valves provided at all high points along the force `n ( us vid wherethe elevation difference exceeds 10 feet)? x yes no r s I n 13. Is u p station subject to flooding? yes x ° no. If yes, what measuresarc ing taken to protect against flooding? ,'' 14� If bj t !%flooding, specify the 100-y= flood elevation. Feet MSL 1. ` Are there existing or planned pump stations downstream of this station? , yes X no If yes, the engineer shall evaluate the ability of those pump stations to adequately handle the subject flows. GRAV17TY SEWER EXrEmsION & P TA tool ::,: PAGE 5 of 10 (4/91) Sheet 5B PUMP STATION INFORMATION I, Pump Station No.: I-1 (A separate sheet V.l through V-15 should be submitted for each pump station) . Name of closest downslope surface waters: Lake Norman 3. Classification of closest downslope surface waters: S- I ; (as established by the Environmental Management rx i sion & 'fied on page 6 of this a lic.). 4. If a power failure at this pump station could impact waters classified as' S, SA, B. or S% describe which of the measures am being implemented to prevent such impact, as required 15A NCAC 2H . 2 : nd 'i tin manhole -are sized to store ,4 gallons, after the alarm energizes. If outage is more t n ours,=employee , will be directed to stop washing equipment. S. at size pumps e provided?. GP 6. How many Pumps are provided? 2 7. What is the thaximum, capacityof the pump station? 1, 955 P . 8. What is the design total dynanuc 23 feettl 9 ow many pumping cyc1cswill occur at the dcagn flow rate?. 2 ; cycles e - 10. Check if provided a pumpstation: Alternate Power Source Wet Well Vented ith Fillets. et Well x Check Valves and Gate Valves " x Security Fencing Locka6le Wet Well Cover x Area Light. xi I n9 I10V Electrical nv 'Outlet Flood/Buoyancy Protection n a , `gh Wafer Alarni yes —.Audible • " ,yes , Atp I I ' 7- s4riimary of force main (by` d pi ' material): IMeter Length Pi •gh .mum n . im um dm) (Linear Et) Material Movation Elevation V Isty( ) .(fps)'.. Cover (ut) 462 PE 774.0 760.0. 5.'2 5.9 36 12. Arc air release valves provided at all high points along the force main (must be provided where the elevation difference 10 f ) x yes no" 13 Is pump station subject to flooding? yes x no: If yes, what rn s' am y being taken to protect against floodine. 1«4, 1ftubjett to flooding, if the 1 g, specify -y elevation: Feet MSL 15. Am there existing or planned pump stations downstream of this station? x yes no If yes, the engineer shall evaluate the ability of those pump stations to adequately handle the subject flaws: GRAV11Y SEWER EXrENSTOM & P r PAGE 5 of IO ( 191) Sheet . PUMP STATION IN OR A-r[ON I. Pump Station No.: IW-2 (A separate sheet '.1 through 't'.15 should be submitted f©r°each pu p station) 2. Name of closest downslope surface waters: rake Norman 3. Classification of closest downslope surface waters: WS- IV by (as established the Environmental Management Commission & "fied can page 6 ofthis lic.). 4. If a power failurclat this pump station could impact waters clas ` as'WS, SA, B, or , describe which of the measures being imPlemented to prevent such finva a r u` ISA C . 2 0• sump and new manhole are sized to store , 89 gallons, after the alarm energizes. If o age` s mire an 4 hours, employee wi I I 6e direct to stop all influents until a power source is restored. >' 5. What size pumps are provided?. 63 GPM, 6. How y pumps p vid a 7. What is e. maximumaci of the pump station? ., 6 p " 8. What is thc design to dynamic 16 9 ow many pumping cycleswill occur :at the design flowrate,,? 3, l houry.. eye 10. Check if provided at pump station: Alternate Power Source Wet Well'Vented Fillets in Wet Well Check Valves and Gate Valves Security Fencing Well Cover x Area Light existing I10V Electrical ConvenienceOutlet Flood/Buoyancy Protection n a - $gh Wafer Alarm yes .Au 'blc and.Visual yes Auto Dialer 11. S-am Mary of force y diameter size and pipe Pipe, High w h1inimum Ma i mum tch ) Ft) t ev tion Elevation l ;' ity(fps) V1.(fps), Cover (in) 3, 785 PE. 769.25 761.75 3.'l '$ .O 36 12 release valves provided at all high points along the force "n (must be provided where the elevation differenct exoeeft 14 f )? yes no 13.. Is pump station subject toflooding? ye no: If yes, what m ° s. e"being taken to protect against flooding? 14. If;sub eZt tq flooding, specify the 100-year flood elevation;Feet MSL 15 there existingplanned u or p pump stations downstream of this station? y no If yes, the engineer shall evaluate the ability f those pump stations to adequately handle the subject flows. G SEWER EXTENSION pUMPSTAT[Or4:` PAGE 5 of 10 (4191) Shut 5D '. POMP P STATION INFORMATION I. P Station Na.: IW-3 ; P (A separate sheet 'V. l through 'V-15 should be submitted for each ,pu p; station) 2. Name of closest downslope surface waters: Lake Norman . Classification of closest do nslope surface waters: WS- I (as established by the Environmental Management 'ssion & specified on page 6 of this applic.). . U a power failure t this pump station could impact waters classified . WS. SA,, B, or SB, describe which of the measures are beineimPlemented to prevent s ch ' pas required' A, N C .02 ; Sum and new manhole are sized o ore � � 89 gallons after the alarm energizes. If outage is more than 4 nUUPK-,-Fm-pIZ7ez--wl-"-'be-directed to stop all influent flows until a power source is restored, 5. t size pumps art provided?. P -------------------- 6. How many pumps are, provided? . What is themaximum aci of the pump station? 20 , 2 3 p ' 8. What is the design total dynamic feet 51 . 9, know many Pumpingcyclesur:at the design flow rat c? ho * W . 1.0. Check if provided at pump station: Altornate Power Source Wet Well Vented 'th Screen x Fillets in 'Vet well at Check Valves 'te Valves Security Locka6le Wet Well Cover Area Light, exis 7 g 110V Electrical ConvenienceOutlet Flood/Buoyancy Protection : _ n a High Water Yes Audible and,V7-1'=gyeS Auto ' I -'gummary of force y diametersi= and pipe material): is Pipe High w um t ) Ft t e tion Elevation ei m ty(fps} V�i.(fps., v Can) 4 2,950 P8 786.833 759.041. 4 , 64 36 a 759.041 2.54 12. Are air release, valves provided at all high points along the force 'n (must be provided where the elevation difference 10f ? yes no I3, Is Pump station subject to flooding? yes ' no: if yes, what e es- ` . being taken to protect against flooding? 14i Ibsub4ect to 11 ing, specify the 100-year flood elevation: Feet MSL IS. Are there existing or planned pump stations downstream of this station? xy no if yes, the. engineer shall evaluate the ability of those pump stations to adequately handle the subject flows. GRAVUrY SEWEp,E I PUMP ST'A"T`l'OK:' PAGES of 10 (4/9 1) Shut 5E I. Pump Station o.: IW-4 (A separate sheet V.1 through V.15 should be submitted for cacti pump station) . Name of closest downslopc surface waters: Lake Norman . Classification of closest downslope surface waters: W- I V (as established by the Environmental Management Commission & specified fied on gage 6 of this appli ,); 4. If a power failumat this pump station could impact waters classified ' S, SA, B, SB, describe which of the measures are being imolernented, to prevent such impact, requiredin 1 A C .02 : Sump is sized to store 564 gallons aftera e alarm energizes.If outage is more than 4 hours, employee will-FeMUrec ed to stop influent flaw from IW-5 until a power source is restored: . What size pumps areprovided?. 6. How many pumps are provided? 7. What is . e u paci of a station? 627 P S. What is the design to dynamic h d. � -10 f eet 9. How many pumping cycles win occur -.tat the design flow rate?{ cl hour- ur- 10. Check if provided at pump station. Alternate Power Source - Wet Well Vented Screen Fillets in Wet well x Check Valves and Gate Valves . Fencing' urity S kaeWet Well Cover Area Light existing IQV Electrical CDavenicticeOutlet x Flood/Buqyancy Protectionn a High Water Alarm Yes Audible d.'V' yesAuto Dialer I I. "Summary of forcey diameter d pipe material): iaraetw Length Pipe Mgh - .mum N n ') Ft) Material Plevation Elevation 'VCIity(fps) Vcl.( ), Cover ( 73 PE 752.0 748.4 4.4 ' 6. 5 36 4 4 a52 7.4 _ L 1.65 36 12. Arc airrelease valves provided at all high points along the force `n (must be providcd where the elevation difference to )? x yes o -1 Is pump station subject to flooding? yes ' nor If yes, what ,bcing taken to protect against flooding? 14; if*sub" , t'o'fly ing• specify the 1 _ elevation:Feet MSL 15, Arc there existing or planned pump stations downstream of this station? x y no If yes, the engineer shalt evaluate the ability of those pump stations to adequately handle the subject flogs. �► i r r, r r+ r • r « r « r s. « •r «.s�, r *, r r Vt .ry SEWER EXTENSION & PUMp STAnO ESof 14 (4/gl) Sheet 5F (A. separate sheet V.1 through V.15 should be graters: make Norman urface waters: S-1 (as established �omniission & s-pecifiedon page 6 of this aiic.. ►n could impact waters classified as' S, SA, B. or are ine implemented to prevent such " ua 3ump is sized to store 1,268 gallons, Mer the core than hours, e p oyes wi e rrec dd to sower `source is restored. 7.5 , M. pump station? 627 I? 2A , 5, fg rat the design caw te? .cycles per hour- t-necK it provided at pump station: Alternate Power Source Wet Well Vented ith Screen FU1 is in et Well, Check Valves to Valves Security Fencing e Wet Well Cover x Area l fight. exn s ing I10V Electrical Convenience Outlet x Flood/Buoyancy Protection n a High Wafer Alarm yes Audibled.. i yes Auto Dialei a &mary of force Y diameter size pi pe material). Pipe MSh w brutmum m . teh ' j Ft) Material, Elevation Elevation Velocity(fps) Vcl.(fpsy Cover (M) 2 68 PE 778.8 766.0 h/a '� n/a- 36 12. Are air release valves provided at all high points along the force in (must be provided where the elevation difference t0 )? x yes no 13. Is Pump station subject to flooding? Yes ' no If yes, what m s• being taken to protect against flooding? 14,. * If kb j t to flooding. specify the 100-year flood elevation;Feet MSL 15. Am there existing or planned pump stations downstream of this station? y —no If yes. the engineer shall evaluate the ability of those pump stations to adequately handle the subject flows: GRAVUry SEWER EXrENSTON P � PAGES of 10 (4/91) Sheet 5 STA'i�rC)N `: 1, Pump Station. No.: lW-6 - (A separate shut V. t 'through V.IS should be- subn-dtted for cacti pump station) .. Name of closest downstope surface waters: Lake Norman 3. Classification of closest ddwnstope surface waters: WS- I (as established by the Environmental Management n ission & specified on page 6 of this applic,). 4. If a power failure at this pu p station could impact waters classified ' S. SA, B, SB, describe which of the measures are bomix imolonionted to prevent such inp Mquiredin ISA C .02 .: sump is sized to store 2,631 gallons,,aaa er the alarm energizes. If outage is more th n 4 ours, emp oyee wz I I BY erected to stop all influent flows to IW-6 until a power source is restored: S. What size pumps are provided?. Inc. 6. How Y pumps .p id 7 g 7. What is the rrtaxinium capacity of the pump station? 2i'Q58 t`si'I7► 8. What is the design total dynamic head? 1.8 9 ow t pumping cycles e d ow tel . cycles hour. r 10. Check if provided at pump station: Alternate Power Sou Wet Well Vented with Screen u Billets in "et Well x Check Valves d Gato V . x - Security ka el Wet Well eh ver Area Light. exi s t ng 110V" Electrical ConvenienceOutlet Flood/Buoyancy Protection n7a High Water yes Audible d - yes Auto'Dialer 1. StlEmIlary of force y diameter Am and pipe ). ' Pipe HighblinitnumMaidmum im um ) F0 MaterialElevation Elevation Velocity(fps) Velgpsy Cover C ) goo PE 52.0 744. 2.68'*' '� 4.0 36 12. Are air release valves provided at all high points along the force main (must be provided whom the elevation difference IQ f ? y no 13. Is pump station subject to flooding? yes " no yes, what' cA ' being taken to protect against flooding? 14.1f,,subldct ta;fl iti specify the g� 100-yoar flood elevation: Feet MSL IS. Am there existing or"planned pump stations downstream of this station? ,, yes no if yes, Elio engineer shall evaluate the ability of chase pum the subject flows. p stations to adequately handle DIVISION OF ENVIRONMENTAL MANAGE EGIONAL OFFICES 4 1) Asheville Regional WQ Super. Washington Regional WQ Super. Raleigh Regional WQ Super. 59 Woodfin Place P O Box 1507 3800 Barrett Dr., Suite 101 Asheville, NC 28802 Washington, NC 27889 Raleigh, NC 27609 704/251-6208 919 81 9191733-2314 Avay Macon Beaufort Jones Chatham Nash Buncombe Madison Berfie Lenoir Durham Northampton Burke McDowell Camden Martin be Orange Caldwell Mitchell Chowan Pamlico Franklin Person Cherokee Polk Craven Pasquotank _ Granville Vance Clay Ruth` Currituck Perquimans Halifax Wake Graham Swain Pitt Johnston Warren Haywood Transylvania Gates Tyrell LM Wilson Washington Jackson Hertford Wayne Hyde Fayetteville Regional WQ SMooresville Regional WQ Super- Wilmington Region. WQ Super. Wachovia Building, Suite 714 919 North Main Street, 127 Cardinal Drive Extension Fayetteville, NC 28301 Mooresville, NC 28115 Wilmington, NC 29405- 5 9 4S -1 1 7 3-169 919/395-3900 n Moore Alexander Mecklenburg Brunswick New Hanover Bbdcn Robeson Cabarrus Rowan Carteret Onslow Cutribmiand Richmond Catawba Stanly Columbus Pender SampsonHwnea Gaston Union Dupliri Hoke Scotland ll Cleveland Montgomery Lincoln Winston-Salem Regional WQ Super. 8025 North Point Boulevard, Suite 100 Winston-Salem, NC 27106 919/761-2351 Alamance Rockingham Alleghany Randolph Stokes Caswell Surry DavidsonWatauga Davie Wilkes Forsyth Yadkin Guilford 7 of 10 GRAVITY SEWER EXTENSION & PUMP STATION PAGE 8 (4/91) ; THIS APPLICATION PACKAGE WILL NOT BE ACCEPTED BY THE DIVISION OF ENVIRONMENTAL MANAGEMENT UNLESS ALL OF THE APPLICABLE ITEMS ARE INCLUDED WITH THE SUBMITTAL Required1tenis a. One original and three pies of the completed and appropriately executed application form. . Three sets of detailed plans and specifications signed and sealed by a North Carolina Professional Engineer. The plans must include a general location map, a plan view of the sewer extension, a profile of the sewer extension, details on the pump station, and must show the proximity of the sewer extension to other utilities and natural features. Specifications may be omitted for delegated authorities. Each sheet of the plans and the first page of the specifiqations must' be signed and sealed. copies of the existing permit if a renewal or modification. C. Three pies of all calculations, including pump selection, 'friction calculations, cycle time, pump curves (including, system curves applicable with one pump running, two pumps running, three pumps running, etc.), and evaluation of 'downstream pump stations. These items must be submitted under the signature and seal of the North Carolina Professional !Engineer. d. The appropriate permit processing fee, in accordance with 1 SA NCAC 214 0205(c)(5). e. If the owner/authority of the wastewater treatment facility I"F that will be accepting the wastewater flow from, this project is different from the applicant of the project, then a letter must be provided from the owner/authority of the WWTF specifying the volume of flow that will be accepted. The letter should be a `recent letter and should refer to the project by the same name as that identified on the application and. the plans/specifications. f An Operational Agreement (original and two copies) must be submitted if the sewer extension will be serving single family residences, condominiums, mobile homes, or town houses and if the subject sewer extension is owned by the individual residents, a homeowners association, or a developer. 8 of 10 GRAVITY SEWER EXTENSION & PUMP STATION PAGE 9 (4191) Name and Complete Address of Engineering lF : Duke Power Company -Corporate Facilities PO Box 1007 City: Charlotte State: NC Zip: 1 28201-1007 Telephone No. 704 38-426 Professional Engineer's Certification. I. Li nus G. Goodman, III. P.E. -.attest that this application for McGuire Site. and J�Jgnd Sanitary Sewage Modification has been reviewed by me andi accurate and complete to the st of my knowledge. I further attest that to the best of my knowledge the proposed design has n prepared in `accordance ith the applicable regulations. ,Although certain portions of this submittal package may have been developedby other professionals, inclusion of these materials under my signature and seal signifies that I have reviewed this material and have judged it to be consistent with the proposed design. North Carolina Professional Engineer's Registration No. 10166 `ntN eofEngn r Linus G. Goodman, III, P.E.- +' Seal and Signature (specify date) S F A 10 Applicant's Certification: John S. darter ,,attest that this application for McGuire, Site. Island Sanitary Sewer Modification has been reviewedby me and is accurate and complete to the best of my knowledge. I understand that if all requiredparts of this application are not completed and that if all required supporting information and attachments are na included, this application package will be returned incomplete. Signature ,f Date ( a '/ THE COMPLETED APPLiCATIOL PACKAGE, INCLUDING AU SUPPORTING INFORMATION AND MATERIALS, SHOULD E SENT TO THE FOLLOWING ADDRESS: NORTH CAROL NA DIVISION V ON E AL MANAGEMENT WATER QUALITY SECTION PERMITS AND ENGINEERINGUNIT POST ICE BOX 29535 512 NORTH SALISBURY STREET � , RALEIGH, NORTHO A 27626-0535 TELEPHONE NUMBER: 919/733-5083 f 10 GRAVITY'SEYffiREXTENSION & PUMP STATTQN PANE 10 (4/91) PERMIT APPLICATION PROCESSING FEES (effective October 1, 1990) ` U RY APPLI TnQNSL W HOUT MOD CATIONS ,MQQ1BQ&TlQNS > 1,000, GPI Industrial $400 $300 tic/ling Water $400 $300 10,001 - 1,000,000 GPD Industrial $400 $250 DomestiqlCoolingWat $400 $250 . 1,001 -.10,000 GPD a ♦'�a Indus $400 $200 ti:6 tic( ling Water $400 $200 < or == 1 GPD and Single Family Dwelling $240 $120 Sludge < or = 300 Acres $250 Sludge > 300 Acres $250 Sewer Extensions (nondele;atex_i) $400 0 Sewer Extensions (delegated) $200 0 Closed -Loop Recycle or Evaporative $400 $200 NOTE: The Fees for Soil Remediation Projects are the same as for Sludges. Under the Sewer Extension Fee, "delegated to municipalitiapplies only to 'those governmental jurisdictions that have specific delegation review authority, as granted by the division of Environmental Management. 10 of 10 Project No.. 94-0017A :DUKE POWER McGUIRE NUCLEAR STATION COMMERCIAL SANITARY SEWER ISLAND AND SITE MODIFICATION ELECTRICAL SPECIFICATION — SECTION 16000" TABLE OF CONTENT SECTION DESCRIPTION 16050 GENERAL REQUIREMENTS 16110 RACEWAYS 16120 WIRE, CABLE AND CONNECTOR 16145 WIRING DEVICES 16450 GROUNDING 16460 TRANSFORMERS 16470 PANELBOARDS a W. w 15, DIVISION 16000 - ELECTRICAL WORK SECTION 16050 - GENERAL REQUIREMENTS 16050.01 GENE 16050 01.01 INTRODUCTION. The work covered by this section of the specification consists of furnishing all labor, equipment,; supplies and materials and performing all operations, including trenching, backfilling, cutting, channeling, chasing and patching necessary for the installation of the complete electrical system, in strict accordance with this section of the specification. The work is further described in the body of the specifications and on the electrical drawings. 16050.01.02 APPLICABLE SPECIFICATIONS AND STANDARDS: The applicable provisions of the fallowing specifications and standards shall form a part of these specifications.' A) Underwriters Laboratories Incorporated B) National Fire Protection Association C) National Electrical Manufacturers Association D) National Electrical Code 16050.01.03 BASIC ELECTRICAL TERIAL AND METHODS: The installation shall comply with the applicable rules of the National Electrical Code and rules and regulations of local authorities having jurisdiction. In no case shall the materials and workmanship fail to meet the minimum requirements of the National Electrical Code. Certificates of approval where required shall be issued by those departments having jurisdiction before work will be approved for final payment. The ;contract drawings indicate the extent and general arrangement of the electrical work. The drawings and specifications shall be considered supplementary, one to the rather, so that materials and workmanship indicted called for or implied by the one and not by the ether shall be supplied and installed as though specifically called for by both. All labor and :material required to perform all work in conjunction therewith whether or not indicated or specified shall be furnished and installed as part of this work The Contractor shall do all cutting necessary for the proper installation of his work, and shall repair any 'damage dame by himself or his workmen or other workers under his supervision. GENERAL REQUIREMENTS 16050-1 16050.02 MATERIALS: All materials used in this work shall be new and approved by Underwriters Laboratories in every case where they have established a standard for the particular_ type of material to be installed. All lighting fixtures shall bear the label of Underwriters_ Laboratories. Reference in the specifications to any article, device, product, material, fixture,, farm, or type of construction by name, make, or catalog number shall be interpreted as establishing a standard for quality and shall not be construed as limiting competition, and the Contractor, in such cases, may at his option use any article, device, product, material, fixture, form, or type of construction which in the judgment of the Project Engineer, expressed in writing, is equal to: that specified. 16050.03 SUPERVISION: The Contractor shall have in charge of the work at all times during construction a thoroughly competent foreman with extensive experience in the work to be performed under this contract. Anyone deemed not capable by the Engineer shall, be replaced immediately upon request, and after a satisfactory foreman has been assigned, he shall not be withdrawn without the written consent of the Engineer. 16050.04 DOCUMENTATION: 16050.04.01 The Contractor, upon completion of this project, shall furnish a clearly marked set of as -built drawings to the architect. Any variations from the original drawings/specifications shall be noted in detail. 16050.04.02 The Contractor upon completion of this project, shall provide the owner with copies of warranties, operating manuals, specifications and service agreements for all equipment supplied and installed as part of the electrical portion of this project. 16050.04.03 Shop drawings reviewed and approved by the; electrical contractor shall be submitted in a timely manner prior to delivery of the equipment by the manufacturer/supplier for Corporate Facilities Engineering approval. GENERAL REQUIREMENTS 16050- -1605 .05 LABELING: All electrical equipment shall be Labeled with engraved Phenolic plates with white letters 0.575" high on a black background. Labels shall be mounted as follows: Panelboards to the front of the panelboard cover above the dour, centered between the two side edges and read as shown on the panelboard schedule. Transformers; to the front of the transformer enclosure centered between the two side edges and read as shown on the riser diagram. ♦ Disconnect Switches; to the front of the switch enclosure, centered between the two side edges and shall indicate voltage, number of phases, amperage and Load identification. Attachment to enclosures shall be made with an epoxy type adhesive compound to provide,a permanent resilient bond. 16050.06 "BEST`ANDWARRANTY: 16050.06.01 Upon completion of work, Contractor shall demonstrate installation and make such tests as may be required to satisfy' Architect/Engineer and Owner that work is installed in accordance with Drawings, Specifications, and instructions. 16050.06.02 Contractor shall guarantee the work done in accordance with Drawings and Specifications, and to be free of imperfect materials and defective workmanship. Anything unsatisfactory shall be corrected immediately at Contractor's expense. 16050-.06.03 For a period of one year after acceptance, Contractor shall replace, without any expense to the owner, any imperfect materials or defective workmanship. GENERAL REQUIREMENTS 160 0- 16110.00 RACEWAYS 16110.01 GENERALS 16110.01.01 This section of the specifications details; the requirements for electrical raceways including conduit, electrical metallic tubing, and wireways, which are used for electrical power and signal distribution. 16110.01.02 All raceways used for power or signal distribution shall comply with the applicable requirements of the NEC, NEMA and be UL listed.; 16110.02 METAL CONDUIT AND TUBING: 16110.02.01 Unless otherwise specified, conduit shall be Electrical Metallic Tubing (EMT) with appropriate compression type fittings for the type of installation indicated on the drawings. 16110.02.02 Unless otherwise specified„ flexible conduit shall be formed from continuous length of spirally wound, interlocked zinc -coated strip steel with appropriate fittings specifically designed to be used with flexible metal conduit and approved for grounding purposes. 16110.02.03 All conduit and fittings shall be of like materials.Where dissimilar metals; are used together, suitable provisions shall be de to prevent galvanic action. 16110`.03 NONMETALLIC CONDUIT: 16110.0.01 Unless otherwise specified, nonmetallic conduit shall be Electrical Plastic Conduit (PVC), schedule 40, 90°C, UL rated for direct burial, or normal above ground use where applicable. 16110.05 INSTALLATION: 16110 05..01 Install raceways as indicated on the drawings and in compliance with NEC, and NE 's "Standards of Installation"-. 16110.05.02 Exposed conduits shall be installed parallel with or perpendicular to structural members, and shall follow the approximate routing shown on the drawings, except as required to avoid interferences. 16110.05.03 Mechanically fasten together metal conduits, enclosures, and any type of raceways to form continuous electrical conductors. Connect; to electrical boxes, fittings and cabinets to provide electrical continuity and firm mechanical assembly. 16110.05.04 All junction boxes, cabinets, switches, light fixtures and other electrical equipment shall be solidly' mounted prior to the installation of conduit, and shall not depend upon the conduit for support. Back to back or thru wall installation in fire rated walls is prohibited unless approved by Project Engineer. Conduit systems shall be installed complete between pull points before pulling wire. 16110.05.05 Install expansion fittings .in raceways every 200 feet of linear run or wherever structural expansion joints are crossed,. RACEWAY 16110-1 16110.05.06 The ends of <all conduit runs shall be closed immediately after installation to prevent the accumulation of water, dirt and other foreign material. 16110.05.07 Bends may be either factory or field made. The radius of field bends shall be not less than those established by the NEC, and bends shall be made such that the effective cross -sectional area of the conduit is not reduced. Heating for bending shall be done by UL approved methods and shall be approved by the Engineer. 16110.05.08 Conduit connections to junction boxes and other equipment having unthreaded openings shall be made using lock nuts and insulating bushings in a manner that ensures electrical continuity for grounding purposes. 16110.05.09 Fittings may be used for 90* turns at circuit voltages of 600 volts and below, except that conductors 4/0 AWG and larger may require pull boxes in order to allow sufficient cable bending radius. 16110.05.10 All exposed conduit (or above drop ceilings) shall be rigidly supported between couplings, on either side of bends, at terminations and fittings, and in general on not greater than 10 ft. centers for I" and larger conduit, and 8 ftcenters for 1/2" and 3/4" sizes. Conduits in damp location or outdoors shall be exposed to the air on all sides, and shall not be installed tight against walls, ceilings, and structural members, etc. Use clamp backs and/or offsets as necessary to maintain uniform clearances. 16110.05.11 Field cut conduit ends shall be square and reamed of inside burrs and sharp edges. Field threads shall have the same dimensions and taper as factory cut threads. 16110.05.12 If threads are exposed on galvanized conduit after threads are made up, the exposed threads shall be coated with cold galvanizing compound. 16110.05.13 Flexible conduit shall be used for final connection to all motors, recessed lighting fixtures, and other devices subject to movement or vibration. 16110.05.14 All electrical installations requiring flexible connections in outdoor or wet locations shall be provided with seal -tight flexible conduit and suitable connectors. 16110.05.15 All cable tray and conduit banks (groups of conduit) shall be suspended from structure above using threaded rod and unistrut channel installed in a trapeze configuration. All threaded rod to channel connections shall be double nutted to ensure installation security. NOTE: It is acceptable to use beam or,flange clamps to secure unistrut channel to structural steel where electrical raceways will remain reasonably accessible. RACEWAYS 16110-2 16120.00 WIRE, CABLE AND CONNECTORS 16120.01 GENERAL: 16120-.01.01 This section specifies the minimum requirements for wire, cables and wiring connectors used to distribute electric power. 16120.01.02 All wire, cable and wiring devices shall comply with the applicable NEC, ICKA and IEEE codes and/or standards, and shall. be UL listed and labeled. 16120.01.03 Wires and cables shall be manufactured by Anaconda, General Electric, cOkonite, Phelps -Dodge, Rome, Simplex Triangle, or approved equal, 16120.02 WIRE: 16120.0 .01 All wires to be furnished for this project shall be copper of the size and ampacity indicated on the drawings and shall be type THHN or THWN, unless otherwise indicated. 16120.02.02 Branch circuit conductors shall be no smaller than No. 12<AWG, except that conductors for 20 AMP branch circuits whose length from panel to center or load.. exceeds 300 feet shall be no smaller than No. 10 AWG to the first outlet. 16120<.02.03 Conductors No. 10 AWG and smaller shall be solid. Conductors No. 8 AG and larder may be stranded. 16120.03 LE: 16120.03.01 All cables to be furnished for this project shall be of the size, ampacity rating, voltage rating and jacketing/sheathing indicated on the drawings. 16120.03.02 Direct buried cable shall be of the size and ampacity indicated on the drawings and shall be approved for direct burial. Conductors shall be copper with TH N Type insulation. 1612004 CONNECTORS: 16120.04.01 Provide L-listed factory -fabricated, metal connectors of sizes, ampacity ratings, materials, types and classes for applications and for services indicated. Where not indicated, provide proper selection as'determined by Installer to comply with project's installationrequirements, NEC and NEMA standards. 16120.05 INSTALLATION: 16120.05.01 Wiring installations in conduit shall be made so that no undue stress is placed on the insulation. Slack wire shall be left in junction boxes and pull boxes so that the wires are not drawn tight against bushings; insulation is not squeezed at corners; or undue stress is not placed can terminal studs. Insulating bushings shall be used at the ends of all conduits. 1.6120.05.02 Conductors shall be continuous from pull box to pull box, outlet to outlet, junction box or conduit fitting.. Splices willnotbe permitted in wireway, troughs, cable trays or conduit fittings unless approved for splicing service. Wire size of ##1/0 or larger shall not be spliced unless approved by the engineer. WIRE, CABLE & CONNECTORS 16120-1 16120.05.03 Where Splices are required, wire connectors of insulating material or properly taped solderless pressure connectors, shall be utilized for all splices in wiring. 16120.05.04 All conductors run, but not used or connected, shall be tagged as spare at each end. Spare conductors run with instrumentation/' control circuits to be grounded at one end only and taped at the other end. Ground power circuits at both ends. 1612.05.05 Compression type connectors size # 1/0 AWG and above shall be crimped: with a hydraulic total with the die size as recommended by the connector manufacturer. 16120.05.06 For installation of cables and wires in conduit; systems, wire pulling compounds approved ;by cable manufacturers, such as Burndy "Slikon" or equal, may be employed. Mixtures containing soap or detergent shall not be used. 16120.05.07 Bending radius for cables shall be as per NEC Sections 330-13, 3 3-8, 334-11 and 6-14 or any other applicable section. 16120.05.08 All conductors for 240/120vac and 208/120vc systems shall be color coded by phases (Phase A, Black; Phase B,%Red; Phase C, Blue; Grounded Neutral, White: Equipment Ground, Cretin); for 480/277vac systems phase conductors shall be color -ceded by phases ;(Phase A, Brown; Phase B, Orange; Phase C, Yellow; Grounded Neutral,White with Stripe, Equipment ground, Green with stripe) and plainly marked in accordance with Sections 200-6, 210-5, ;310-11 and 310-12 of the NEC, and shall be clearly legible after installation. Scotch tape of proper color shall be used, whenever required, to identify the phase conductors of the larger feeders. Panting or taping will not be acceptable can conductors No. 6 AWG or smaller. Note: For applications where 240/120 ac and 208/120vac are installed in the same areas, the electrical contractor shall identify the; 240/120vac from the 208/20vac by some means of highly distinguishable markings. 16120.05.09 All feeders,; subfeeds to panels,; meters, etc., shall be completely phased -out as to sequence and rotation. Phase sequence shall be A-B-C from front to back, top to bottom, or left to right when facing equipment. 16120.05.10 Energize circuitry and perform operational: tests to verify proper operation. Where necessary, correct any malfunction and retest. If a circuit breakers trips, a circuit test shall be performed to determine the cause of trip and the problem resolved; prior to resetting the breaker to energize the circuit.. 16120.05.11 Where a group of single phase circuit conductors (x-y-z phases) are routed to an area in a common raceway a #10 AWG neutral conductor of the 'same insulations type as the phase conductors . shall be routed from the power source to the point at which the circuits are divided for distribution to their respective loads unless specified otherwise on the drawings. WIRE, GABLE & CONNECTORS 16120- 16143.00 WIRING DEVICE 114.01 GENERAL: 1614.01.01 This section of the specification covers the minimum requirements for electrical devices such as receptacles, switches, wallplatds, etc., which are defined as units of electrical distribution systems which are intended to carry but not utilize electric energy. 16143.01.02 All wiring devices shall be Federal Spec. WS-596 for receptacles, WS'-896 for switches and comply with the applicable requirements of the NEC, NEMA, IEEE and be UL listed and labeled. 16143.01.03 All wiring devices shall be manufactured by Crouse -Hinds Co. Eagle, General Electric Co., Harvey Hubbell Inc., Thomas and Betts Corp.,Square D, Westinghouse, Wi.remold Co., or approved equal. 16143.03 SWITCHES 16143.03.01 Single phase disconnect switches shall be 2 pole non -fusible heavy duty in a NEMA l enclosure for indoor use or a NEMA 3R enclosure for outdoor use. Voltage and ampere rating shall be as indicated on the drawings. 161 ,3.03.02 Three phase disconnect switches shall be 3 pole non -fusible or - fusible where indicated on the plans, heavy duty in a NEMA 1 enclosure for indoor or a NEMA 3R enclosure for outdoor use. Voltage, ampere, or fuse rating shall be as indicated on the drawings. 16143.03.03 Flush mounted toggle switches for general use shall be 20 amperes, 120-277 volts AC, with mounting yoke insulated from mechanism, equipped with plaster ears, switch handles, and back/side-wired screw terminals. 1614.03.04 Combination ;switch/receptacle devices for general use shall be 20 amperes, 120-277 volts AC, with toggle switch handle, and 3-wire grounding receptacle, 0-amperes, 120 volts, equip with plaster ears, and with break -off taus which allow separate or common feed wiring,; with NEMA 5-20R configuration. 16143.03.05 Special-purpose switches shall be specified on the drawing. 16143.07 INSTALLATION: 16143.07.01 All wiring devices shall be installed in accordance with manufacturer's instructions, applicable requirements of NEC, and as indicated: on the drawings. 16143.07.02 Wiring devices shall be installed only after wiring work is completed and electrical boxes are free from building materials, dirt and debris. 16143.07.03 Wallplates shall be installed only after painting work is completed and boxes are made plumb and flush fitting with wall surface. 16143.07.04 Prior to energizing the completed installation, thoroughly inspect and test wiring for continuity and short circuits. Ensure proper polarity, phasing of all connections and presence of all required neutral and ground connections. WIRING DEVICE 16143-1 16450.00 GROUNDING 16450.01 GENERAL. This section of the specification covers the installation of ground electrodes, grid systems, loop systems and ground connections for equipment grounds, power system grounds, service entrance grounds, separately derived systems and lightning grounds. Electrical systems shall be completely and effectively grounded as required by "The National Electrical Code"; however, the impedance to ground shall be 5 ohms or less. 16450.02 GROUNDING ELECTRODE: ' The grounding electrode shall be; the main metallic water pipe whore it enters the building, and/or be a copper welded steel rod 5 8" diameter by 10' long, or multiple copper welded steel rods 5I8" diameter by 10' bong interconnected by a BARE copper con- ductor as indicated on the drawings. , 16450.03 GROUNDING ELECTRODE CONDUCTOR: The grounding electrode conductor shall be copper of the size indicated on; the drawings. The grounding electrode conductor shall connect the equipment grounding conductors, the service equipment enclosure, and the system grounded conductor to the grounding electrode. 16450.04 BUILDING STRUCTURE AND PIPING >SYSTEMS: The following systems shall be bonded to the equipment grounding bus: A)All interior metallic piping. B) Metallic raceways. C) Steel building structure. 16450,.05 GROUNDING CONDUCTORS: A green insulated copper conductor shall be run with every feeder or branch circuit and sized in accordance with "able 50-95 of the NEC, unless specified otherwise on the drawings. GROUNDING 16450-1 SECTION 1 460.00 - TRANSFORMERS 16460.01 GENERAL: This section of the specification details the requirements for single-phase and three-phase dry -type transformers in ratings between 1 K A and 1000 KVA. All transformers shall be designed for 60 Hz operation, and manufactured by Square D, Westinghouse, ITE, General Electric, or approved equal: 16460_.02 STANDARDS:, Transformers shall be designed, built and tested in accordance with all applicable NEMA, ANSI and IEEE Standards. Noise levels shall not exceed maximum sound level :ratings as determined in accordance withANSI/NEMA Standards (NEMA ST-20). 16460-.03 INSULATION: All transformers shall be 115°C rise above 40°C ambient 'temperature unless otherwise indicated can the drawings. All insulating materials used shall b in accordance with NEMA ST-20 Standards for a 135°C insulation system. The basic impulse levels (BIL) shall be a minimum of 20 KV for the 2.5 KV class. 16460.04 WINDINGS AND TAPS:, Transformer primary windings shall be provided with full capacity taps, with a minimum of:2-24 above and 2-2 below rated voltage. 16460.05 ENCLOSURE: Transformers 15 KVA and larger shall be in a heavy gauge, sheet steel, ventilated enclosure. The ventilating openings shall be designed to prevent accidental access to live parts in accordance with UL, NEMA and NEC Standards for ventilated enclosures. Transformers 2 KVA and ;smaller may be of exposed core construction and shall be designed with leads brought into an adequately sized wiring compartment for connection of incoming primary and secondary conductors. Transformers larger than 2 KVA and smaller than 15 KVA shall be in a non -ventilated weatherproof enclosure. l transformers shall be designed to limit terminal compartment temperature to 75"C when transformer is operating continuously at rated load with ambient temperature of 40°C. The maximum temperature of the tip of the enclosure shall not emceed 500C ruse above 400 ambient. The ''core `of the transformer shall be visibly grounded to the enclosure by means of a flexible metal grounding strap. Transformers for outdoor use shall be provided with weather shields. 1646006RATINGS: The KVA and voltage rating of transformers shall be as specified on the drawings. 16460.07 NAMEPLATE: Each transformer shall be provided with a durable nameplate permanently attached to the, front of the transformer housing or case. The nameplate shall include a transformer connection diagram, transformer impedance, KVA rating,' temperature rise, and primary/secondary voltages, TRANSFORMER 16460--1 164 6 .0 8 IN STALLA°TI ON . 16460.08.01 Transformers shall be installed at the location indicated on the drawings; any necessary changes shall be approved by the [owner. 16460.08.02 Coordinate transformer installation work with electrical raceway and wire/cable work, as necessary for proper interface. 16460.08.03 Tighten electrical connectors and terminals, including screws and bolts, in accordance with equipment manufacturer's published torque values for equipment connectors. Where manufacturer's torquing requirements are not indicated, tighten connectors and terminals to comply with torque values specified in UL Std. 48A and B. 16460.08.04 Prior to energizing, the transformer windings shall be checked for continuity and correctness of connections. 16460.08.5 Prior to energizing the distribution system, transformers rated 150KVA and larger shall be tested as follows. - Megger the primary windings with the primary power supply cables connected and the breaker open. The secondary windings shall be meggered with the secondary lads connected and the secondary breaker open. Test results shall be within the limits below: Winding Meager 'Test Voltage Minimum Me ohms l� actin 40V 1000 45 240/120V or 500 30 208/10V TRANSFORMER 16460-2 ; 16470.00 PANELBOARDS 16470.01 GENERAL: 16470.01.01 This section of the specification covers the minimum requirements for AC 'power, lighting, receptacle and service entrance panelboards. 16470.01.02 Each panelboard shall be provided with main lugs or a main circuit breaker and single, double or triple pole thermal magnetic type branch circuit breakers;, as indicated on the drawings. The position of the toggle handles shall clearly indicate breaker position and when trapped. 16470.01.03 Panelboards shall: be factory assembled and rated for the voltage, ampacity and short circuit current indicated on the drawings. Series rated systems are not acceptable, 16470.01.04 Manufacturer's/shop drawings shall be submitted for engineering approval prior to shipment of equipment. 16470`.01.O5 Equip panelboard with unit devices, of types, ratings and characteristics indicated on the drawings. Construct with rectangular shaped bus bars of solid copper, with conductivity not less than 98 , which are securely mounted and braced for fault current as indicated on the drawings. 16470.01.06 Panelboardsshall: be manufactured by Square D, Westinghouse, iTE, General Electric or approved equal. 16470.02 ENCLOSURE: 16470.02.01 Pa elbo rds shall have a minimum width of 20 inches and shall be provided with wiring gutters no Less than 4-inch at the sides, and 6-inch top and bottom. These dimensions are minimum requirement and do not forfeit NEC requirements for cable 'bending radius and/or clearances for live parts. 16470.0.02 Flush enclosures shall be provided with trims having adjustable trim clamps. Trims shall be fitted with hinged doors having combination lock and latch and shall be keyed the same. 16470.02.03 Enclosures are to be fabricated by the same manufacturer as panelboards and shall mate properly with panelboards. Enclosures shall be NEMA 1 for indoor use, NEMA 3R for outdoor use and without knockouts'; unless otherwise indicated on the drawings. 16470.02.04 One or more directory holders with glass or clear plastic plate and metal frame as required for rendering entire directory visible shall be -furnished with each enclosure." Directories are to be typed with complete information for all circuits assigned (description, location and rating) and circuits designated as spares. PANELBOARDS 1470-1 16470.03 SERVICE ENTRANCE P ELBU DS. Panelboards -shall be dead -front, safety constructed factory - assembled service -entrance type circuit -breaker panelboards in sizes and ratings as indicated on drawings. Provide panelboard with bolt -in type heavy duty, quick -make, quick -brew main circuit breaker suitable for service on a 480 volt, 3-phase, 4-wire system or as otherwise specified on the drawings. Panelboard shall be provided with UL markings indicating "SUITABLE FOR USE AS SERVICE -ENTRANCE EQUIPMENT". 16470.04 POWER P ELBO, DS Equip with copper bus bars and with fill -size neutral bus; provide suitable; lugs on neutral bus for outgoing feeders requiring neutral connections. Where multi -pole breakers are indicated, provide with common trip so overload on one poke will trip all poles simultaneously. Provide panelboards with bare uninsulated grounding 'bars suitable for bolting to enclosures.: 16470.05 LIGHTING AND RECEPTACLE 'P ELBO S Provide dead -front safety type lighting and appliance panelboards as indicated on the drawings; with antiburn solderless pressure type lug connectors approved for copper conductors; equip with copper bus bars, and full-sized neutral bar. Provide suitable lugs on neutral bus for each outgoing feeder required; provide bare uninsulated grounding bars suitable for bolting, to enclosures. 16470.06 INSTALLATION: 16470.06.01 The Electrical Contractor shall mount the panelboards in their assigned locations, as indicated on the drawings, install any interior component, complete the external connections, and install the exterior trim. 16470.06.02 Panelboards shall be installed level, plumb and parallel to building lines. 16470.06.03 Provisions shall be made and furnished by the Electrical Contractor to protect the panelboards from mechanical injury during construction. 16470.06.04 Pan.elboards shall not be defaced with marking pens, etc. For construction identification, marked tags may be affixed to the panels,'' provided they can be readily removed after installation. If the panelboards are in any way defaced; it shall be the Electrical Contractor's responsibility to restore the surface to the original condition and finish or replace the equipment. PANELBOARDS 1470- t r: 16470.06.05 Before the completed installation is -energized, the panelboards, and their components, shall be thoroughly inspected and tested as necessary to ensure that the following requirements are met: A) Tightness of all connections. B) Continuity of all wiring. C) Correct phasing of all wiring. D) Presence of all required neutral and ground connections.' E) Absence of any unintentional grounds: F) Removal of all shipping braces, blocks, tapes, etc. C) Removal: of all tools, foreign materials and construction debris H)Removal of all obstructions from ventilating louvers and air passages. I) Installation of all required barriers. PANELBOARDS 16470- Project No.:--0017A N.Q PRPr.0 DUKE POWER ENVrROMENrr . HEALTH, MCGUIRE NUCLEAR STATION & NA -FT, , `°' >_ ..E;:,>i.;U.s CE PLUMBING COMMERCIAL SANITARY SEWER DOC; Y gong ISLAND AND SITE MODIFICATION SECTION 15410 u^' Prepared By: , Date: Checked By: Date: '•.� Approved By: Date: .✓ REVISION :,OC 2. 4. 5. 6. 7. ." 9. 0. EPSM15 TABLE OF CONTENTS Page No. PART1 - GENERAL 1.01 Definitions 15410-1 1.02 Qualifications 1.03 Bid Proposal Instructions 2 1.04 Related Documents 2 1.05 Discrepancies and Interpretations 3 1.06 Scope 3 1.07 ` System Description 3 1.O8 Codes and Standards 1.09 Submittals 1.10 Storage and Protection 5 1.11 Warranter 5 1.12 Owner Owned Material 5 PART 2 - PRODUCTS 2.01: Contractor Furnished Items 15410-6 2.02 ' General." 6 2.03 Piping System Material 6 2.04' Underground Warning Tape 10 2.05 Sewage Lift Station 10 2.06 Alarm Gable 1 2.07 ; Valves 15 PART 3 - EXECUTION 3.01 Plumbing Drawings 15410-16 3.02 Clearing of Site 16 3.03 Demolition 16 3.04 Excavation 1.' 3.05 Underground Pipe 17 .06 Grading 17 3.07 ' Concealing 1.8 3.08 Painting .09 Piping Systems .10 Flushing, Cleaning and Testing 3.11 Permits " and Inspections, Laws and Ordinances 3.12 Cooperation EHNCEN�,W Attachments 16 18 13 1 19 EPSM1.9 SECTION 15410 -- COMMERCIAL SANITARY SEWER. SYSTEM PART1 GENERAL 1.01 DEFINITIONS: A. Owner Duke Power P. 0. Box 1006 Charlotte, NC 28201--1006 B. Engineer For Questions Contact. Mr. L. Goodman, III, PE R. Lb Smith Duke Power Company - WC29G Duke Power Company - ;WC29 P. 0. Box 1007 P. 0. Box 1007 Charlotte, NC 28`201-1007 Charlotte, NC 2201.-1007 (70) 382-426 (704) 382-4266 C. Project Manager Mr. L. G. Goodman, III, PE Duke Power Company - WC29 P. G. Box 1007 Charlotte, NC 28201-1007 (70 ) 382-4246 D. Bidder A company or firm qualified to become the Contractor for the Work described herein. E. Contractor A licensed Utility Contracting Company or Firm awarded the order to supply, construct start. --up and test the sewer system described. herein. 1.02 QUALIFICATION A licensed. Utility Contractor shall perform all work specified in this Section and shown on the reference drawings. The Contractor shall be experienced in the installation of PVC piping and 'heat 'butt weld fusion of polyethylene piping, startup, and maintenance of gravity and farce main sanitary sewer systems. The Contractor shall employ experienced craftpersons, mechanics, and electricians to perform high quality work as specified herein Biel proposals shall include a Contractors Qualification Statement (AIA'Document A305) complete with a listing of similar jobs completed within the last two years and references for each. COMMERCIAL SANITARY SEWER EPSM195 GENERAL 1410-1 1.03 BID PROPOSAL INSTRUCTIONS: Bidders shall submit documents as specified in 1.02. Bidders shall visit the installation site and acquaint themselves with conditions which affect the work specified herein prior to submitting proposals. Bidders shall base proposals on the equipment manufacturers contained in this specification and on the reference drawings. Where multiple manufacturers are listed, proposals shall indicate the brand being furnished. Manufacturers other than those listed will be considered provided request for product approval has been received in the Engineer's office in writing not later than ten (10) days prior to bid opening date. All approvals by the Engineer will be issued in the form of an addenda. After contracts are signed, the Contractor must use one of the products listed in this specification, or covered in the addendum, and no further substitution will be considered. All requests for substitutions shall be supported by complete performance data, descriptions, etc. Where the term "approved equal" is used, it,is referring to approval of substitutions prior to bid date. Bids shall include factory start-up assistance. 1.04 RELATED DOCUMENTS: The general provisions of the Contract, including General and Supplementary Conditions and General Requirements, apply to the work specified in this Section. In addition, the following drawings shall be part of these specifications: DRAWING NUMBER TITLE CFD-7400-P-0020-A94 McGuire Site Sanitary Sewer System - Site Plan CFD-7400-P-0021-A94 Island Site Sanitary Sewer System - Site Plan CFD-7405-P-0120-B94 Building Sanitary Sewage ASSOCIATED DRAWINGS CFD-7400-P-0030-A94 CFD-7400-P-0031-A94 CFD-7400-P-0032-A94 CFD-7400-P-0033-A94 CFD-7400-P-0001-A94 CFD-7400-F-0011-A94 EPSM195 Waste System - System - Site Plan Waste System - Hydraulic System - Hydraulic Island Exterior Fire Protection COMMERCIAL SANITARY SEWER GENERAL 15410-2 McGuire Site Industrial Site Plan Island Industrial Waste McGuire Site Industrial Gradient Island Industrial Waste Gradient Flow Diagram CFD-7400-E-0010-A94 Electrical CFD-7400--0011-A94 Electrical D--7400-- -001 -A94 Electrical 16000 Project No. 94-0017A Electrical Specification 1.05; DISCREPANCIES AND INTERPRETATIONS Should a Bidder or Contractor find discrepancies in, or omissions from the drawings or specifications,or be in doubt as to their meaning, notification shall be made to the Engineer, who will issue an interpretation. 1.06 SCOPE: This Division covers the furnishing and installation of a complete Commercial Sanitary Sewer System for the McGuire Island Facilities.. Systems shall be as specified herein and as shown on the.reference drawings. All equipment, materials and services required for complete, satisfactory, finished, operable systems in the judgment of the Engineer, shall be provided by the Contractor. The work involves the demolition installation, inspection and testing of the following major components: The commercial sanitary sewer system. 1.07 SYSTEM DESCRIPTION: The Sanitary Sewer (SS) and the Industrial Waste (IW) will be separated as shown on the reference drawings. The Island Sanitary sewage will be pumped to the McGuire Site Sanitary Sewage Disposal System (WT). The pump station which pumped sewage from BLDG 74.9 to the island will be removed and a new pump .station installed near the building where the sewage will be pumped to the Site Sewer System. The Island Sewage Disposal System will be taken out of service and the area will be converted into a parking lot. The Industrial Waste .from the Island and Site Facilities will b pumped to the McGuire Water Treatment Roam Sump where it is pumped to the McGuire Conventional Waste (WC) "Water Treatment System. Reference; Project No. 4-0017A, Specification 15450. 1.08; CODES AND STANDARDS: The following codes and standards of the latest issue and all addenda thereto in effect at the date of invitation for kids shall form a part of this specification the same as if bound herein. COMMERCIAL SANITARY SEWER EPSM195 GENERAL 15410-:3 Ten States Standard, "Recommended Standard for Sewage Works," 1987 North Carolina State Plumbing Code National Fire Protection Association - NFPA North Carolina occupational Safety & Health Association - OSHA Any other authorities having jurisdiction` 1.09 SUBMITTALS: A Permits. The Contractor shall submit copies of all required permits to the Engineer prior to starting work. Copies shall remain with the Contractor at all times on the site until the scope of work is completed, B. Shop Drawings: The Contractor shall submit, in addition to requirements given in other sections, as a minimum, the following drawings and information to the Engineer for approval: • Catalog curs on all valves, manholes, equipment, gasket packs, etc. • Catalog cuts, dimensional drawings showing connections, pump curves and wiring diagrams on lift station. • Piping material.; Certificate of Compliance, • Material Safety Data Sheets (MSDS) on all products 7 days minimum prior to delivering can Construction Site. C. Certificates The Contractor shall supply thefollowing certificates, in writing, by March 1, 1995, to the Engineer. • Hydrotest Certificate of Compliance • Lift Station Draw Down Test.' • Certified letter with Professional Engineer's stamp certifying; the compliance/non--compliance in the installation of the Commercial sanitary Newer system with respect to the, reference design documents and this specification. All deviations shall be shown on all applicable documents. D. As -Built Drawings' The Contractor, upon completion of this installation, shall submit to the Engineer operation/manuals and marked -up prints indicating any changes necessitating revision to the drawings in order to make a complete record of the final installation for the owner's use in maintenance work, etc. Final 2anent approval will not be issued until drawings have been received by the Engineer. COMMERCIAL ITARY SEWER' EPSM195 GENERAL 15410- 1.10 STORAGE AND PROTECTION: The Contractor shall provide storage space to protect pipe and equipment and other parts of the plumbing system from damage by weather, abuse, etc. during receiving, storage, and construction. 1.11 WARRANTY: A. The Contractor shall guarantee all materials, equipment and workmanship, against any defects of any description for a;period of twelve (1 ) months from the date of Final completion and acceptance of the work:, except as noted in the General Conditions. B. All piping and equipment furnished and installed by the Contractor shall operate without objectionable noise or vibration, as determined by the Engineer and the Owner. 1.12 OWNER OWNEDMATERIAL: All existing piping, pumps, pump stations, blowers, liners,; etc. shall remain the property of the Owner and shall not be removed from the site without written approval from the Engineer or Designee. END OF PART 1 COMMERCIAL SANITARY SEWER EPSM195 GENERAL 1 410-5 PART ' 2 PRODUCTS 2.01 CONTRACTOR FURNISHED ITEMS. Contractor shall furnish all equipment, fixtures, piping, valves, hangars, fittings, and incidentals necessary for the complete installation of the Commercial Sanitary Sewer System. 2.02 ; GENE Any substitute materials, equipment, or manufacturers installed, that has not. been approved by the Engineer in writing, will be done at the Contractor's own risk and will be subject to removal from the system at any state of construction and shall be replaced with that specified, and any damage done to other trades shill be made good t the satisfaction of the Engineer. Unless otherwise specified, all materials and equipment specified i this section shall be new, of high quality and as listed in printed catalogs of prior approved manufacturers. Each article of its kind shall be the standard product of a single manufacturer. Whenever the �rords> "or equal.," � equivalent equipment," "acceptable,," or other words of similar intent or meanings are used, implying that judgment is to be exercised, it is understood that it is referring to the judgment of the Engineer only. All manufactured materials shall be"delivered and stored in their original containers. Reference to standards are intended to be the latest revision of the standard specified. Equipment installed under this section shall be installed according to manufacturer's recommendations, unless otherwise shown on the drawings or herein specified. Equipment and materials shall be protected against damage during construction, and shall be thoroughly cleaned and any necessary' adjustments shall be made before the final inspection. 2.03 PIPING SYSTEMMATERIAL: Piping materials are denoted on the drawings and specified below: A. Generic Material. Polyethylene-mPE, PPI ASTM, EMHW PE3408, High Tensity Maximum Design Conditions Temperature (OF) 7 Pressure (Prig) 16 COMMERCIAL SANITARY SEWER EPSM195_ PRODUCTS 1 410-6 Material: Pipe and fittings shall be manufactured of polyethylene material with a material classification of Type III, Class C, Category 5, Grade P34, as defined in ASTM D-1248 and shall be 1005 virgin material (no reprocessed, reworked or regrind) and shall meet the following physical property requirements:. Pro erty" ASTM Test Procedure Minimum Value Cell Classification -3350 345434C or 34 3 Density D-1505 0.95 m/cm 4 Melt Flow (PLEXCO) D-1238 0.1 gm/10 min. Melt Flow (PHILLIPS) D-1238 1.5 @ 21.6kg Flexural Modulus D-790 133000 psi 4 Tensile Strength D-638 3500 psi 3 ESCR D-1693 F0 >5000 Failure % Hrs. 4 HDB D--837 1600 psi C UV Stabilizer D-1603 2.5Carbon Black Elastic Modulus D-638 110,000 psi Brittleness Temperature D-746 1.80 OF Vicat Softening Temperature D-1525 255 OF Thermal Expansion -6 6 8 x 10-5 in/in/OF Hardness D-2240 64 Shore D Molecular Weight Category Extra High DB @ 7 .4°F D-2837 1600 psi FDB @ 140OF D-2837 800 psi Piping and fittings shall be produced by the same manufacturer from identical materials meeting the requirements of this specification. Pi e. Pipe, shall be manufactured in accordance with ASTM F-714 (except 4.3, Rework Material shall not be accepted) with -a rating of PE 3408 as described under material and shall have a SDR of 11 and shall meet the maximum design conditions pressure requirements as specified above: Fittings Fittings shall meet the requirements of ASTM D-3261 and ASTM F- 714 (except 4.3, Rework Material shall not be accepted) with a PPI rating of PE 3408 as described under material and shall have a SDR of 11.. The outside diameter and minimum wall thickness of butt fusion fitting outlets shall meet the outside diameter and minimum wall thickness for the same size mating pipe as specified in ASTM F-714. COMMERCIAL SANITARY SEWER EPSM195 PRODUCTS 15410 7 Fabricated fittings shall be fabricated by the pipe manufacturer in facilities designed for that purpose. Field fabricated fittings shall not be accepted. All fabricated fittings shall be warranted by the pipe manufacturer against any material and weld defects. All fabricated fittings shall not exceed a maximum allowable tolerance of plus or minus two (2) degrees. All fittings shall meet the maximum design conditions pressure requirements as specified above by 1.5. Joints: Joints e 1 1/2" NPS shall be ,socket fusion per ASTM per D-1693. Joints >,211 NPS shall be butt fusion per ASTM D-638 Identification and Markin s Pipe and fittings printline markings shall include applicable ASTM standard and manufacturer's production code which includes location and date of production and shall be supplied with four () permanent co -extruded greenline strips. Printline markings alone shall not be approved. Polyethylene pipe and fittings shall be supplied as manufactured by PHILLIPS 8600 or PLEXCO or prior approved equal. A certificate of compliance shall be supplied by the manufacturer describing their intent in 'complying with this specification and all standards Listed and a certificate of compliance that all materials have been supplied meeting all requirements of this specification and all standards listed and their referenced standards, B. Generic Material. Poly Vinyldene Chloride -PVC Maximum Design Conditions: Temperature (OF) 100 Pressure (psg) 10 (Gravity), 160 (Pressure) Pipe - PVC, DWV, Schedule 40, ASTM D-26-8 Fittings - PVC, DWV, ASTM D-2665-85 (Low Pressure, Gravity) Fittings - PVC, Schedule 80, ASTM D-w246" -8 (High Pressure, Pumped) Joints - PVC ,Solvent Cement, Heavy Duty, ASTM D-264-4. - All joints shall be primed (purple primer), ASTM F-656, prior to applying solvent cement. ;All joints shall be made in accordance with ASTM D-2855-83 and manufacturer's recommendations. COMMERCIAL ITAR SEWER P M195 PRODUCTS 15410--8 C. Generic Material: Ductile Irvin - DI Maximum Design Conditions Temperature (OF) 75 Pressure (PSIG) 160 Pipe shall be centrifugally cast Ductile Iron either flanged or mechanical joint plain end manufacturedin accordance with ANSI 151. Pipe shall be cement lined and seal coated in accordance with ANSI A21. 1 and shall have NSF Seal of Approval Flanged cast pipe shall be minimum thickness Class 53. Mechanical joint plain end pipe shall be minimum thickness Class 51. Fittings, Fittings shall be Ductile Iron either flanged or mechanical joint plain end Cass 250 or Class 350 as specified by ANSI A21.10. Flanges: Threadedflanges shall be in accordance with ANSI A1.15 Mechanical Joints: Dimensions, bolting, and gaskets shall be in accordance with ANSI A21.11: D. Gaskets, Bolts, Nuts (Gasket Packs) Gaskets packs shall be APPC "GASKET PAGE' or approved equal a follows: 1. Gaskets' - Red Rubber, 1/8 inch thick, full face, Shore Hardness A, as specified under ASTM B16.21 2. Bolts - 316 Stainless Steel, Dimensional Standard B 1.2.1 and/or 316 Stainless Steel Studs . Nuts - 316 Stainless Steel Dimensional Standard ANSI B 18. . (for bolts) or 316 Stainless Steel Heavy Hey for Studs . Washers"- USS Flat, 316 Stainless Steel. COMMERCIAL SANITARY SEWER E PSM19 5 PRODUCTS 15 41 } - 9 2.04 UNDERGROUND WARNING 'TAPES: Warning tapes shall be Setbn Metallic Detection Tape or equal, Style No. 37228-8H, 6" wide, green with black letters; noting "SEWER. LINE BURIED BELOW." 2.05 SEWAGE LIFT STATION: A. The Sewage Lift Station -1 shall be supplied for minimum flaw of 89 gpm at 20 ft. TDH as follows. 1., Scope Furnish and install 2 submersible wastewater grinder pumps, Weil Model 2436, Curve 700. Acceptable substitutes are listed later. Each pump shall be equipped with a 1.5 HP, 1750 RPM, submersible electric motor connected for operation on a 208 volts, 3 phase, 60 hertz 4 wire service, with 40 ft. of type SPC cable suitable for submersible pump applications. The power cable shall be sued according to NEC and ICEA standards, and have P-MSHA approval. The pump shall be supplied with a mating cast iron 2 inch discharge elbow and be capable of delivering 89 gpm at 20 feet, shut-off head 44 feet (minimum). Each unit shall be fitted with 20 feet (20 ft. minimum) of lifting chain of adequate strength to permit raising and lowering the pump. See Attachment. . Pump Design The pumps shall be capable of handling raw unscreened wastewater. The discharge connection elbow shall be permanently installed in the wet well along with the discharge piping. The pumps shall be automatically connected to the discharge connection elbow when lowered into place, and shall be easily removed for inspection or service. There shall be no need for personnel to enter pump well. Sealing of the pumping unit to the discharge connection elbow shall be accomplished by a simple linear downward motion of the pump. A sliding guide bracket' shall be an integral part of the pump unit." The entire weight of the pumping unit shall be guided by no less than two stainless steel guide bars and pressed tightly against the discharge connection elbow with metal -to -metal contact. Sealing of the discharge interface by means of diaphragm, O-Ring, or other devices will not be acceptable. No portion of the pump shall bear directly on the floor of the sump. The pump, with its appurtenances and cable, shall be capable of continuous submergence underwater without loss of watertight integrity to a depth of 65 f. COMMERCIAL SANITARY SEWER EPSM195 PRODUCTS 1410--1 3. Pump Construction Major pump components shall be of gray cast iron, Class 30B, with smooth surfaces devoid of blow holes and other irregularities. Where watertight sealing is required, 0- rings made of nitrile rubber 70' IRH shall b be used. All exposed nuts and bolts shall be of AISI type 304 stainless steel or brass construction. All surfaces, other than stainless steel or brass, coming into contact with wastewater shall be protected by an approved wastewater resistant coating. Pump exterior shall sprayed with PVC epoxy primer, with chloric rubber paint finish. All mating surfaces where watertight sealing is required shall be machined and fitted with nitrile rubber 0-rings. Fitting shall be such that sealing is accomplished by metal -to -metal contact between machined surfaces. This will result in controlled compression of nitrile rubber 0- rings without the requirement of a specific torque limit. No secondary sealing compounds, rectangular gaskets, elliptical 0-rings, grease or other devices shall be used. The cable entry water seal design shall preclude specific torque requirements to insure a watertight and submersible seal. The cable entry shall be comprised of a single cylindrical elastomer grommet, flanked by stainless steel washers, all having a close tolerance fit against the cable outside diameter and the entry inside diameter and compressed by the entry body containing a strain relief function, separate from the function of sealing the cable. The assembly shall bear against a shoulder in the pump top. The cable entry junction chamber and motor shall be separated by a stator lead sealing gland or terminal board, which shall isolate the motor interior from foreign material gaining access through the pump top. E222S�ies, silicones, or other secondary sealin systems shall not be considered acceptable. The pump motor shall be a squirrel -cage, induction, shell type design, housed in an air -filled, watertight chamber. The stator winding shall be insulated with moisture resistant Class F insulation which will resist a temperature of 155°C (311'F) . The stator shall be dipped and baked three times in Class F varnish and shall be heat -shrink fitted into the stator housing. The use of bolts, pins or other fastening devices requiring penetration of the stator housing shall be rejected. The motor shall be designed for continuous duty, capable of sustaining a minimum of ten (10) starts per hour. The rotor bars and short circuit rings shall be of aluminum. A minimum of two thermal sensors shall be imbedded in the stator winding end coils. These sensors shall be wired to the control panel for use in conjunction with the external motor overload protection. COMMERCIAL SANITARY SEWER EPSM195 PRODUCTS 15410-11 The pump motor cable,; installed, shall be suitable for submersible pump application with 12-MSHA approval and this shall be indicated by a cede or legend permanently embossed on the cable. Cable -sizing shall conform to NEC and ICEA specifications for pump motors. A ground check conductor shall be provided. At the maximum rated power of this unit, thermal radiators (cooling fins), integral to the stator housing, shall be adequate to provide the cooling required by the motor. Water jacket or other device shall not be necessary for continuous pumping at sump liquid levels down to the mid- point of stator housing. The junction chamber, containing the terminal board, shall be sealed from the motor by an elastomer compression :seal (grommet). The pump shaft shall be of AISI type 300 stainless steel. This is a nickel bearing chromium steel designed :for heat treatment to high mechanical properties providing superior corrosion resistant characteristics. Each pump shall be provided with a tandem mechanical shaft seal system. The upper of the tandem set of seals shall operate in an oil chamber located just below the stator housing. This set shall contain one stationary tungsten carbide ring and, one positively driven rotating carbon ring and shall function as an independent secondary barrier between the pumped liquid and the stator housing. The lower of the tandem set of seals functions as the primary barrier between the pumped liquid and the stator housing. This set shall consist of stationary ring and a positively diven.rotating ring both of which shall be tungsten carbide. Each seal interface shall be held in contact by .its own sprang system. The seals shall require neither maintenance nor adjustment, but shall be easily replaceable The followin2 seal tyees shall not be considered acceptable nor equal to the dual independent seal specified. shaft seals without positively driven rotating members, or conventional double mechanical seals containing either a common single or double spring acting between the upper and lower units. The latter conventional system requires a pressure differential to offset external pressure and to effect sealing. Each pump,shall be provided with an oil chamber for the shaft sealing system. Seal lubrication shall require an oil chamber capacity no greater than 2.4 quarts (2.3 liters). The drain and inspection plug, with positive anti --leak seal, shall be easily accessible from the outside. The oil chamber shall include an air pressure reserve for 'oil pressure compensation. COMMERCIAL ITARY SEWER EPSM195 PRODUCTS 1 410-12 The pump shaft shall rotate on two (2) permanently lubricated bearings» the upper bearing: shall be a single row ball bearing and the lower bearing a two row angular contact ball bearing. The impeller shall be of dray cast iron, class 30B, dynamically balaced double shrouded non -clogging design' having a long thrulet without acute turns. The impeller shall be capable of handling solids, fibrous materials, heavy sludge and other matter found in normal wastewater applications. The impeller'sh ll be of a single vane design. The pump manufacturer shall, upon request, furnish mass moment of inertia data for the proposed impeller. The impeller shall be capable ofpassing minimum 3 inch solid _sphere. The fit between the impeller and the shaft shall be sliding fit with one key. The volute shall be of a single piece, non -concentric design and shall have smooth fluid passages large enough at all points to pass any size solds which can pasS through the impeller. 4. Access Frame and Cover Furnish and install a 3611 x 4811 access 'frame, in aluminum material., rated 150 lb/sq ft., complete with hinged and flush loci w senoscr mounted sliding r Lower gui discharge standard on drawir .of the we be securely placed, all be provided with -essories required. tegral with the pump Shall be of at least e of the size indicated not support any portion shall be of skid proof design. <. Controls 'urn%sh and ,install one (1) automatic pump control canter in NE 3R (Fiberglass or Stainless Steel) enclosure (suitable for mounting on galvanized angles) for 20' volts, 3 phase, 60 hertz, 4 wire power supply. For each pump motor, there shall be included. A combination circuit breaker/overload unit. providing overload protection, short-circuit protection, reset and disconnect for all phases; across -the -line magnetic contractor; hand/off/automatic pump operations selector switch; 120 volt control panel pilot circuitry. A 24 volt control circuit transformer with disconnect circuit breaker and overload protection, for external pilot circuitry, shall be included with an automatic electric alternator for two pump stations (providing alternating COMMERCIAL SANITARY SEWER EPSM195 PRODUCTS 5410-1 operation of pumps under normal conditions, or in cases of high level, allowing both pumps to operate simultaneously). The following additional options shall be supplied with the panel. + Local High Level Alarm (Water proof alarm bell .and light) * Remote High Level Alarm (24 Volt dry contact for telephone dialer) Condensation heater * Running time meters + Pump run lights * Lightning arrester + Mounting bracket + Power Monitor 6. Liquid Level Sensors Furnish and install 4 double pale mercury float switches with floor mounted support pole and wall mounting brackets with 20:feet of electrical cable each. i. The concrete sump shall be provided with a 311 stainless steel sleeve for mounting a 1500 1. jib crane on the top; for pump removal. B. Operation of Lift Station Pump level control switches and alarms shall be set to operate at the dimensions shown on design drawings. The Contractor shill be e responsible for mounting control panel. Location is to be coordinated with the Electrical Contractor. Interconnecting wiring between control panel and lift station shall also be furnished and installed. Local power disconnects shall be provided at the lift station;. Power supply to the control panel and receptacle shall be furnished and installed by the Electrical Contractor. The power receptacle (115V, 1 ) and generator receptacle (208V, 3 ) and interlock shall be installed in waterproof boxes on a ground -fault breaker. C. Acceptable alternate manufacturers - Pl ght, Smith -Lovelace, and ABS. COMMERCIAL SANITARY SEWER EPSM195 PRODUCTS 410-14 2.06 ALARM CABLE: Alarm cable shall be 12 Pair, Level 5 Communication Cable. 2'.07 VALVES: Gate Valves - AWWA C500/C509 Gate valves shall be 200 lb. rating, cast iron body (A TM A-126 CIB), flanged ends, non -rising stem with handwheel. Grinnell Figure 561X or approved equal. Check Valves Check valves installed in Ductile Iron for-ce mains shall be Flyght HLPL heavy duty cast iron ball check, flange ends, Model HDL, Type 5087 or approved equal. COMMERCIAL SANITARY SEWER EPSM195 PRODUCTS 15410-15 PART 3 EXECUTION The work specified herein shall be done in accordance with the plumbing drawings. The drawings are diagrammatic, but shall be followed as closely as actual construction and the work of other trades will permit. The location of piping, equipment and fixtures are shown approximately in their desired locations; however, the Contractor shall verify all locations and measurements before installation to insure the best workmanlike installation possible. In executing minor changes to the work, not covered on drawings or by this specification, the Contractor shall be guided by common and accepted practices. Should job conditions arise wherein the Contractor feels that certain changes will be advisable, the Contractor will -communicate with the Engineer and secure approval, before proceeding to execute the work, except in emergency endangering life or property. Although the reference drawings are to scale where indicated, dimensions shall be determined by actual field measurements, from manufacturer's certified prints, and from coordination with other trades whenever possible. 3.02 CLEARING OF SITE: The Contractor shall keep the premises free from accumulation of rubbish and all unsightly material caused by this work and shall remove all such accumulated waste from the building. 3.03 DEMOLITION: The Contractor shall be responsible for removing the existing lift station for BLDG. No. 7419 after completing the installation of the new lift station and permit to operate has been obtained. The Contractor shall be responsible for disinfecting the existing lift station prior to removal. After removal has been completed, the Contractor shall backfill to 10006 compaction and prevent erosion during and after completion. The Contractor shall be responsible for pumping out and disposing of the sewage in the existing sewage treatment lagoon and sand filter. All piping, cover, liner, etc. shall be disinfected prior to disposal. After all the equipment associated with the lagoon and sand filter have been removed, both shall be backfilled to the surrounding grade. The sand filter area shall be seeded and the lagoon area shall be topped with ,a minimum of six (6) inches of crusher run and rolled compacted. COMMERCIAL SANITARY SEWER EPSM195 EXECUTION 15410-16 3.04 EXCAVATION: The Contractor shall contact the McGuire Facilities Management Group for locating existing underground utilities. The Contractor shall do all excavation required in the plumbing work. Excavated material not required for fill or backfill shall be removed by the Contractor to a site as directed by the Engineer. Excavation shall not be carried below required level. Excess excavation below required level shall be backfilled at the Contractor's expense, using earth, sand, gravel or concrete as directed by the Engineer, and thoroughly tamped. Ground adjacent to all excavation work shall be graded to prevent water running in. Banks of trenches shall be OSHA approved. Width of the trench shall be 6 inches minimum and 8 inches maximum on each side of the pipe. Where plastic pipe is used, the bottom of the trench shall be covered with 4 inches of rock free soil or sand. In rock, excavation shall be carried 8 inches below botto ' m of pipe. Loose earth or sand shall be used for backfill and tamped thoroughly. After pipes have been tested and approved, backfilling shall be done Frith approved material free from larger clods or stones. Backfill material shall be placed evenly and carefully around and over pipe in 6 inch maximum layers. Each layer shall be thoroughly and carefully tamped until 1 foot of cover exists over pipe. The remainder of the backfill material shall be placed, moistened, and compacted (rolling may be used in areas that are not subjected to traffic). Metallic tape shall be installed 121" below grade. The Contractor shall refill for settlement all backfill areas. Earth backfill under roads, parking lots or equipment pads shall be compacted to 95 percent maximum compaction at optimum moisture content (±3%). Compaction shall be accomplished by compacting with a motorized hand -tamper as each 611 thick layer is added. This work shall meet with the Engineer's approval. 3.05 UNDERGROUND PIPE: Underground pipe shall'be at a depth to avoid damage from freezing or live loads, three (3) feet minimum. Piping shall be at sufficient depth under roads, parking lots, etc., so as not to be damaged, or shall be protected by some other means, subject to Engineer's approval 3.06 GRADING: Grading of all pipes shall be in prescribed by the Code, avoiding horizontal runs of piping. Accordance with the uhengineered traps COMMERCIAL SANITARY SEWER EPSM195 EXECUTION standards and low spots in 15410-17 3.07 CONCEALING: Concealment of piping shall not be done until after proper tests and inspections have been made unless approved prior to concealment in writing by the Engineer. 3.08 PAINTING: Painting: All exposed bare piping, hanger rods steel framing supports or other metal, other than galvanized or non-ferrous metal shall be painted with 1 coat of primer and 2 coats of color kelly green high quality industrial enamel. All equipment furnished and installed by Contractor shall be painted. 3.09 PIPING SYSTEMS: The Contractor shall furnish and install the complete commercial sanitary sewer system, all as shown on the plumbing plans and schematic diagrams and herein specified. The Contractor shall be responsible for installing metallic tape 121, below grade on all piping installed. Minimum fall of all horizontal piping, location of manholes, reducing fittings, etc., shall comply with the codes stated in Part 1, Article 1.08. Fittings, other than those shown, shall not be installed in the force main piping without written authorization by the Engineer. The Sewer Piping System shall be installed where there is a minimum of 1001 - 011 separation from wells or other water supplies, 1211 vertical separation from storm sewers, 1811 clearance from the bottom of any potable water pipe to the top of the sewer pipe and/or shall have a minimum of 101-011 horizontal separation between the sewer pipe and any potable water pipe. The Sanitary Sewer, Industrial Waste and Fire Protection Systems will share the same trench as shown on the, referenced drawings. 3.10 FLUSHING, CLEANING AND TESTING: A. Flushing and Cleaning: All piping shall be thoroughly flushed under pressure and cleaned of foreign matter, scale, pipe dope, gravel, etc., before systems are put into operation. After cleaning the systems, all connections shall be made and the entire piping and apparatus operating pressure. EPSM195 COMMERCIAL SANITARY SEWER EXECUTION 15410-18 B. Testing: General: All parts of the systems shall be tested before covering or concealment of piping and adjusted for proper operation. Fixtures shall be tested for soundness and proper support. Any other tests required by Code shall be performed b and at the expense of the Contractor. Any defects disclosed by the test shall be repaired promptly by the Contractor without cost to the Owner. All atmospheric piping shall be tested by filling system with water and observing for leaks. These tests shall be conducted:' as the work progresses, in order to maintain a minimum head of 10 feet. Allowable leakage rate = 0. Forced main piping shall be hydrostatically tested at 160 psi for a minimum of 2 hours. Allowable leakage rate = 0. A draw clown test for each pump (non -simultaneous :and simultaneous), including high level alarms and calling to the offsite security company shall be performed and the results shall be certified by the Construction Engineer. All tests shall be observed and approved by the Engineer, State, and Local Inspectors as required by governing codes and standards. 3.11 PERMITS AND INSPECTIONS, LAWS AND ORDINANCES: Unless otherwise directed, the Contractor shall obtain all permits required, give all legal notices, and have all work inspected. Fees for permits and inspection shall be paid by the Contractor, unless otherwise directed... The Contractor shall not begin work until on site permits are obtained and all safety issues are addressed. All State Laws, Codes, and regulations or NFPA governing or related to' any portion of this work are incorporated into and made a part of these specifications. Anything contained in these specifications or shown on the drawings shall not be construed to conflict with any of the above rules or regulations or the requirements' of same. 3.12 COOPERATION: The Contractor shall cooperate and coordinate, with other Contractors, Subcontractors and the Owner and shall install this work so as not to delay the construction completion date for the Duke Power Company Catawba Nuclear Station Warehouse No. 4 Office Renovation nor cause interference with Bather mechanical piping, electrical, etc. The Contractor shall notify site Facility Management of any chemical ,spills and any equipment maintenance required by their employees or contract. COMMERCIAL ITARY SEWER EPSM195 EXECUTION 15410-1 The Contractor shall verify the proposed locations of piping and underground services of ether trades to the effect that there is no interference or conflict in the; installation of this work, and shall coordinate this work with work by other trades. END OF PART 3 COMMERCIAL SANITARY SEWER EPSM195 EXECUTION 15410--20 PART 4 - CALCULATION The following calculations are for the McGuire Nuclear Station Sanitary Sewer System using the "Recommended Standards for Sewage Works," 1987 Edition and the North Carolina State Plumbing Code, 1989 Edition. Pump capacities shall be selected to equal or exceed influent flows to the lift stations. The force mains shall be selected to convey the waste at a minimum flow of 2.5 gps and a maximum flow of 10 fps. A. Calculate minimum and maximum flows through 2", 3", and 4" polyethelene pipe 9:29-Pipe: Minimum allowable velocity = 2.5 fps Minimum allowable flow =Q=AV Where: Q gpm A nC�/4 V 2.5 fps D = Select 2" diameter = 1.92" I.D. Q = AV = itE�14 x Z.5 fps 22.5 gpm Q = 23 gpm Maximum allowable velocity = 10 fps Maximum allowable flow = Q = AV Where: Q = gpm x Q = nD?*/4 10 fps Q = 90 311 PE P!Re: Minimum allowable velocity = 2.5 fps Minimum allowable flow = Q = AV Where: Q = gpm A =nD 2/4 V = 2.5 fps D =Select 3" diameter= 2.86" 1. D. Q = AV = 7rD'/4 x 2.5 fps = _SQ gpm Q = 50 gpm Maximum allowable velocity = 10 fps ESPM 195 COMMERCIAL SANITARY SEWER CALCULATIONS 15410- Maximum allowable flaw = Q= A Where: Q = gpm Q = nD2/4 x 10 fps Q = 200 ±rpm PE Pipe.. Minimum allowable velocity = 2.5 fps Minimum allowable flow = Q = AV Where: Q = Oprn A = nD2/4 V = 2.5 fps D = Select " diameter = 3.86" I.D. Q = AV = 76 /4 x 2.5 fps = 83' gpm Q = 91 gpm Maximum allowable velocity = 10 fps Maximum allowable flow = Q = AV Where: Q = gpm Q = nD2/4 x 10 fps Q = 365 gpm B. lift Station SS - 1 1. Determine Pump Capacities Design flows will be .based on an 8 hour working clay with a flow of 2 gallons per clay per capita. The total flaw per day is calculated to be 3,950 gallons per day (gpd) or 494 gallons per hour (gph). Building 7419 - 90 x 25 = 2,250 gpd Building 7420 - 68 x 25 = 1,700 gpd 3,950 gpd total or 3,950/8 = 494 gph The peak design flow shall be approximately 4.1 times the hourly flaw of 94 gph which would result in a peak flow of :38 gph. Each pump shall be selected to meet or exceed the minimum flow of 91 gpm or 2.5 fps through a 4" PE force main, 2. Deterrnine the total dynamic head (TRH). a. Calculate Static Head. E PM 195 COMMERCIAL SANITARY SEWER CALCULATIONS 15 1 - The maximum vertical distance for the minimum water level in the proposed lift station basin to the highest paint in the discharge piping is 9 feet. . Calculate Friction Head. Flow through the force main piping will be considered to be turbulent. Therefore, the Hazen and Williams empirical formula for determining friction drop shell be utilized. Force main pipe was sized to ensure sufficient fluid velocity of at least 2.5 feet per second. Developed length of pipe from pump discharge to point of final discharge is 1 490 feet. Equivalent length for fittings and valves, add 10% equal 10 feet: Total equivalent pipe length and actual pipe length is 149 feet. hf = 0.00 0803 L (1OOQ/150)1. (1/D) 4. 8615 Where: hf = head lass due to friction, ft. of liquid C = friction factor constant, most commonly used value) for copper, brass, lead, tin or glass pipe and tubing; is 10, for ductile and cast iron -1 00 Plastic -10 L - length of pipe including equivalent length of pipe through fittings, ft t - flow in gprn D - inside diameter of pipe, inches NOTE: This formula is based on water with a kinematic viscosity of 1.13 centistokes which is the case for water at 600F. The value of C in the equation shall be 150 as referenced in the PLEXCO plastic pipe technical paper application note No. 4. ESPM 195 COMMERCIAL SANITARY SEWER CALCULATIONS 1 410 - 8655 hf = 0.0020803 (1,639 .) (100 x 91 /150)" (1 /3.86)4. 3.4 x 1,988 x 0.001 hi = 9.5 ft. C. The, Total Dynamic Head is the total of the static and friction head, + 95� 18.5 feet + 1 % safety factor = 20. feet.Say 20 feet. 3. Determine the lift station basin size. a. The lift station shall be constructed of watertight precast manhole sections, 5 foot minimum diameter with a 5 font diameter removable top. The top shall have an opening large enough to accept a watertight, 36" x 48" (min.) access cover. A vent pipe shall be provided through the top of manhole as shown on design drawings. b. The depth of the lift station shall be determined by the pump operating characteristics and the distance between the grade elevation and the invert elevation of the gravity influent pipe. Based upon the selection of 89 gpm pump at 20' TRH, with an operating differential between low level and high level of 2-0" , the bottom of the basin shall be 4.04 (min.) below the invert elevation of the gravity influent pipe. The bottom elevation is 13.5' below the grade elevation of 9 ' + 0". The top of the basin will extend 12" (inches min.) above the grade. See design drawings. C. A detention time of approximately 10 minutes is recommended. From our lift station detail on the drawings, the 'pit is 5 feet in diameter. There is 2 foot vertical distance between pump cut-off paint and pump cut -on point. This volume equals 39.25 cubic feat, or 29:3.6 gallons. ESPM 195 COMMERCIAL SANITARY SEWER CALCULATIONS 15410 - t 34 gpm (maximum influent flow), the detention time from pump cut -cuff to pump cut -on is; 29.6 gal.: 4 gpm = 8.6 minutes. d. Total run time = 293.6 gallons gpm = 3.3 minutes e. In the event of a power outage, assuming the outage occurred when the water level in the lift station basin was at the alarm elevation, the following storage of sewage would be available: 1. Additional storage capacity of basin. Diameter - , 5' Nigh 6" below grade to high level alarm) -,, =- ` 6 ". Volume = 147.2 cu. feet = 1 101 gal. 2. Total time of storage assuming peak demand of` 4 gpm. 1,101 gal. divided by 34 gpm = 32.4 min. Since the flows will be intermittent, i.e., demands will occur during scheduled training, the restrooms will be closed if longer power outage were to occur. A portable generator will be used to supply power to the lift station and the restrooms will be opened for use. The pumps will be supplied with local audible and visual alarms and,a 24 volt remote alarm to a control dialer located in 7420 which will call an offsite security company which has 24 hour personnel coverage. The security company will notify McGuire Nuclear Station's Facility Management Department that there is a problem at Lift Station SS-1. E PM 195OMMERCIAL SANITARY SEWER CALCULATIONS 1 4'10 - WEIL 2436 r Submersible 2' Grinder Pump 2613 Removal System 9« DIA r 4 V W III i� i 6sE n �+NG � YE 261 151Ae YOKE f " DIS 4e41,Y }4 2436 Pump Dimension c W101.560MI MARCH 15, 199 SUBMERSIBLE 2" GRINDER RUMP 2436 2613 Removal system WEIL PROJECT NO. 4- C17A LIFT STATION SS-1 ATTACHMENT PSM 195 Sheet 1 of 3 15410 EIL 0 . M BLOCK MARKS ({ -4) INDICATE OPERATING GE PROJECT NO. 9 -001 A LIFT STATION -1 ATTACHMENT A EPSM 195 Sheet 2 of 3 15410 WEIL DUPLEX INSTALLATION 2613 613 Removal System ROUND BASIN COVER SWITCH PLATE VENT HINGED " l r ACCESS DOOR DISCHARGE -ti 1 _1 8 ep.4't "BP a N� ; # ! .» `• L s .. l BASIN COVER SQUARE HINGED ACCESS DOOR WIN COVER RU COVER DISCHARGE LIPPER PIPE GUIDE to JUNCTION MINIMUM PIT DIAMETER - INCHES ` RIPE t OR CONTROL PANEL BRACKET THRU COVER DISCHARGE G POLE — 'CHECK SOON VALVE DB5 E y r 44 . 4 " Hr WATER #u._.ALARM (ONLY YVHEN CAME SPECIFIED) e PUMP 'ON° s (STAND-SY) MINIMUM PIT DIAMETER - INCHES 'PUMP*Ow BELOW COVER DISCHARGE # ' (ALTERNATES PUMPS)... PU IPIS) T MIN, SUCTION SETTING FL DISCHARGE u 'MOROI moo 0- 0 ELBOW Spe* Size and LOcation DI Inlet; BELOW COVER DISCHARGE and D' ege 101.759.001 AUGUST:I, 1"42613 , DUPLEX INSTALLATION WEIL PROJECT NO. 94-0017A LIFT STATION S-1 ATTACHMENT EP M 195 Sheen 3 of 3 1 410 Project No.: 94-001 A DUKE POWER MCGUIRE NUCLEAR STATION PLUMBING COMMERCIAL INDUSTRIAL WASTE ISLAND AND SITE MODIFICATION ; SECTION 15450 Prepared By: Date: !! Checked B: ]date: Approved y: mate. REVISION LOG 1. 3. �« C -1 *« SEAL 4« 10 .* 6. ?. 8. 9. 10. EPSM197 f 3 TABLE OF CONTENTS Page No. PART 1 GENERAL 1.01 Definitions 15450-1 1.02 Qualifications 1 1.03 Bard Proposal Instructions 2 1.04 Related Documents 2 1.05 Discrepancies and Interpretations 1.06 Scope 3 1.07 System Description 3 1.08 Cedes and Standards 3 1.09 Submittals 4 1.10 Storage and Protection 5 1.11 Warranty 5 1.12 Owner Owned Material 5 PART 2 - PRODUCTS 2.01. Contractor Furnished items 15450-6 2.02 General 6 2.03 Piping System Material 2.04 Manholes 10, 2.05 Underground Warning Tapes 10 2.06 Alarm Cable 10 2.07- Industrial Waste Lift Stations 10 2.08 Oil Water Separator 1 2.09 Waste Oil Tank 16 2.10 Valves 16 FART 3 _ EXECUTION 3.01 Plumbing Drawings 15450-18 3:02 Clearing of Site 18' 3.03 Tank Removal 18 3.04, Excavation 19 .05- Underground Pipe 19 3.06' Grading' 19 3.07; Concealing 20 3.08 Painting 20 3.09 Piping Systems 20 3.10 Flushing, Cleaning and Testing 20 3.11 Permits and Inspections, Laws and Ordinances 21 3.12 Cooperation 21 FART 4 - CALCULATIONS Attachments I SECTION 15450 - CC ERC ART 1 INDUSTRIAL WASTE SYSTEM � GENE L 1.01 DEFINITIONS A. Owner Duke Power P. 0. Box 1006 Charlotte, NC 28201-100 B. Engineer For Questions Contact. Mr. L. G. Goodman:, III, PE R. L. Smith Duke Power Company - WC29G Dube Power Company - WC29G P. 0. Box 1007 P. 0. Box 1007 Charlotte, NC 28201-1007 Charlotte, NC 22011007 (704) 382-424 (70) 382-4266 C. Project Manager Mr. L. G. Goodman, III, PE Duke Power Company - WC29G P. 0. Box 1007 Charlotte, NC 28201°-1007 (70) 382-4246 D. Bidder A company or firm qualified to become the Contractor for the, Work described herein. E. Contractor A licensed Utility Contracting Company or Firm awarded the order to supply, construct, start-up and test the sewer system described herein. 1.02 QUALIFICATION A licensed Utility Contractor shall perform all work specified in this Section and shown on the reference drawings. The Contractor shall be experienced in the installation of PVC piping and heat butt weld fusion of polyethylene piping, startup, and Maintenance of gravity and fierce main sanitary sewer systems. The Contractor shall employ experienced craftpersons, mechanics, and electricians to perform high quality work as specified herein.. Bid proposals shall include a Contractors Qualification Statement (TA Document A30) complete with a listing of similar jobs completed within the last two years and references for each. COMMERCIAL INDUSTRIAL WASTE EPSM197 GENERAL 1450-1 ( 3 1.03 BID PROPOSAL INSTRUCTIONS. Bidders shall submit documents'as specified in 1.02 Bidders shall visit the installation site and acquaint themselves with conditions which affect the work specified herein prior to submitting proposals. Bidders shall base proposals on the equipment manufacturers contained in this specification and on the reference drawings. Where multiple manufacturers are listed, proposals shall indicate the brand being furnished. Manufacturers other than those listed will be considered provided request for product approval has been received in the Engineer's office in writing not late: than ten (10) days prior to bid opening date. All approvals by the Engineer will be issued in the farm of an addenda. After contracts are signed, the Contractor must use one of the products listed in this specification, or covered in the addendum, and no further substitution will be considered. All requests for substitutions shall be supported by complete performance data, descriptions, etc. Where the tern "approved equal" is used, it is referring to approval of substitutions prior to bid date. Bids shall include factory start-up assistance; 1.04 RELATED DOCUMENTS: The general, provisions of the Contract, .including General and Supplementary Conditions and General. Requirements, apply to the work specified in this Section. In addition, the ,following drawings shall be a part of these specifications. DRAWING NUMBER TITHE CFD-7400-P-0430-A 4 McGuire Site Industrial Waste System - Site Plan CFD-7400-P-0031-A 4 Island Industrial Waste System Site Plan ; CFD-7400-P-0032-A94 McGuire Site Industrial Waste System - Hydraulic Gradient CFD-7400-P-0033-A94 Island Industrial Waste System - Hydraulic Gradient ASSOCIATED DRAWINGS CFD-7404-P-0001-A94 Flow Diagram CFD-740 --P-0020-A94 McGuire Site Sanitary Sewer System - Site Plan CFD-7 00-P-00 1-A94 Island Site Sanitary Sewer System - Site Plan' CFD-7400-°F- 011-A94 Island Exterior Fire Protection CFD-74 5- -b120- 9 Building Sanitary Sewage COMMERCIAL INDUSTRIAL WASTE EPSM197 GENERAL 15450--2 CFD-7400-E-0010-A94 Electrical CFD-7400-E-0011-A94 Electrical CFD-7400-E-0012-A94 Electrical 16000 Project No. 94-0017A Electrical specification 1.05 DISCREPANCIES AND INTERPRETATIONS: Should a Bidder or Contractor find discrepancies in, or omissions from the drawings or specifications, or be in doubt as to their meaning, notification shall be made to the Engineer, who will issue an interpretation. 1.06 SCOPE: This Division covers the furnishing and installation of a complete Commercial Industrial Waste System for the McGuire Island and McGuire Site Facilities. Systems shall be as specified herein and as shown on the reference drawings. All equipment, materials and services required for complete, satisfactory, finished, operable systems in the judgment of the Engineer shall be provided by the Contractor. The work involves the separation, installation, inspection and, testing of the following major components: 0 The commercial industrial waste system. 1.07 SYSTEM DESCRIPTION: The Industrial Waste System (IW) and Sanitary Sewer System (SS) will be separated as shown on the reference drawings. The Industrial waste from Buildings 7403, 7405, 7406, 7409, 7410, 7412, NDE, 7422, 7432, 7455, and 7496 (future) will be pumped through various pump stations to McGuire Nuclear Station's Conventional Waste Water Treatment System (WC). Reference Corporate Facilities Station's Tcl --A C!-1-- --A T—A-4— —1 "'1 1 — ---- re.— —-- —-- --- — No. 94-0017A, Specification 15410. 1.08 CODES AND STANDARDS: The following codes and standards of the latest issue and all addenda thereto in effect at the date of invitation for bids shall form a part of this specification the same as if bound herein. Ten States Standard, "Recommended Standard for Sewage Works," 1987 North Carolina State Plumbing Code National Fire Protection Association - NFPA North Carolina Occupational Safety & Health Association - OSHA` American Petroleum Institute - API Another authorities having jurisdiction COMMERCIAL INDUSTRIAL WASTE EPSM197 GENERAL 15450-3 4 1 1.09 SUBMITTALS: A. Permits. The Contractor shall submit copies of all required permits to the Engineer prior to starting work. Copies shall remain with the Contractor at all times on the site until the scope of work is completed. B. Shop Drawings: The Contractor shall submit, in addition to requirements given in tither sections, as a minimum, the following drawings and information to the Engineer for approval: • Catalog cuts on all varies, manholes, equipment, gasket packs, etc. • Catalog cuts, dimensional drawings showing connections, pump curves and wiring diagrams on lift stations and oil/water separators. • Wiping material Certificate of Compliance,. • Material Safety Data Sheets (MSDS) on all. products 7 days minimum prior to delivering on Construction Site. C. Certificates The Contractor shall supply the following certificates, in writing,by March 1, 1995, to the Engineer. • Hydrotest Certificate of Compliance • Lift Station Draw Town Test. • Certified letter with Professional Engineer's 'stamp certifying the compliance/non-compliance in the installation of the Commercial Industrial Waste System with respect to the reference design documents and this specification. All deviations shall be shown on all applicable documents. D.As-Built Drawings The Contractor, upon completion of this installation,' shall submit to the Engineer operation/manuals and marked -up prints indicating any changes necessitating recision to the drawings in order to make a complete record of the final installation for the Owner's use in maintenance work, etc. Final paMent a aroval will not be issued until drawings have been received by the Engineer. COMMERCIAL INDUSTRIAL WASTE EPSM197 GENERAL 1 4 0-4 1.10 STORAGE AND PROTECTION The Contractor shall provide storage space to protect pipe and equipment and other parts of the plumbing system from damage by weather, abuse, etc. during receiving, storage, and construction. 1.11 WARRANTY: A. The Contractor shall guarantee all materials, equipment and workmanship, against any defects of any description for a period of twelve (1 ) months from the date of final completion and acceptance of the work, except as noted in the General Conditions. B. All piping and equipment furnished and installed by the Contractor shall operate without objectionable noise or vibration, as determined by the Engineer and the Owner. 1.12- OWNER OWNED MATERIAL: All existing piping, pumps, pump stations, blowers, liners, etc. shall remain the property of the Owner and shall not be removed from the site without written approval from the Engineer or Designee. END GCE PART 1 COMMERCIAL INDUSTRIAL WASTE EPSM197 GENERAL 1 4 0- PART 2 PRODUCTS 2.01 CONTRACTOR FURNISHED ITEMS: Contractor shall furnish all equipment, fixtures, piping, valves, hangers, fittings, and incidentals necessary for the complete installation of the Commercial Industrial Waste System. 2.02 GENERAL: Any substitute materials, equipment, or manufacturers installed, that has not been approved by the Engineer in writing, will: be done at the Contractor's sawn risk and will be subject to removal from the system at any state of construction and, shall be replaced with that specified, and any damage done to other trades shall be made goad to the satisfaction of the Engineer. Unless otherwise specified, all materials and equipment specified in this section shall be new, of high quality and as ;listed in printed catalogs of prior approved manufacturers.... Each article of its kind shall be the standard product of a single manufacturer. w Whenever the words: "or equal,"' equivalent equipment," "acceptable," or other words of similar intent or meanings are used, implying that judgment is to be exercised, it is understood that it is referring to the judgment of the Engineer only. All manufactured materials shall be delivered and stored in their original Containers. Reference to standards are intended to be the latest revision of the standard specified. Equipment installed under this section shall be installed according to manufacturer's recommendations, unless otherwise shown can the drawings or hereinspecified. Equipment and materials shall be protected against damage during construction, and shall be thoroughly cleaned and any necessary adjustments shall be made before the final inspection .03 PIPING SYSTEMMATERIAL: Piping materials are denoted on the drawings and specified below. A. Generic Material Polyethylene -PE, PPI/'ASTM, EMHW PE3403, High Density Maximum resign Conditions: Temperature (OF) 7 Pressure (Prig) 160 COMMERCIAL INDUSTRIAL WASTE EPSM197 PRODUCT 15450-6 Material. Pipe and fittings shall be manufactured of polyethylene material with a material classification of Type III, Class C, Category 5, Grade P34, as defined in ATM D-1248 and shall be 10 virgin material (no reprocessed, reworked or regrind) and shall meet the following physical property requirements. PropertyASTM Test: Procedure Minimum Value Cell Classification -D-3350 345434C o 355434 3 Density -1505 0.955 elm/cm3 4 Melt Flow, (PLEXCO) D-12 8 0.1 gm/10 mini. 5 Melt Flow (PHI`LLIPS) D-18 1.5 @ 2.6kg Flexural Modulus D-790 133,000 psi 4 Tensile Strength D-638 3500 psi 3 ESCR D-16 3 Fp >5000 Failure Hrs. 4 HD -28 7 1600 psi C UV Stabilizer; D-1603 2.5 Carbon Mack: Elastic Modulus D-638 110,000 psi Brittleness Temperature D-74 <- 180 OF Vicat Softening Temperature D-1525 255, OF Thermal Expansion D-696 8 x 10-5 in/inf°F Hardness D-2240 64 Shore D Molecular Weight Category Extra High HDB @ 73.40D-2837 1600 psi HDB @ 140OF D 28 7 800 psi Piping and fittings shall be produced,by the same manufacturer from identical materials meeting the requirements of this specification. Pi e: Pipe shall be manufactured in accordance with ASTM F-714 (except 4.3, Rework Material shall: not be accepted) with a rating of PR 3408 as described under material and shall have a SDR of 11 and shall meet the maximum design conditions pressure requirements as specified above. Fittings. Fittings shall meet the requirements of ASTM D-3261 and ATM F- 714 (except 4.3, Rework Material shall not be accepted) with a PPI rating of PE 3408 as described:under material and shall have a SEAR of 11. The outside diameter and minimum wall thickness of butt fusion fitting outlets shall meet the outside diameter and minimum wall thickness for the same size mating pipe as specified in ATM F-714 COMMERCIAL INDUSTRIAL WASTE PSM197 PRODUCTS 5450-7 C. Generic Material Ductile Iron - DI Maximum Design Conditions Temperature (OF) 75 Pressure (PSIG) 160 P1 e" Pipe shall be centrifugally cast Ductile Iron either :flanged o mechanical joint plain end manufactured in accordance with ANSI A21. 51. Pipe shall be cement lined and seal coated in accordance with ANSI A21.51 and shall have NSF -Seal of Approval. Flanged cast pipe shall be minimum thickness Class 53. Mechanical joint, plain end pipe shall be minimum thickness Class 51, Fittings: Fittings shall. be Ductile Iron either flanged or mechanical joint plain end Class 250 or Glass 350 as specified by ANSI A21.10. Flanges Threaded flanges shall be in accordance with ANSI A21"15. Mechanical points: Dimensions, bolting, and gaskets shall be in accordance with ANSI A21.11.= Dil Gaskets, Bolts, Nuts (Gasket Packs) Gaskets packs shall be APPCO "GASKET PAC" or approved equal as follows: 1. Gaskets - Red Rubber, 1/8 inch thick, full face, Shore Hardness A, as specified under ASTM B1.1. 2 Bolts - 31.6 Stainless Steel, Dimensional Standard B 18.2.1 and/or 316 Stainless Steel Studs. 3" Nuts - 316 Stainless Steel Dimensional Standard ANSI B 18.2.2 (for bolts) or 316 Stainless Steel Heavy Hex for Studs. . Washers - USS Flat, 316 Stainless Steel. COMMERCIAL INDUSTRIAL, WASTE EPSM197 PRODUCTS 1545 -9 2 > 04 HOLES Precast concrete manholes shall conform to ATM C-473, latest revision. 41 -011 minimum diameter with steps. Base, riser, eccentric cone and inlet and outlet pipe connections shall form .a water tight structure. Manhole covers shall be 2" diameter, roadway type. Concrete base shall be precast. Manholes shall be installed as specified: on the drawings. 2.05 UNDERGROUND WARNING TAPES: Warning tapes shall be Seton Metallic Detection Tape or equal., Style o. 37223-H, 611 wide,,green with black letters noting "SEWER LINE BURIED BELOW.' 2.06 ALARMCABLE. Alarm cable shall be 12 Pair Level 5 Communication cable, Cable shall be installed from the remote alarm contacts at each lift station control panel to various buildings on site (Reference Design Drawings). The communication cable will terminate inside designated buildings within 20 feet from the exterior wall. The Contractor. shall ,interface this work with the McGuire Facility Management Designee The Owner shall be responsible for installing the communication cable from, the interface location to the proper communication equipment and make "final connection. 2.07 INDUSTRIAL WASTE LIFT STATIONS: The lift stations shall be supplied for minimum flow and TDH a specified on Attachments and as follows 1. Scope Furnish and install submersible wastewater pumps a specified below. Acceptable substitutes are listed later. Each pump shall be equipped with submersible electric motors connected for operation with 3 or 4 wire service as specified below, with 40 ft. of type SPC cable suitable for submersible pump applications. The power cable shall be sued according to NEC and ICEA standards, and have P- MSHA approval. The pumps shall be supplied: as specified with a mating cast iron discharge elbows. Each unit shall be ;fitted with 20 feet (2 1 ft. minimum) of lifting chain of adequate strength to permit raising and lowering the pump. Each duplex system shall be supplied with Weil Model. 2-613 Removal System or approved equal. See Attachments. COMMERCIAL INDUSTRIAL WASTE PSM197 PRODUCTS 5450-10 Pumps IW-1Weil Model 1418, Curve 575, Duplex, 0.5HP 1750 RPM, 120 volts, 10, 60 Hertz, " Discharge, 4' gpm @ 23' TDH each. IW-2 - Weil Model 1608, Curve 625, Duplex, 0.8 HP, 1150 RPM, 240 volt,'1, 60 Hertz, 3" Discharge, 63 gpm @ 161 TDH each.. IW-3 - Weil Model 1607, Curve 450, Duplex, 2.0 HP, 3500 RPM, 208 volt, 3$, 60 Hertz, 2" Discharge, 93 gpm @ 511 TDH each. I-4 - Weil Model 1608, Curve 550, Duplex, 0.6 HP, 1150 RPM, 120 volt, 10, 60 Hertz, 311 Discharge, 40 gpm @ 101 TDH each. IW- - Goulds LP 03, simplex, 0.33 HP, 120 volt, 10, 60 Hertz, 1 /21' Discharger 7.5 gpm @ 101 TDH. IW6 -- Weil Model 1603, Curve 700, Duplex, 1.1 HP, 110 RPM, 240 volt, 10, 60 Hertz,: 311 Discharge, 105 gpm @ 18' TDH each. 2. Pump Design The pumps shall be capable of handling industrial wastewater. The discharge connection elbow shall be permanently installed in the wet well along; with the discharge piping. The pumps shall be automatically connected to the discharge connection elbow when lowered into .place, ; and shall be easily removed for inspection or service'. There shall be no need for personnel to enter pump well. Sealing of the pumping unit to the discharge connection elbow shall be accomplished by a simple linear downward motion of the pump. A sliding guide bracket shall be an integral part of the pump unit. The entire weight of the pumping unit shall be guarded by no less than two stainless steel guide bars and pressed tightly against the discharge connection elbow with metal -tea -metal contact. Sealing of the discharge interface by means of a diaphragm, O-Ring, or other devices will not be acceptable No portion of the pump shall bear directly can the floor of the sump. The pump, with its appurtenances and cable, shall be capable of continuous submergence underwater without lass of watertight integrity to a depth of 65 ft. 3. Pump Construction Major pump components shall be of gray cast iron, Class 0, with smooth surfaces devoid of blew holes and other irregularities'. Where watertight sealing is required, 0- COMMERCIAL INDUSTRIAL WASTE EP M 97 PRODUCTS 15450-11 S i rinds made of nitrile rubber 700 IRH shall be used. All exposed nuts and bolts shall be of AISI type 304 stainless steel or brass construction. All 'surfaces, other than stainless steel or brass,; coming into contact with wastewater shall be protected by an approved wastewater resistant coating. Pump exterior shall sprayed with PVC epoxy primer, with choleric rubber paint finish. All mating surfaces where watertight sealing is required shall be machined and fitted with nitrile rubber 0-rings.; Fitting shall be such that sealing is accomplished b metal -to -metal contact between machined surfaces. This will result in controlled compression of nitrile rubber - rings without the requirement of a specific torque limit., o secondary sealing compounds, rectangular gaskets, elliptical0-rings, grease or other devices shall be used. The cable entry water seal design shall preclude specific torque requirements to insure a watertight and submersible seal. The cable entry shall be comprised of a single cylindrical elastomer grommet, flanked by stainless steel washers, all having a close tolerance fit against the cable outside diameter and the entry inside diameter and compressed by the entry body containing a strain relief function, separate from the function of sealing the cable. The assembly shall bear against a shoulder in the pump top. The cable entry junction chamber and motor shall be separated by a stator lead sealing gland or terminal board, which shall isolate the motor interior from foreign material gainingaccess through the pump top. E' oxies, silicones, or other secondary sealing systems shall not be considered acceptable. The pump motor shall be a squirrel -cage, induction, shell type design, housed in an"air-filled, watertight chamber. The stator winding shall be insulated with moisture resistant Class F insulation which will resist a temperature of 1550C (110F). The .stator shall be dipped and baked three times in Class F varnish and shall b heat -shrink fitted into the stator' housing. The use of bolts, pins or other fastening devices requiring penetration of the stator housing shall be rejected The motor shall be designed for continuous duty, capable of sustaining a minimum of ten (10) starts per hour. The rotor bars and short circuit rings shall be of aluminum. A minimum of two thermal sensors shall be imbedded in the stator winding end coils. These sensors shall be wired to the control panel for use in conjunction with the external motor overload protection. COMMERCIAL INDUSTRIAL WASTE EPSM197 PRODUCT 1.5 E1-1 k i The pump motor cable, installed, shall be suitable for submersible pump application with =P12 -MSH.A approval and this shall be indicated by a code or legend permanently embossed on the cable. Cable sizing shall conform to NEC and. ICEA specifications for pump motors. A ground check conductor shall be provided. At, the maximum rated power of this unit, thermal. radiators (cooling fins), integral to the stator housing, shall be adequate to provide the cooling required by the motor. Water jacket or other device shall not be necessary for continuous pumping at sump liquid levels down to the mid- point of stator housing. The junction chamber, containing the terminal beard, shall be 'sealed from the motor by an elastomer compressionseal (grommet). The pump shaft shall be of AISI type 300 stainless steel. This is a nickel bearing chromium steel designed for heat treatment to high mechanical properties providing superior corrosion resistant characteristics. Each pump shall be provided with a tandem mechanical shaft seal system. The upper of the tandem set of seals shall operate in an oil chamber Located just below the .stator housing. This set shall contain one stationary tungsten' carbide ring and one positively driven rotating carbon ring and shall function as an independent secondary ,barrier between the pumped liquid and the stator housing. The Lower of the tandem set of seals functions as the primary barrier between the pumped liquid and the stator housing. This set shall consist of stationary ring and a positively driven rotating ring both of which shall be tungsten carbide. Each seal interface shall be held in contact by its own spring system.. The seals shall require neither maintenance nor adjustment, but shall be easily replaceable The following seal types shall not be considered acre fable nor equal to'the `dual independent seal specified: shaft seals without positively driven rotating] members, or conventional double mechanical seals containing either a common single or double spring acting between the upper and lower units. The latter conventional system requires a pressure differential to offset external pressure and to effect sealing. Each pump shall be provided with an oil chamber for the shaft sealing system Seal lubrication shall require an oil chamber capacity no greater than 2.4 quarts;(2.3 liters). The drain and inspection plug, with positive anti -leak seal, shall: be easily accessible from the outside. The oil chamber shall include an air pressure reserve .for oil pressure compensation. COMMERCIAL INDUSTRIAL WASTE EPSM1 7 PRODUCTS 1.5450-1 . d The pump shaft shall rotate on two () permanently lubricated bearings. The upper bearing shell be a single row ball bearing and the lower bearing'a two row angular contact ball bearing. The impeller shall be of gray cast iron, class 30B, dynamically: balanced.., double shrouded non -clogging design having a lone thrulet without acute turns. The impeller" shall be capable of handling solids, fibrous materials, heavy sludge and other matter found in normal wastewater applications. The impeller shall be of a single vane design. The pump manufacturer shall, upon request, furnish mass moment of inertia data for the proposed impeller. The impeller shall be capable of passing minimum 3 inch solid sphere. The fit between the impeller and the shaft shall be sliding fit with one key. The volute shall be of a single piece, non -concentric: design and shall: have smooth fluid passages large enough at all points to pass any size solids which can pas through the impeller. 4. Access Frame and Cover Furnish and install an access frame, reference drawings for sizes, in aluminum material, rated 150 lb/sq. ft., complete with hinged and Flush locking mechanism, upper guide bar holder. and level sensors cable holder.. Frame shall be securely placed, mounted above the pumps- Frame shall be provided with sliding nut rails to attach the accessories required.. Lower guide bar holders shall be integral with the pump discharge connection. guide bars shall be of at least standard weight stainless steel pipe of the size indicated on drawings. The guide bars shall not support any portion of the weight of the pump. Doors shall be of skid proof design. . Controls - IW--1, IVY , IW-3, W-4, and I-6 Furnish and install. one (1) automatic pump control center' in'NE R (Fiberglass or Stainless Steel), enclosure (suitable for mounting on galvanized angles) for each pump specified with 3 and 4 wire power supplies. For each pump motor, there shall be included: A combination circuit breakeroverload-unit providing overload protection, short-circuit protection, reset and disconnect for all phases; across -the -line magnetic contractor; hand/off/automatic pump operations selector switch; 120 volt control panel pilot circuitry. .A 24 volt control circuit transformer with disconnect circuit breaker and overload protection, for eternal pilot circuitry, shall be included with an automatic electric COMMERCIAL INDUSTRIAL WASTE PSM197 PRODUCT 154 0-14 alternator for two pump stations (providing alternating operation of pumps under normal conditions, or in cases of high level., allowing both pumps to operate simultaneously) Controls for I-4 shall be supplied with a 120 volt high level alarm circuitry for the Air Relief Valve Pit and a mating 24 volt Tory Contact and two (2) 120 volt and mating 4 volt Lary Controls to receive and transmit high level alarms from;IW-5 and the coil/water separators The following additional options shall be supplied with the panel: Local High Level Alarm (Waterproof Alarm bell and light) • Remote High Level. Alarm (24 -"Volt Tory contact for telephone dialer « Condensation heater + Running time meters * Pump run lights + Lightning arrester • Mounting bracket Power Monitor . Liquid Level Sensors Furnish and install 4 double pole mercury float switches with floor mounted support poke and wall mounting brackets with 20 feet of electrical cable each. i. The concrete sump shall be provided with a 311 stainless steel sleeve for mounting a 1500 lb. jib crane on the top' for pump removal. B: Operation of Lift Station - Pump level control switches and alarms shall be set to operate at the dimensions shown on design drawings. The Contractor shall be responsible for mounting control panel. Location is to be coordinated with the Electrical Contractor. Interconnecting wiring between control panel and lift station shall also be furnished and installed. Local power disconnects shall be provided at the lift station. Power supply to the control panel and receptacle shall be furnished and installed by the Electrical Contractor. The power receptacle (115V, 10) and generator receptacle (voltage and phase as specified) and interlock shall be installed in waterproof boxes on a ground - fault breaker. C. Acceptable alternate manufacturers for Weil Pumps - Flyght, Smith -Lovelace, and ABS. COMMERCIAL INDUSTRIAL WASTE EPSM197 PRODUCTS 15450-15 .08 OIL -WATER SEPARATOR: A. A self --contained oil and water separator shall be provided where shown. The separator will, remove oil from the small engine repair wash effluent before discharging to the Industrial Waste System. B. The separator shall be epoxy coated steel and suitable for outdoor installation. Cs Separator shall be provided with 3 - 120V, 1 .5A, 1500 Watt heating elements,knife blade skimmer, waste oil high level alarm and shutoff, sump high level alarm, dissolved oxygen system with 120V pump, controls for pump IW-- , two (2) 120 volt active contacts to transmit high level alarms to dry contacts looted in pump IW-4 control panel. D. The separator shall be designed for a flow rate of 6-8 GPM. E. The separator shall remove free oils to ;meet all regulatory discharge codes. F. Separator shall be Environmental Pretreatment System model: EPS- 50 or prior approved equal. G. All above ground piping and pump shall be heat traced and covered with waterproof insulation, model 10223. H. Manufacturer shall be responsible for final plumbing, heat tracing, insulation, and startup I. Within 30 calendar days after start-up, the Manufacturer shall provide to the Engineer, a Certified Lab Test Result showing in ppm free' oil and greases J. Manufacturer shall include in their quote as a separate item to the Contractor, cost per month for 1 year, to perform preventive maintenance and sampling. 2.09 WASTE OIL TANK: Waste oil tank shall be 100 gallon, stainless steel, with (1) 211 threaded fill and vent connection and. (1) 4" threaded waste oil removal connection and shall be supplied with a spill containment manhole with 4" fill opening for waste oil removal. Tank shall be manufactured and installed with API standards, this specification, and the design. drawings. 2.10 VALVES: Cate Valves - AWWA C500/C509 Gate ; valves shall be 200 lb. rating, cast iron body (ASTM -126 ClB), flanged ends, non -rising stem with handwheel. Grinnell Figure 561X or approved equal, COMMERCIAL INDUSTRIAL WASTE EPSM197 PRODUCTS 15 50--16 Ball Valves P.P.S. or equal True Union,Fick. 0331322-020 ( ") and 0331322.030 (3") Type PVC, full part, with solvent weldor screwed ends. Check Valves Check valves installed in PVC force retains shall be Goulds heaver duty cast iron swing check, thread ends, Model A9-21 (211 NPT) and A9'- 1 '.(311 NPT) or approved equal Check valves installed in Ductile Iran farce mains shall be Flyght HDL heavy duty cast iron ball check, flange ends, Model. HDL, Type 5087`or approved equal,. Air Relief Valves APCO Model No. SAVV401 or approved equal. END OF PART 2 COMMERCIAL INDUSTRIAL WASTE EPSM197 PRODUCTS 1 450-17 PART 3 EXECUTION COMMERCIAL INDUSTRIAL WASTE EPSM197 EXECUTION 15450-18 1 3.04 EXCAVATION: The Contractor shall contact the McGuire Facilities Management Group for locating existing underground utilities. The Contractor shall do all excavation required in the plumbing work. Excavated material not required for fill or backfill shall be removed by the Contractor to a site as directed by the Engineer. Excavation shall not be carried below required level. Excess excavation below required level shall be backfilled at the Contractor's expense, using, earth, sand, gravel or concrete as directed by the Engineer, and thoroughly tamped. Ground adjacent to all excavation work shall be graded to prevent water running in. Banks of trenches shall be OSHA approved. Width of the trench shall be 6 inches minimum and 8 inches maximum on each side of the pipe. Where plastic pipe is used, the bottom of the trench shall be covered with 4 inches of rock free soil or sand. In rock, excavation shall be carried 8 inches below bottom of pipe. Loose earth or sand shall be used for backfill and tamped thoroughly. After pipes have been tested and approved, backfilling shall be done with approved material free from larger clods or stones. Backfill material shall be placed evenly and carefully around and over pipe in 6 inch maximum layers. Each layer shall be thoroughly and carefully tamped until 1 foot of cover exists over pipe. The remainder of the backfill material shall be placed, moistened, and compacted (rolling may be used in areas that are not subjected to traffic). Metallic tape shall be installed 1211 below grade. The Contractor shall refill for settlement all backfill areas. Earth backfill under roads, parking lots or equipment pads shall be compacted to 95 percent maximum compaction at optimum moisture content (±3%). Compaction shall be accomplished by compacting with a motorized hand -tamper as each 611 thick layer is added. This work shall meet with the Engineer's approval. 3.05 UNDERGROUND PIPE: Underground pipe shall be at a depth to avoid damage from freezing or live loads, three (3) feet minimum. Piping shall be at sufficient depth under roads, parking lots, etc., so as not to be damaged, or shall be protected by some other means, subject to Engineer's approval. 3.06 GRADING: Grading of all pipes shall be in accordance with the standards prescribed by the Code, avoiding unengineered traps and low spots in horizontal runs of piping. COMMERCIAL INDUSTRIAL WASTE EPSM197 EXECUTION 15450-19 3.07 CONCEALING: Concealment of piping shall not be done until after proper tests and inspections have been made unless approved prior to concealment in writing by the Engineer. 3.08 PAINTING: Painting: All exposed bare piping, hanger rods steel framing supports or other metal, other than galvanized or non-ferrous metal shall be painted with I coat of primer and 2 coats of color kelly green high quality industrial enamel. All equipment furnished and installed by Contractor shall be painted. 3.09 PIPING SYSTEMS: The Contractor shall furnish and install the complete commercial sanitary sewer system, all as shown on the plumbing plans and schematic diagrams and herein specified. The Contractor shall be responsible for installing metallic tape 121, below grade on all piping installed. Minimum fall of all horizontal piping, location of manholes, reducing fittings, etc., shall comply with the codes stated in Part 1, Article 1.08. Fittings, other than those shown, shall not be installed in the force main piping without written authorization by the Engineer. The Industrial Waste Piping System shall be installed where there is a minimum of 1001 - 011 separation from wells or other water supplies, 1211 vertical separation from storm sewers, 1811 clearance from the al Waste, re the same A. Flushing and Cleaning: All piping shall be thoroughly flushed under pressur cleaned of foreign matter, scale, pipe dope, gravel, before systems are put into operation. After cleaning the systems, all connections shall be the entire piping and apparatus shall be tested for operating pressure. EPSM1 97 COMMERCIAL INDUSTRIAL WASTE EXECUTION e and etc., made and leaks at 15450-20 B. Testing: General All parts of the systems shall be tested before covering or concealment of piping and adjusted for proper operation. Fixtures shall be tested for soundness and proper support. Any ether tests required by Code shall. be performed by and at the expense of the Contractor. Any defects disclosed b the test shall be repaired promptly by the Contractor without cost to the Owner. All atmospheric piping shall be tested by filling system with water and observing for leaks. These tests shall be conducted as the work progresses, in order to maintain a minimum head of 10 feet. Allowable leakage rage = B. Forced main piping shall be hydrostatically tested at 160 psi for a minimum of 2 hours. Allowable leakage rate A draw dawn test for each pump (non -simultaneous and simultaneous), including high level alarms and calling to the offsite security company shall be performed and the results shall be certified by the Construction Engineer. Waste oil tank and associated piping shall be air tested for two () hours with a minimum of a 5 psi air test. .All tests shall be observed and approved by the Engineer, State, and Local Inspectors as required by governing codes and standards. :3.11PERMITS AND INSPECTIONS, LAWS AND ORDINANCES: Unless otherwise directed, the Contractor shall obtain all permits required, 'give all legal notices, and have all work inspected. Fees for permits and inspection shall' be paid by the Contractor, unless otherwise directed. The Contractor shall'not begin work until on site permits are obtained and all safety issues are addressed. All State Laws, Codes, and regulations of NFPA governing or related to any portion of this work are incorporated into and made a part of these specifications. Anything contained in these specifications or shown on the drawings shall not be construed to conflict with any of the above rules or regulations or the requirements of same. 3.12 COOPERATION: The Contractor shall cooperate and coordinate with other Contractors, Subcontractors and the Owner and shall install; this work so as not to delay the construction completion date for the Duke Power Company McGuire Nuclear Station Office Shop Facility nor cause , interference with rather mechanical piping, electrical, etc. COMMERCIAL INDUSTRIAL WASTE EPSMIS 7 ' EXECUTION 1 4 0 -21 The Contractor shall notify site Facility Management of any chemical spills and equipment maintenance required by their employees or contract. The Contractor shall verify the proposed locations of piping and underground services or other trades to the effect that there is no interference or conflict in the installation of this work, and shall coordinate this work with work by other trades. END OF PART 3 COMMERCIAL INDUSTRIAL WASTE 1 PSMI97 EXECUTION 1.5450- 2 PART 4;- CALCULATION The following calculations are for the McGuire Nuclear Station Industrial Waste Sewer System using the "Recommended Standards for Sewage Works," 1987 Edition and the North Carolina State Plumbing Code, 1989 Edition. Pump capacities shall be selected to equal or exceed influent flows to the lift stations. The force mains shall be selected to convey the waste at a minimum flow of 2.5 gps and a maximum flow of 10 fps. A. Calculate minimum and maximum flows through, 2", " and 4" polyethelene pipe �rr PE Pi Minimum allowable velocity : 2.5 fps Minimum allowable flow = Q = AV Where: Q gpm A = D14 2.5 fps D = ,elect 2" diameter = 1,92" 1.D. Q AV = -xD 14 x 2.5 fps = 22.5 gpm Q = 23 gpm Maximum allowable velocity = 10 fps' Maximum allowable flow = Q = AV Where: Q =gpm Q = nD2/ x 1 O fps Q = 90 3" PE Pipe Minimum allowable velocity = 2.5 fps Minimum allowable flow , = Q - AV Where; Q = gpm A = p14 V = 2.5 fps D Select 3" diameter = 2.86" 1. D. Q AV = nD214 x 2.5 fps = O gpm Q 50 gpm Maximum allowable velocity = 10 fps ESPM197 COMMERCIAL INDUSTRIAL WASTE CALCULATIONS 15450 Maximum allowable flow = Q = AV Where- Q = gpm Q=nD'/4x 10 fps Q = 200 oom 4" PE Pipe: Minimum allowable velocity = 2.5 fps Minimum allowable flow =Q=AV Where: Q gpm A nD2/4 V = 2.5 fps D = Select 4" diameter =3.86" 1. D. Q = AV =nD�/4 x 2.5 fps = _83 gpm Q 91 gpm Maximum allowable velocity = 10 fps Maximum allowable flow = Q = AV Where: Q = gpm Q=nD2/4 x 10 fps Q = 365 oom B. Lift Station IW - 1 1. Determine Pump Capacities The total flow (gpd) from Building No. 7412 is 200 gpd. Maximum flow (gpm) shall be based on two (2) hose bibs at 5 gpm each with a maximum flow duration of 20 minutes each per day. The total flow (gpd) from Building No. 7410 is 60 gpd. Maximum flow shall be based on one pressure washer at 3 gpm with a maximum flow duration of 20 minutes per day. The total influent flow is 260 gpd or 13 gpm for 20 minutes per day. Although this flow does not occur daily, each pump shall be selected to meet or exceed the minimum flow of 23 prn or 2.5 fps through a 2" PE force main. 2. Determine the total dynamic head (TDH). ESPM197 COMMERCIAL INDUSTRIAL WASTE CALCULATIONS 15450 a. Calculate Static Head. The maximum vertical distance for the minimum water level in the proposed lift station basin to the highest point in the discharge piping is 14 feet. b. Calculate Friction Head. Flow through the for main piping will be considered to be turbulent. Therefore, the Hazen and Williams empirical formula for determining friction drop shall be utilized. Force main pipe was sized to ensure sufficient fluid velocity of at least 2.5 feet per second. Developed length of pipe from pump discharge to point of final discharge is 462 feet. Equivalent length for fittings and valves, add 10% equal 46 feet. Total equivalent pipe length and actual pipe length is 508 feet. hf = 0.0020803 L (I OOQ/150)1*85 (1/D) 4.M Where, hf = head loss due to friction, ft. of liquid C = friction factor constant, most commonly used value for copper, brass, lead, tin or glass pipe and tubing is 130, for ductile and cast iron - 100 Plastic - ISO L length of pipe including equivalent length of pipe through fittings, ft Q flow in gpm D inside diameter of pipe, inches NOTE: This formula is based on water with a kinematic viscosity of 1.1 centistokes which is the case for water at 60°F. The value of C in the equation shall be 150 as referenced in the PLEXCO plastic pipe technical paper application note No. 4. ESPM197 COMMERCIAL INDUSTRIAL WASTE CALCULATIONS 15450 hf = 0.0020803 (508 ft.) (100 x 23/150)'-85(1 /1 . 92f86-55 1.0568 x 156.1 x 0.0418 hf 7.0 ft. C. The Total Dynamic Head is the total of the static and friction head, (_14 + 7 21 feet + 10% safety factor = 23.1 feet. Say 23 feet. 3. Determine the lift station basin size. a. The lift station shall be constructed of watertight precast manhole sections, 5 foot minimum diameter with a 5 foot diameter removable top. The top shall have an opening large enough to accept a watertight, 36" x 48L (min.) access cover. A vent pipe shall be provided through the top of manhole as she on design drawings. b. The depth of the lift station shall be determined by the pump operating characteristics and the distance between the grade elevation and the invert elevation of the gravity influent pipe. Based upon the selection of 47 _ gpm pump at 23' TDH, with an operating differential between low level and high level of — I C►" , the bottom of the basin shall be 3'-3" (min.) below the invert elevation of the gravity influent pipe. The bottom elevation is 10'-0" below the grade elevation of 768.5'. The top of the basin will extend 12: (inches min.) above the grade. Se design drawings, C. A detention time of approximately _10 minutes is recommended. From our lift station detail on the drawings, the pit is 5 feet in diameter. There is -_R_.833 foot vertical distance between pump cut-off point and pump cut -on point. This volume equals 16.377 cubic feet, or 122.5 gallons. ESPM197 COMMERCIAL INDUSTRIAL WASTE CALCULATIONS 15450 At 1 ; gpm (maximum influent flow), the detention time from pump cut -cuff to pump cut -on is: 122.5 gal. = 13 gm = 9.4 minutes. . The total run time 122.5 gallons = 47 gpm = 2.6 minutes e. 1n the event of a power outage, assuming the outage occurred when the waterlevel in the lift station basin was at the alarm elevation, the following storage of sewage would be available: 1. Additional storage capacity of basin; Diameter -; 5' Nigh (6" below grade to high level alarm) • Volume=130.84' cu. feet = 978 gal. 2. Allowing storage in existing manhole = 516 gal. Total storage during outage: 1.4g4 gal. . Total time of storage assuming pear demand of 13 gpm: 1,494 gal. divided by 13 gpm = 114.92 min. or 1 hr. - 55 min. Since the flews will be intermittent, i:e., demands will occur after cutting grass or when boats need to be cleaned, the pump station and the vehicle washdown will stop. If a longer power outage were to occur, a portable generator will be used to supply power to the lift station. The pumps will be supplied with local audible and visual alarms and a 24 volt remote alarm to a control dialer located in 7405 which will call an offsite security company which has 24 hour personnel coverage. The security company will notify McGuire Nuclear Station's Facility Management Department that there is a problem at Lift station I -1. C. Lift Station I- 1. Determine Pump Capacities ESPM197 COMMERCIAL INDUSTRIAL WASTE CALCULATION 15450 The total influent flow (gpd) to Uft Station IW-2 is: From: Sam. N NEM, =0 ME, " Ml Although this flow does not occur daily, each pump shall be selected to meet or exceed the minimum flow of 2509 prn or 2.5 fps through a 3" PE - force main. 2. Determine the total dynamic head (TDH). a. Calculate Static Head. The maximum vertical distance for the minimum water level in the proposed lift station basin to the highest point in the discharge piping is 7.5 feet. b. Calculate Friction Head. Flow through the for main piping will be considered to be turbulent. Therefore, the Hazen and Williams empirical formula for determining friction drop shall be utilized. For main pipe was sized to ensure sufficient fluid velocity of at least 2.5 feet per second. Developed length of pipe from pump discharge to point of final discharge is 785 feet. Equivalent length for fittings and valves, add 10% equal 79 feet. Total equivalent pipe length and actual pipe length is 864 feet. From part 4.13.2.b hf = 0.0020803 L (100Q/150)"s (I/D)4.1 ESPM197 COMMERCIAL INDUSTRIAL'WASTE CALCULATIONS 15450 Where: hf = head loss due to friction, ft of liquid C = 150 L = 864 feet Q = 50 gpm D = 2.86" 1 D hf = 0.0020803 (864 ft.)(100 x 50/150)"'s (1/2.86)4,8656 1.8 x 656.6 x 0.006 hf = 7.0 ft. C. The Total Dynamic Head is the total of the static and friction head, (Z. 5 + Z) = 14.5 feet + 10% safety factor = 16 feet. 3. Determine the lift station basin size. a. The lift station shall be constructed of watertight precast manhole sections, 5 -- foot minimum diameter with a 5 foot diameter removable top. The top shall have an opening large enough to accept a watertight, 36" x 4.8 .: (min.) access cover. A vent pipe shall be provided through the top of manhole as shown on design drawings. b. The depth of the lift station shall be determined by the pump operating characteristics and the distance between the grade elevation and the invert elevation of the gravity influent pipe. Based upon the selection of 63 ,with an operating differential between low gpm pump at 16' TDH, V level and high level of 2'- 0", the bottom of the basin shall be 7'-3" (min.) below the invert elevation of the gravity influent pipe. The bottom elevation is 10' - 9" below the grade elevation of 77 1. 0'. The top of the basin will extend 12" (inches min.) above the grade. See design drawings. C. A detention time of approximately 10 minutes is recommended. From our life station detail on the drawings, the pit is L_feet in diameter. There is 2 foot vertical distance between pump cut-off point and pump cut -on point. This volume equals 39.25 cubic feet, or 293.59 gallons. At 74 pm (maximum influent flow), the detention time from pump cut-off to pump cut -on is, 294 gal. -- 74 gpm = 3.97 minutes This is acceptable since flows are intermittent and would only occur one at a time. d. The total run time = 293.59 gallons + 63 gpm = 4.66 minutes ESPM197 COMMERCIAL INDUSTRIAL WASTE CALCULATIONS 15450 e. In the event of a power outage, assuming the outage occurred when the water level in the lift station basin was at the alarm elevation, the following storage of sewage would be available: 1: Additional storage capacity of basin: Diameter - 5, High (6" below grade to high level alarm) - 6' - ". Volume = 127.56 cu. feet = 954 gal. 2. Allowing storage in new manhole = 235 gallons 3. Total storage during outage: 1 189 gel. . Total time of storage assuming pear demand of 74 gm; 1,189 gal. divided by 74 gpm =.16 'minutes. Since the flows from IW - 1 and each building are intermittent, the flows to IW - will be stopped if a longer power outage were tooccur, and a portable generator will be used to supply power to the lift station. The pumps will be supplied with local audible and visual alarms and a 24 volt remote alarm to a control dialer located in 7405. In the event of an alarm, the dialer will call an offsite security ity an which has 24 hour personnel coverage. The security company will notify McGuire Nuclear Station's Facility Management Department that there is a problem at Life Station IW-2. D. Lift Station IW-3 1 . Determine PumpCapacities The total influent flow (gpd) to Lift Station IW-3 is: From: Location Total qpd AvgPeak Flow Peak Flow lift Station IW-2 1500 gpd 59APM 63 qpm Cooling Tower CT-1 3500,apd 21.qpm 24 M Total 5000 qpd 74 gem 87 gpm Although this flow does not occur daily, each pump shall be selected to meet or exceed the minimum flow of 83 gpm or 2.5 fps through a 4" PE force main: ESPM197 COMMERCIAL INDUSTRIAL WASTE CALCULATIONS 15450 2. Determine the total dynamic head (TH). a. Calculate Static Head, The maximum vertical distance for the minimum water level in the proposed lift station basin to the highest point in the discharge piping is 27.79 feet. b. Calculate Friction Head. Flow through the force main piping will be considered to be turbulent. Therefore, the Hazen and Williams empirical formula for determining friction drop shall be utilized. Force main pipe was sized to ensure sufficient fluid velocity of at least 2.5 feet per second. Developed length of pipe from pump discharge to point of final discharge is 2,950 feet (PE) and 255 feet (DI). Equivalent length for fittings; and valves, add 10% equal 29 feet (PE) and 25.5 feet (DI) Total equivalent pipe length and actual pipe length is 2 206 feet. From part 4..2.b hf = 0,0020803 ! 1 i00/1 0) I/D)assss + 0.0020803 (100Q1150)1` (1fDf8665 hf = head loss due to faction, ft. of liquid C = 150 (P), 100 (DI) L = '3,245 feet (PE), 281 feet (DI) Q = 83 gpm D = 3.86" ID (PE), 4" ID (DI) hf = 0.0020803 (3,245 ft.)(100 x 8 150)1. s (1/3.86 4.a665 + 0.0020803 (281 ft.)(100 x 831100)'' (114f 5 6.5 x 1,69797 x 0.0014 + 0.58 x 3551 x 00012 hf = 16 ft. 2.4 hf = 18.5 ft. C. The Total Dynamic Head is the total of the static and friction head, 7. + 18.5 = 46.3 feet + 10°lo safety factor = 50.9 feet. Say 51 feet. ESPM197 COMMERCIAL INDUSTRIAL WASTE CALCULATIONS 1'5450 3. Determine the lift station basin size, . The lift station shall be constructed of watertight _precast manhole sections, ...6. foot minimum diameter with a 6 foot diameter removable top. The top shall have an opening large enough to accept a watertight, 6"x 48" (min.) access cover. A vent pipe shall be provided through the top of manhole as shown on design drawings. . The depth of the lift station shall be determined by the pump operating characteristics and the distance between the grade elevation and the invert elevation of the gravity influent pipe. Based upon the selection of 93 gpm pump at 51 ° TDH, with an operating differential between low level and high level of 3' ,- 0", the bottom of the basin shall be 4.71" (min.) below the invert elevation of the gravity influent pipe. The bottom elevation is 11.21' below the grade elevation of 768.75". The top of the basin will extend 12" (inches min.) above the grade. Bee design drawings. C. A detention time of approximately 10 minutes is recommended. From our life station detail on the drawings, the pit is 6 feet in diameter. There is 3 foot vertical distance between pump cutoff point and pump cut -on point. This volume equals 44.78 cubic feet, or 634. 15 gallons. t 87 gpm (maximum influent flow), the detention time from pomp cut-off to pump cut -on is: 634.15 gal. :- 87 gpm = 7.23 minutes This is acceptable since flows are intermittent and would only occur one time a day. . Total run time = 634.15 gallons + 93 gpm = 6.82 minutes e. In the event of a power outage, assuming the outage occurred when the water level in the lift station basin was at the alarm elevation, the following storage of sewage would be available, 1. Additional storage capacity of basin: Diameter - 6' High (6" below grade to high level alarm) • 5,YV Volume = 161.34 cu. feet = 1,207 gala 2. Allowing storage in new manhole = 282 gallons 3. Total storage during outage. 1,489 gala ESPM197 COMMERCIAL INDUSTRIAL WASTE CALCULATIONS 15450 . Total time of storage assuming peak demand of 37 gpm: 1,489 gal. divided by 87 gpm 17.11 minutes. Since the flows from IW-2 and CT-1 are intermittent, the flows to =IW- ill be stopped if a longer power outage were to occur, and a portable generator will be used to supply power to the lift station. The pumps will be supplied with local audible and visual alarms and a remote alarm to a control dialer located in 7402. In the event of an alarm, the dialer will call an offsite security; company which has 24 hour personnel coverage. The security company will notify McGuire Nuclear Station's Facility Management Department that there is a problem at Life Station IW-: E. Lift Station I-4 1. Determine Pump Capacities The total influent flow (gpd) to Lift Station IW-4 is From: Lift Station IW- 1 50 gpd 1m Although this flow does not occur daily, each pump shall be selected to meet or exceed the minimum flow of 23 gpm or 2.5 fps through a 2" P force main. 2 Determine the total dynamic head (TCH). a. Calculate Static Head. The maximum vertical distance for the minimum water level in the proposed lift station basin to the highest point In the discharge piping is 5 feet. b. Calculate Friction Head Flow through the force maim piping will be considered to be turbulent. Therefore, the Hazen and Williams empirical formula for determining friction drop shall be utilized. Force main pipe was sized to ensure sufficient fluid velocity of at least 2.5 feet per second. Developed length of pipe from pump discharge to paint of final discharge is 73 feet ( " pipe) + 475 feet (4" pipe) ESPM197 COMMERCIAL INDUSTRIAL WASTE CALCULATIONS 1 450 Equivalent length for fittings and valves, add 10% equal 7.3 feet (2" pipe) + 47.5 feet (4" pipe) Total equivalent pipe length and actual pipe length is 80.3 feet (2" pipe) + 522.5 feet (4" pipe). From part 4.B.2.b hf = 0.0020803 L (100Q/150)"' (I /D)4.8665 hf - head less due to friction, ft. of liquid C -- 150 80.3 feet (" pipe) + 522.5 feet (4" pipe) 23 gpm D - 1.82" IQ and 3.86",IC3 hf - 0.0020803 (80.3 ft.)(100 x 23/150)1` (1.92)4.8 0.0020803 (2. ft.) (100 x 23/150)''86 (1/3.86)4.11655- 0.167 x 156.1 x 0.0418 + 1.087 x 156.1 x 0.0014' .0897 + 0.7 f—.fta C. The Total Dynamic Head is the total of the static and friction head, (_5, + 1,3 = 6.3 feet + 10% safety factor = 6.93 feet. Say ' feet. (Discharge valve will be throttled dowry to develop an additional 3 feet head loss). Total Dynamic Head = 10 feet. 3. Determine the lift station basin size. a. The lift station shall be constructed of watertight precast manhole sections, 4 foot minimum diameter with a _A__foot diameter removable top. The top shall have an opening large enough to accept a watertight, 36" x " (min.) access cover. A vent pipe .shall be provided through the top of manhole as shown on design drawings. b. The depth of the lift station shall be determined by the pump operating characteristics and the distance betweenthe grade elevation and the invert elevation of the gravity influent pipe. Based upon the selection of 0 gpm pump at ,10' TDH, With an operating differential between low level and high level of 10", the bottom of the basin shall be 54-0" (min.) below the invert elevation of the gravity influent pipe. The bottom elevation is 9' - 6" below the grade elevation of 755.0'. The top of the basin Will extend 1" (inches min,) above the grade. See design , drawings. C. A detention time of approximately 10 minutes is recommended. From our life station detail on the drawings, the pit is 4 feet in diameter. ESPM197 COMMERCIAL INDUSTRIAL WASTE CALCULATIONS 15450 There is 0.833 foot vertical distance between pump cut-off point and pump cut -on point. This volume equals 10.47 cubic feet, or 78.33 gallons, At 7.5 gpm (maximum influent flow), the detention time from pump cut- off to pump cut -on is: 78.33 gal. -- 7.5 gpm = 10.4 minutes d. Total run time = 78.33 gallons + 40 gpm = 1.95 minutes e. In the event of a power outage, assuming the outage occurred when the water level in the lift station basin was at the alarm elevation, the following storage of sewage would be available: 1. Additional storage capacity of basin: Diameter - 4' High (6" below grade to high level alarm) - 6 0 Volume = 75.4 cu. feet = 564 gal. 2. Total time of storage assuming peak demand of 7.5 gpm: 564 gal. divided by 7,.5 gpm = 75.16 min. or I hr. - .5 min. Since the flows from IW-5 are intermittent, the flows to IW-4 will be stopped if a longer power outage were to occur. The washing upstream to I W-5 would not continue until the power supply was placed into service. The pumps Will be supplied with local audible and visual alarms and a 24 volt remote alann to a control dialer located in 7422. In the event of an alarm, the dialer will call an offsite security company which has 24 hour personnel coverage. The security company will notify McGuire Nuclear Station's Facility Management Department that there is a problem at Life Station IW-4. F. Lift Station [W-5 1. Determine Pump Capacities The total flow (gpd) from Building No. 7422 is 150 gpd. Maximum flow (gpm) shall be based on one (1) hose bib at 5 gpm and one pressure washer at 3 gpm with a maximum flow duration of 20 minutes each per day. The total influent flow is 150 gpd or 8 gpm for 18.75 minutes per day. Although this flow does not occur daily, the pump shall be selected to meet or exceed the maximum flow of 8 gpm for 18.75 minutes per day. ESPM197 COMMERCIAL INDUSTRIAL WASTE CALCULATIONS 15450 hf = 0.0020803 (66 ft.)(100 x'7.5t1 0)" (1J3.86)4. 0.1373 x 19.64 x 0.0418 hf = 0.11 ft. Control valve at ail water separator will be throttled down t develop 6 feet head loss. C. The Total Dynamic Head is the total of the static and friction head, plus control valve head loss (12 + 0.11 + 6.Q 18.6 feet +10% safety factor = 20.5 feet. Determine the lift station basin size. The lift station basin is an existing 6' x 4' x 10) concrete dry basin. The old oillwater separator will be removed and the basin sealed and made water tight. This will prevent industrial waste from entering the sanitary sewer piping system. single submersible pump shell be selected to meet a minimum flow of 75 gpm @ 205 TDH. If the pump is pumping more than 7.5 gpm, the ball valve at the oiltwater separator will be adjusted until the pump flow equals 7. ' gpm. In the event of a power outage or pump failure, the high level sump alarm will send an alarm to the oil water separator, then forwarded to IW:4 Control Station which will send an alarm to an offsite security company. The security company Will notify McGuire Nuclear Station's Facility Management that there' is a problem at Lift Station IW-5. G. Lift Station I - 6 1. Determine Pump Capacities The total influent flow gd) to Lift Station I-6 is: From: Location Total 9pd Avg. 9pm Lift Station' IW-3 522q2pd 7.4 gpm Lift Station IW-4 150 gpd 7.5 qpm Bldg ,74 2 (Future) 300 gpd 23 gpm I- 7 Total 5450 gpd 104.5 gpm Although this flow does not occur daily, each pump shall be selected to 'meet or exceed the average influent flows to IW:1, IW2, IW-4 and IW-7 of 105 gpm or 2.5 fps through a 4" PE force main. ESPM197 COMMERCIAL INDUSTRIAL WASTE CALCULATIONS 15450 removable tap. watertight, 6" through the top c b. The depth of the characteristics a invert elevation► 105 gpm pump level and high le below the Inver elevation is 12' w basin will exten drawings, C. A detention time our life station d There is 3 font cut -on point. Thi ing large enough to accept vent pipe shall be provided sign drawings. lined by the pump operating the grade elevation and the At 153 gpm (maximum influent flow), the detention time from pump cut- off to pump cut -on is; 1,1274 gal. _; 153 gpm = 7.36 minutes . Total run time = 1,127.4 gallons ;. 105 gpm = 10.74 minutes- . In the event of a power outage, assuming the outage occurred when the water level in the lift station basin was at the alarm elevation, the following storage of sewage would be available: 1. Additional storage capacity of basin. Diameter - 3' Nigh 6" below grade to high level alarm) - 7 ' - Q " Volume = 351,68 cu. feet = 2 61 gal. :. Total time of storage assuming peak demand of 153 gpm: 2,631 gal. divided by 153 gpm = 172 minutes. Since the flaws from l -3, IWA I-5 and IW-7 are intermittent, the flows to IW-6 will be stopped if a longer power outage were to occur and a portable generator will be used to supply power to the lift station, ESPM197 COMMERCIAL INDUSTRIAL WASTE CALCULATIONS 15450' 2. Determine the total dynamic head (TDH). a. Calculate Static Head. The maximum vertical distance for the minimum water level in the proposed lift station basin to the highest point in the discharge piping is 8 feet. b. Calculate Friction Head. Flow through the force main piping will be considered to be turbulent. Therefore, the Hazen and Williams empirical formula for determining friction drop shall be utilized. Force main pipe was sized to ensure sufficient fluid velocity of at least 2.5 feet per second. Developed length of pipe from pump discharge to point of final discharge is 900 feet. Equivalent length for fittings and valves, add 15% equal 135 feet. Total equivalent pipe length and actual pipe length is 1,035- feet. From part 4. 1.2. b hf = 0.0020803 L (100Q/150)"is (1/D)41*65 where hf head loss due to friction, ft. of liquid C 150 L 1,035 feet Q 105 gpm D 3.86" ID hf = 0.0020803 (1,035 ft.)(100 x 105/150)'-"s (1/3.86f8666 2.1531 x 2,591 x 0.0014 h( 7.8 ft. C. The Total Dynamic Head is the total of the static and friction head, CQ_+ Z J8= 15.8 feet + 10% safety factor = 17.38 feet, feet. Say 18 feet. 3. Determine the lift station basin size. a. The lift station shall be constructed of watertight precast manhole sections, 8 foot minimum diameter with a 8 foot diameter ESPM197 COMMERCIAL INDUSTRIAL WASTE CALCULATIONS 15450 Although this flow does not occur daily, the pump shall be selected to meet or exceed the maximum flow of 8 gpm through the oil/water separator. 2. Determine the total dynamic head (TDH). a. Calculate Static Head. The maximum vertical distance for the minimum water level in the proposed lift station basin to the highest point in the discharge piping is 12 feet. b. Calculate Friction Head. Flow through the force main piping will be considered to be turbulent. Therefore, the Hazen and Williams empirical formula for determining friction drop shall be utilized. Force main pipe was sized to ensure sufficient fluid velocity of at least 2.5 feet per second. Developed length of pipe from pump discharge to point of final discharge is 60 feet. Equivalent length for fittings and valves, add 10% equal 6 feet. Total equivalent pipe length and actual pipe length is 66 feet. From part 4. B.2. b hf 0.0020803 L (1 OOQ/1 50)'-86 1.92)4 hf = head loss due to friction, ft. of liquid C 150 L 66 feet Q = 7.5 gpm D 1.92" ID ESPM197 COMMERCIAL INDUSTRIAL WASTE CALCULATIONS 15450 The pumps will be supplied with local audible and visual alarms and a remote alarm to a control dialer located in 7423. In the event of an alarm, the dialer will call the offsite security company which has 24 hour personnel coverage. The security company will notify McGuire Nuclear Station's Facility Management Department that there is a problem at Life Station IW-6. ESPM197 COMMERCIAL INDUSTRIAL WASTE CALCULATIONS 15450 WEIL 1418 Submersible 11 Sump Pump 613 Removal System r 15 1A 7 le TOTAL HM CURVE NO. 1750 1RPM1.0 S.G.PUMP SIZE:2 X 2 tt 7 MTR PSI FT 40.0 .536 3500 70° F IMP R 1i,p` .79s 450 IMP. E: OPEN 141 8 26 60 D .... 7.0 MAX. SPHERE:.50 17 24 55 425 5 22 5O 00 ' p 14 19 45 75 `Q 12 17; 40 625 11 15 35 { 9 13 30 575 ! 11 25 6 9 20 1. H e±2IP 5 615 1 HP ,75 HP F Y 1.5 HP 3 10 S HP 2 2 5 Pe M 0 20 40 fit} 80 ' 10D 120 140 160 180 2OO gar 0 4 9 14 18 3 27 32 36 1 45 I BLOCK MARKS Q- "{) INDICATE OPERATING GE WI01.485 MARCH I, 194J 1418 � ,� SUBMERSIBLE 2613 RemovalSystem MPIJMF' WEIL PROJECT NO. 94-0017A EFT STATION I-? ATTACHMENT A EPSM 197 Sheet I Of 2 15450 VWIL 1 DUPLEX ' INSTALLATION 2613 Removal System ROUND BASIN COVEFR. SWITCH PLATE VENT .F.st""`w� e HINGED ! i + ACCESS DOOR { DISCHARGE _7 ' BASIN COVER _.a T 01 SCOARE "`- HINGED ACCESS DOOR BASIN COVER RU COVER DISCHARGE UPM GtADE CABLE TO 4#40TON Boxr OR PANEL MINIMUM PIT DIAMETER - INCHES BRACKET U COVER DISCHARGE 2613 SIZE a 2 3 4 6 GUIDE POLE— 8812 NECK IN ROUND 36 42 54 72 VALVE COVER E OISCHAAGara LwrwG— Ii,I'� HIGH WATER LU14 6 42 48 66 R CABLE jV (ONLY xrED) I� PUMP "CAN' (STAWOY) 1 MINIMUM PIT DIAMETER - INCHES P Cwr BELOW COVER DISCHARGE (ALTVANATES PUMP$) 2613 SIZE > 2 3 4 6 PUMP($) 8812 ROUND 42 48 64 72 SUCTION MIEN. SETTING COVER 8814 SOUARE 36 42 48 66 COVER FLOORDISCHARGE ELBOW Spa*Size and Location of Inlet BELOW COVER DISCHARGE and Discharge W 101.759.001 2613 AUGUST 1, I DUPLEX INSTALLATION WEIL EPSM 197 PROJECT NO. 94-0017A LIFT STATION Ili-1 ATTACHMENT A Sheet 2 of 15450 1 608 Submersible " Sump Pump 2613 Removal System 7 I 13" " 10 W + L . CABti r' s Y VARY LIFTING EYE 26 MAX M 6"13 YOKE 3Ive 3" DIA DISCHARGE 1608 Pump Dimension w101-507.001 SUBMERSIBLENI " SUMP PUMP MAY 1, I 1608 ! 2613 Removal System WEIL PROJECT NO. -0017A LIFT STATION IW- ATTACHMENT B EPSM 197 Sheet 1 of 3 15450 km + a , TOTAL H CURVE 140. 1 1RPM1.0 S.G.PUMP SIZE: 3 X MTR PSI " W141.004.001 700 E IMPELLER: P IMP. TYPE. OP 9 13 3MAX. OIA MAX . SPHERE.2 8 11 2 too r 6 9 20 Tit 625 5 6 15 3 4 10 550 2 2 5 .6 H P U,S. G�i„IQNS ul4 0 20 40 60 so 100 120 140 C a�tERS € arot 0 4 9 14 is 23 27 32 BLOCK MARKS INDICATE OPERATINGRANGE PROJECT NO. 94-0017A LIFT STATION I - ATTACHMENT EPM 17 Shut 2 Of i 3323 EN 1.9 HP .8 HP 160 ISO 200 36 41 4 1545 IL DUPLEX INSTAL.ATI CA N 3 DISCHARGE i BAS i IN COVER a G COVER DISCHARGE Manua mom 0 NINE _ a oily Size and Location of Inlet Discharge W 101.759.001 2613 DUPLEX INSTALLATION " PROJECT NO. 94-001 A LIFT STATION IW-2 ATTACHMENT B FPSM 197 Sheet 3 of )GUST 1. 1994 IL WV111 PROJECT NO. 94 LIFT STATION ATTACHMENT EPSM 197 Sheet 1 of Submersible " Sump Pump i JUNE 1, M MP PUMP WEIL - 017 I_ c AIL • _ r r 4 r r TYPE: !r« EN r r,To r .,r t r , ♦ w . i 3 r � rofi. ; • i+� w,� wu ai 0 4 9 14 is 23 27 32 36 41 4S BLOCK MARKS INOICATE OPERATING RANGE PROJECT NO. 94-001 LIFT STATION IW-3 140 VMIL 2613 DUPLEX INSTALLATION 2613 Removal System ' . ROUND BASIN COVER SWTCt PLATE' VENT HiNGED DOOSS R 01 ,7 { TDISCHARGE i x hI BASIN COVER j RU COVER DISCHARGE UPPER G SUPPORT TO AR40MM BOXMINIMUM OR CONTROL PANEL PIT DIAMETER - INCHES SPACKPIPE ET THRU COVER DISCHARGE 2613 SIZE > 2 3 4 6 G 8812 * - CHECK BASIN ROUND 36 42 54 7 vAcvE E COVER. ROPE,` POWER f._ I°� WATER Y $81 SCIUARE 36 COVER 42 46 66 SPECMD) _PLOP i+ fSTANi-BY) PUMP PLUMP -e6 Iht„TE TE PUMP(S) EN 9i MN. _ SUCTION SMING 8814 SQUARE 36 42 48 66 COVER Ft GTtS E ELBOW SPeedy Size and Location of Inlet BELOW COVER DISCHARGE and Discharge F> W 101.759 001 AUGUST 1, 1"4 2613 DUPLEX INSTALLATION WEIL PROJECT NO. 94-0017A LIFT STATION IW-3 ATTACHMENT C EP M 197 Sheet 3 of 3 15450 WEIL 608 1 Submersible " Sump Pump 213 Removal System 7 13" 5 101W I r CABLE LOCATIONS Y VARY LIFTING I EYE 26 j1W MAX t61YOKE" DIA DISCHARGE RG 1608 Pump Dimension F w 101.507.001 SUBMERSIBLE 3" SUMP PUMP MAY;1, lI 1608 2613 Removal System WEIL PROJECT NO. 94-0017A LIFT STATION IW- ATTACHMENT EPSM 197 Sheet 1 of 3 15450 m a mmm SEEN 45 7t7�72 MEN son on 0 ii a No 0 Eno a a NUNN man ON M IN ENO 0 NO 0 a "llm. a WIN a on 0 m NEEMMEN No Now so 9 14 EPSM 197 BLOCK MARKS (�- - ) INDICATE OPERATING RANGE PROJECT NO. 94-0017A LIFT STATION IW-4 ATTACHMENT D Sheet 2 of 3 15450 VWIL DUPLEX INSTALLATION 2613 Removal System ROUND BASIN COVER: SWITCH PLATE VENT gyp--- WNGED e ACCESS DOOR DISCHARGE p+-- I \\w d,• — h' `¢*.•„ BASIN COVER ACCESSHINGED SQUARECD IN COVER THRU COVER DISCHARGE UPPERPIPE GUIM T CAM To A440TON BW iN; CONTROL PANED MINIMUM PIT DIAMETER - INCHES SFWAET THRU COVER DISCHARGE 2613 SIZE :a 2 3. 4 6 ' G 8812 CNECK BASIN ROUND 36 42 54 72 VALVE J COVER DISCHARGE tT POPEdd fl Dom_ e"+& j WATER>QU 8814 E 6 42 48 g5 . - COVER POWER N CABLE SPE ) + PUMP low i5T MINIMUM PIT DIAMETER - INCHES PUMP *Ow BELOW COVER DISCHARGE �.:PUMP {ALTERNATES PUMPS) iSl 'CrFF` tr MIN. SUCTIONCD SETTING FLOG U#GE 0� EL SPe*Size and Location of Inlet BELOW COVER DISCHARGE and Discharge F W 101.759.001 AUGUST I; 1"4 2613 DUPLEX INSTALLATION WEIL PROJECT NO. 94-0017A LIFT STATION IW- ATTACHMENT D' EPM 197 Sheet 3 of 3 1545 Goulds' { e A _.. k' .t • ..€ « a } • « , fxx };:. { �t i F¢4t } tip€+ Lx POWER CORD. 1613 SJT r DIMENSIONS AND WEIGHTS �« _ NE1AA 5 1t� M xn.4 « t"x''w O 1'RQNCs GROUNDING, + x Fli , I'1�14 �rtl0rt N « } 7oa*N, !S VOLT rt i ingrtec 2,d M;4x, •.i �'� t, `s�' i ,4 4 ��' v �' '"�''� Sucam Strainer E e [) S Seal � PMpY.♦ YP 00 _ taa�at2xhl:t' NPTe!�. Motor TR eight Qlx) � uuvvi FA a M CPtd iN�NS M.sx 4Nx k Capaei#0r use for cron pu. brew k. 41014 1 r s ' 7.ta SIZEW x7 y 4 "} ORMANCE RATINGS GSINSTALLATION p q 5 0 Pf ff"r 300 1200 1740 P a CHECK i etas n3 txpq peso k� VALVE « j m x9 10 t ROTATION UNION KICKBACK t i' M1N, S TMSR LENGTH- TIL OR BASIN 8-r MIN. VWMAX s APPROXIMATE { ON -OFF LEVELS - As$' TO 11' A i x iBOTTOM OF FLOAT 1" MI1�i.7"C1 BOTTOM OFPUMP. New NCW E3"a SPECincAlnoM3`ARE SUr JCCT TA Cf4ANf:R . oUT opCE' PRINMO IN U:S.A: . ..z PROJECT NO. 94-0017A LIFT STATION IW-S ATTACHMENT E EPSM 197 Sheet 2 of 2 15450 WEIL 1608 w Submersible " Sump Pump 2613 Removal System 7 j I 8. 101W # CABLE LOCATIONS Y VARY C LIFTING EYE 6 . MAX Ln 2613 YOKE 314" 3" CIA �.. DISCHARGE 1608 Pump Dimension e 101 07MI SUBMERSIBLE " � M PUMP MAY 1, 1994 1608 213 removal System WEIL PROJECT NO. 4-001A LIFT STATION IW- ATTACHMENT F EPSM 197 Sheet 1 of 3 15450 I * • • a s r e 154m! v pAr No s r «♦ i - # a a NONE 0 0 so •rSo MEN MOORE MEMO * E ., im m ON nos • M e77i677—*)r LOCK MARKS INDICATE OPERATING RANGE PROJECT NO. 94-0017A LIFT STATION I_5 ATTACHMENT F Sheet 2 of 3 15450 DUPLEX INSTALLATION 2613 Removal System ,u Li �f f SOUAK EU ACCESS IN COVER SUPPER Gutma .PIPE SUPPORT BRACKET Ou" POLE 04ECK VALVE UFTM— ROPE POWV �. R ° PUMP ° SUCT*N FLC, Cyfi 01SCHAAGE ELBOW BELOW COVER DISCHARGE 1» 101.759.001 VENT WNGED a a ACCESS` DOOR itRU DUPLEX INSTALLATION PROJECT NO. 94-00iA LIFT STATION I-6 EPSM 19 1 tXSCHARGE T'ASIN rr ARGE METER - INCHES A DISCHARGE a 4 s 42 - 54 72 42 46 66 AMETEK - INCHES ER DISCHARGE 3 4 6 46 60 '72 42 46 66 .ocation of Inlet AUGUST 1, 1 WEIL Sheet 3 of 3 15450 ATTACHMENT F Duke fewer Company Generation Services Department 13339 Hagers Ferry Road � �:. Huntersviffe, NG 28078- 7929 ° �.' I R � ka t 4 E . ' a NA 11 =w LY �DUKEPOWER Ms. Coleen Sullins Permits and Engineering Unit North Carolina Department of Environment, Health aiid Natural Resources P.O. Box 29535 Raleigh, North Carolina 2 62 -053 Subject: NPDES Permit Renewal, NC OG24392 McGuire Nuclear Station, Mecklenburg County File: M-702.13 Certified: P 384 366 919 Dear Ms. Sullins: Duke Power Company requests that the subject Permit e renewedand reissued. The above referenced; Permit expires January 1,1995. Attached is the permit renewal application Package which includes the following items: 1. EPA Form 1 - including Topographic and Site Maps (3 copies).; 2. EPA Form 2C - Including Priority Pollutant Analysis, Water Flow Diagram, d Supplemental Information 3 copies). 3. Check in the amount of $4400.00 for the Permit Processing Fee. Please review this application package at your earliest convenience and send us a letter confirming its completeness. As required by GS 143-1.1 (C), this permit application for renewal is being submitted at least 180 days prior to permit expiration The McGuire Nuclear Site (which includes the Training and Technology Center, NCO026255) will be connecting all sanitary sewer systems to the Charlotte Mecklenburg Utillity Department (C MUi3) by 1997. We request that when you are drafting the new permit, you consider the following changes which are under development for McGuire: 1. In the first phase, the Training and 'Technology Center's (TTC's) industrial d sanitary wastewaters will be separated. The TTC's industrial wastewaters will be routed to Mc ire's Outfall 002 (Conventional Wastewater Treatment). The sanitary wastewater will be routed to McGuire's Outfall 003 (Sanitary Treatment). The TT 's Outfall 001 will be eliminated completely by April 1 1995 The remaining TTC Outfalls (002, 003, and 004) will be eliminated by the end of 1995. 2. The industrial wastewaters from McGuire Office Shop, the McGuire Office Complex, and the Nondestructive Examination Building,'will also be routed to Mc ire's Outfall 002 (WC). This phase will be completed the end of 1995. 3. In 1991, a car wash will be installed at the McGuire Garage Facility. The discharge from this car wash`will be routed to Mc it 's Outfall 00 (WC). 4. In the final phase of the project, McGuire!s sanitary Outfall 003 will be connected to C `' D.Therefore, McGuire's Outfall 003 will be eliminated by 1997. The industrial wastewaters from the Vehicle Maintenance Facility d the Medical Facility will also be routed to S's Outfall 002 (WC) during the final phase. The proper NPDES construction permits will be obtained during this process as required. Also, we would like to paint out that no data was available for Outfall 006 on Form C. This outfall was not used 'during this time period; however, there are plans to use this outfall in the near future. We would like to maintain this outfall in the new permit that will be issued. Thank you for your assistance with this permitting request. Should you have any question or desire additional information, please contact Norma Atherton at (704) 875-5963. Very truly yours, o C er Tec "cal Systems Manager GSD/Enviromnental Division Attachment 0 _$,_,... �* -- y. .Fax.titdx xadxacfxy r eta n matte on'any of Your discharges or on a rat riving atar,arM;ralation to yo pY tadhargex within the taste �yearsi YUS (identify the teat(a) and describe their purposes below) 0 No (go to Section 'rip Quarterly analysis of Ceriodalhnia Dubia acute LC50 per current permit requirements can outfalls 001 and. 002 {quarterly analysis of Ceriodaphnia Dubia Chronic Toxicity Pass Fail Tent at 1 for outfall 05 per current permit requirements; Were any of the analyses reported in; Item V performed by a contract laboratory or consulting firma (EYES (list the name, address, and telephone number of and pollutants 0 NO (go to Section IX) analyzed by, each such laboratory or firm beloru, A. NAME: . ADDRESS w NE ANALYZED area cods � no. list Heritage Laboratories Inc. 4132 Pompano Road (704)-393-18 3 Total Radium' (Certificate #96) Charlotte, NC 28216 Radium ; 26 Phenols' Sulfide Sulfite bromide Color CyanideMBAS Fluoride } /amaware that tires are lsr n f%tan + e nrrwsrvaF aififF[R#6CRid 9{91} '. rrsrfti s ftar crtarrtrtiirr t fail information,. includZ A. NAME & OFFICIAL TITLE (type or print) { T. C. McMeekin, McGuire Site Vice -President C, SIGNATURE /4Zp "PKA/ EPA Form 3510.2C (8-90) PAGE 4 OF 4 isPHONE � INNO,a I���wY cj�laill . lull it- N ire �I.ii i Connection to tt g utility Department The McGuire Nuclear Site will be connecting all sanitary er systems Charlottwuecklenburg Utility Department (CMUD) by 1997. This project will be completed in phases. In Ow first phase, the Training and Technology Center's (TTC') industrial ustrial nit ry wastewaters will be separated. The 7TVs industrial wastewaters will be routed to MNS.a Ball 002 WC) and the sanitarywastewaters routed to MN&S Outfall003( Training and Technology Center ( C) Outtall 001 under permit number NCO026256 will be eliminated completely b April 1, 1995. The remaining C Outtalls ( ) will be eliminated by the end of 1996. The industrial wastewaters from the McGuire Office Shop, McGuire Office Complex, and the Nondestructive Examination building will also be routed to MN&s Outtall 002 (WC). This phase will be completed'by the end of 1996. The final phase of the project is to connect MN&s sanitary Outfall 003 to CMUD. Therefore, MNS Outtall 003 (Permit No. NC 2439 ) will be eliminated by 1997. The industrial wastewaters from the Vehicle Maintenance Facility and the Medical Facility will also be routed to MN&s Qutien 002 (WC) during the final phase. As part of this phase, a new car wash will be installed at the VehicleMaintenance Facility. The maximum flour from the car wash is expected to be 2,000 GPD, with an average flow of 7GPD. The wash water will drain to a collection sump, then through an oittwater separator into the WC System (Uttall ). The proper NPOES permit modifications and construction permits will be obtained, as rewired, prior to construction and operation. t 30 SUPS xaE if ( 3395j 1 53 WLS 0.03; r tt f °t r I+ 1 >k �u SITE 8 98am Caldwell •* Tord t/t t 39jI It tiuifjra 4 ^ rx n jx f 7 jE \< 15"' 1 i" ✓•+ a EE * v �f a r ,�� E - � .. *.,}% � ✓ if tt r j. � i l f'' U ion C+xvvg ` h it 728 r • B ht J1756 k x, ( i 39 a a McGUIRE NUCLEAR STATION t DUKE POWER COMPANY SCALE 1: 24 OW i0 1 MILE 1000 0' 1000 2OW 3000 4000 5= 6M 7000 FEET 1 5 0 1 KILOMETER gF�M NUOO�kasftm hom I Q( li . e1111411111M.11 NV MEN IMMOMMICZ MINIMEN MENNEN ME MIN UNNIM UNNIM IO INUMBER«a . a P Form .* :wNUMBER , t w i �* as a u iiMii 4 ovi v a a Vo '11:3111,11 a a .. 0 SON WIN b ♦ a a . a as a ♦ ♦ t ENO OEM ICOMNIIE� .. x ONE MIN IINICOMNIIE� WON 00�1001 a .. x Nonow to m a NEENNE 00001� a. .F �. O ENO :.a .: EPA tD. NUM ( i of Fam 1) OUTFALL NUMBER FaMAWvAd CONTINUED FROM PAGE V-7 NCO024392 001 T �1 POLLUTANT 2. MARK "X' 3 EFFLUENT . . UNITS S. INTAKE toodoneD O. cw o C.ek a. IMU DAILY VALUE b. iM 30 DAY VALUE c. LOG M AYG, VALUE a. LONG TERM A . VALUE ' ) 1 - F swt d a. b. . OF ao 1 axo 2 Mess 1 rmee 2 1 1 '- **ko NKYSES FRACTION - BASElNEUTRAL M tJN rttir�u so*h,y�sn,kse X 10 < 225,E 1 ib/ < t© 5 1 448. 'w*rtn,a X < 10 < 225.3 1 Mon WOSY < 10 .5 1 45W X < 10 < ' 225.3 1 U9A buy < 10 200.5 1 i 46R I,Z4-Trt- X < 10 < 225.3 1 uo IwDay < 1 .5 1 GC/MS FRACTION • PESTICIDES IP,Akth X 2P. HC X 318- 3P. " BHC X 31 7 5P, BHC X' 31 ` BP, ,( bi-?M8 7P. 4,4 00T X LN:20-3.. 8P. 4,V-00F X 72A 9P, 4,4` X 72 _ 10P, acts7-1 i1P.e en X i15- 7 12P. on X i i�.2p:7 13P. :: art swoto X 1031{f7.81 W. EdtO A ?( (?2-20-81 Erdin MaIrlde X 7421- i6P. ct( 76-44 EPA Eon 3510.20 (Rev, 2-M) o- PAGEV41 NUE 4 P V-9 EPA A NUMBER ( i o F. t) OWFALL NUMBER F«m OMS No. CONTINUED FROM PAGE V-8 NCO024392 00i 7 31 POLLUTANT Z MARK ` 3. EFFLUENT 4. UNITS 5. INTAKE e. b e: a. IM DAILY VALUE b„ IM 30 Y VALUE -0 LO t M AV 3. VALUE a LO TERM A VALUE [AN(19,,�ALJO.- d . a. b. . a .ed t 6 M t ka8at 2 Ma i epere 2MS FRACTION - PESTI" X 1ti2t-5i-� fBP, PC94242 i (SUW21:9j 19P.PC&1254 it 11097 t 122i 9t9tli-2& 21P. P08•1232 ){ 1114i-t8 6 PCO-t t8 t28T2� 23P,PM1260 X t 4-11-2 28P. T X is owo i 38 2 EPA Femw 3510.20 (Rev. 2-W) PAGE V-9 �veoieveeeoeveveoveeeve ��10111111100��100110100 Qlllllllllllllllillflll SDOAI 11100�A���ADAAAO� nucleonic0 �vee�eeegeoo�veeveeevo � � Omm0 n0000s --------------------- .. a sR s .{ a , • L �b {� «I �I ^ �r X*L' IIIP�uI ! a « � 91 IXII Mi�ell `P I� �9 yp ■� �W+R... m Nu� k�, #� �.+W .. i . ♦ Ot a a eex. � **� �� * Ykueit«.�e�d a• f:, ypyYlg « .. I !A $ � � «: • ICI lM IF�$�r r� b # us a *. # • P � # a t. M��m e 4 + w a.. •. � �.. a ��� mom ## ERA t.D. NUMBER (CWy 7m ham i of Form 1) OUTFALL NUMBER F OMB ft CONTINUED, FROM WAGE V 7 NCO024392 0023 I. POLLUTANT 2. MARK W . EFFLUENT 4. UNITS S. I_NTAKE RN e ati a. M IM t�A pAILY VALUE b. IM 30 Y VALUE c. L(a G M A VALUE a: Lt�NG 'TERM A . VALUE �° d NO. a. n- b. d N®. Di= od - 1 a i 2 i C '. r 2 Ms " i Yan 1 Yan /MS FRACTION - SEtNEUT L M UN do 8. N- rren X < 10 < 0.05 1 lb/Day 10 .5 1 440, < 10 < 0.05 1 e _..10 < '..5 1 458 X < 10 < ' 0.05 1 Ibl < 10 < 1 1 466.1,2,4 iM X < 10 < 0.05 1 < 10 � .5 1 i 2t382-3 GCIMS FRACTION -PESTICIDES IP. . 2 2R. a ` 8HC is 3i 3R, " HC 7C 31 i 4R. HC i( SR. &4C X 3i SR. X Si-'74W@ 50.293 w 4,4'-DDE 'T2 9R, 4,44= x i2 fW olawonx iiR. en ii'S-Z9-? 12R. n 415 A i3R. Endostfan S1l 610 1031•ti74 14R. ( R: ;SP. x 7421. 16P. " #Ycr 7 ERA F" 3510.2C (Rev. 24 6) R VY6 CONTINUEONPAOEV4 EPA 1.0. NUMWR(Copytomftm i of Fom f) OUTFALL NU CONTINUED FROM PA V-8 NCOM4392 002 1. POLLUTANT 2. MARK ` " 3..EFFLUENT . UNITS 7-3 146 S. INTAKE AN (q O. ar b. C: 8. rho ILY VALUE b. M ! Y VALUE �c. LO G NIA .'VALUE a. LONGr TERM A VALUE ,NO. sa n- b, OF :A:Y]:S 9d 1 �tllt 1 �W9 1 �mfon 1 ron GV FRACTI N - PESTr " t7P MOPUCW x 1o7- 18PPCB•1242 21�9 19P. PCB-1254 ti097 i 20R PM1221 7C 1 i t04-2&2 21R PCB-1237 1114t-t8.5 22P. PCB-1248 x t - 23P. PC04260 X i1 -5 4P. PCB-1016 x 1 4-1 t-2 x LT 1=2 EPA FMM 3510.2C {Rev. 2 85) t Oil PAGE V- EPA 1,0. NUMBER { i of i) OUTFALL NUMBER FOMAWVV*d allo, ITEM V-S CONTINUED FROM FRONT NCO02 4 2 � � I.POLLUTANT 2. K r . EFFLUENT 3. UNITS 4. INTAKE AN NO, a. MAXIMUM DAILY VALUE b. IM 30 DAY VALUE C. Lct G M A VALUE M a. LONG TERM A . VALUE c. NO. OF ;C *,pro- b d . .. a. i Ga !on 2 Mess 1 uxt 2 i 4a1 2 ANkYSES "rjc X otvric 59 13.3 i Iblomy es N n. W4W4 X 0.92 0.21 Wow as Toiei X i72 14 0 7 14 1 Rs '. EX 41) . lout < CIA79 (2) Tout X 3&3 X 1 pCL4 (3) R T X <" ,I X 1 pciq X taIRPT X <. 1 X fPCVI X Les 7°4sa X 26 5.9 ` 1Mon Ib/ Dwy ;east X < 1 < 0.23 1ffw wosy .Suft I X < 1 < 0,23" 1mo b(Day n. suia ct&rft X 0.1 0A2 1tngn IbtDsy o.TOW AkmnvmX 0.15 0.03 1 mo IWDSY 7428-4+D-5 . Bs Tow - X < 0.02 < 0.005m9A lb/Day 7 39-3 'Tout X 0.11 0.02 1me lblDay 440,42-8 r. Tout X < 0.1 < 0.02 1 MOA vDay 744 _ s (7+I °u1 ), X 031 0.11 1 nVA ibl ' t mapo,Tom` X 3.7 0.83 f nVA IvDoy T 96 4 U. MOOT=" °X < CIA <... 0,0 1 'Womy Tt3ae x' M T 3.7 0.83 1 T Tkt Toni i-5) X < 7 < 0.23 1 ftwosy x. wnTOW X < 0.04 < 0*01 1 IblDay i#4ii 32 tl PAGE V=2 CONTINUEON PAGE V- EPA Form 35104C (Rev. 245) ff�NC0024392 � 1 F 1) OUTFALL NUM sOMB ki CONTINUED FROM PAGE V-3 �1 as i�.,a��r�,�r����.��c��c��.i .. . -. ■i���i�rr��wrii����r OEM MEN mom �MIMIMIMIIIIK a a , MEN i 4is a •. M®NNEN e. .a as tlaf s a r :, m N «li•lul ai ,� k uw . s .. .. a , " 1 4 M�MR i Oop io91m �1MNd ' of OMI � u � � ZLI r s ae Wti •e ra r � ®���": > rye s� �Y a r � .'�"c •�c •. V c '� �. � <R4 .y .: NEB, ISP, KvwcMor EPA t.D. NUMBER (CW*oMftM 1 of FOM 1) OUTFALL NUMBER Fam ApKom f comae N6.2040-000 CONTINUED FROM PACE V-8 - NCO024392 0037a166 11. POLLUTANT 2, MARK*R 3. EFFLUENT 4. UNITS S. INTAKE AN O. a.ro c.aa a. IM WILY VALUE b. 1M 3U DAY VALUE . LGt G M AYG. VALUE a. a. LONG TERM AVG. VALUE N) t . Co b. � NO. OF od 1 tlat 2 Mass 1 #on 2 Moss 1 Mon B to tiOn 1 fonAWYM GC/MS FRACTION - PESTI ' i7P. Hopudim 024.57-3 i6P PC94242 53 21-9 i1097 i 20P.PCO.1221 11104-2&2 21P. PGB-1232 ii 11141-l" 22P. 1246 X 1 23P. PC842W X 24P.PCB-1016 x 1 4=11-2 25P. T L x Baml 35 2 EPA Farn 3510.2C (Rev. Z45) m PAGE" EPA I.D. NUMBER (1 Of 1) OUTFALL NUMBER FOMAWWAd OMOW204a,00911 CONTINUED FROM PAGE -T NCO 24392 004 T-31-w I. POLLUTANT 2. RK "X` 3. EFFLUENT . UNIT a S. INT E AN N n. c aa� a � ILY VALUE b, OM 3CI Y VALUE G. LCs G A 1G. VALUE d" . n- b. a. LC�Nt3 TERM A VALUE a No: Of ed 1 fon 2 Mass 1 C YSEa 1 Id1 ANOXYMS GC/MS FRACTION'BASE/NEUTRAL COMPOUN(continued) 438. -Wmblo X < 10 < oboosU411 lb/Day < 10 :5 1 OMOSugn Ibt < 10 2W5 1 448. X < 10 < a -a 458 X < 10 < 0. 1 ro 4 10 4 .5 1 a 46a. a;2,4 try et X < 10 < C►. 1 ugh Ib( < 10 < ;5 1 1 2=1 G3C1MS FRACTION - PESTICIDES 1P. 2P. attic X � 31 3P. X 31 'T 4P. Btac X ,)SP, -BNC X :f 31 46P, C r* 4,*DDT X 5G :29< 8P. 4,4'-t1DE X Tl 55-9 9P, 4,V-DOO T2- 10P. olown X .: 5T•1 X a a5-T 12P. on X 115-T 13P. n SLftlb 14P. ErdinX T2- aSP. Etxft i421 %P. s d*w X T EPA Pam 3510.2C (Rev. 2-95) PAGE" 00NTWUEON PAGE V- EPA I.C. NUMBER (oopy troM1 of F 1I ! FAIL. NUMBER F OMS Nb CONTINUED FROM PACE V-8 NCO024392 0047 31 1 RIB W 3. EFFLUENT 4. UNITS S. INTAKE F;F a ro Lk' a. 1M ILY VALUE b. ISM 3ii DAY VALUE .LOG M A I. VALUE e1F a. LONG TERM A . VALUEtNoOF . ed 1 arotaocn 2 1 tlat 2 1 t il>At 1 Yan ANALYSES 1�Ct FR TION - PE aTI 1 P. ,:. d'Yal' X 18P.PCB-1242 e 21wst 19P. PCB-1254 X t 11097 1 IMP, PCB-1221 )C 111A4.2&2 21P. PCB»1232 )C " � 11149.16.5 "2P. PCBw1248 126i2- 23P. PM1280 X 11 -5 24P, PCO.1016 }( t 126t4.11-2 Y " if, aw 1.36.2 L EPA Form 3610.2C (Rev. 246) G P V 6V a _. _...�r��r� » . •.: , . * � �.; t It�... i _. + + r i 4 it ... ..s + :....• �. i i� t.. a r. t tK .: + of o��yui u A EPA i�o a uu u wu i of form 1) 222 a . r. goo +i + i� ) II II mI t I@ 1 A a m cw , ,IA i u w w ! x �y. R " a .. ful a ! P « tlMi� IN a a W t. I ^a • s r ® :� e• is MM I i p: P ' 1 ONE IMMIOMM e Irk �M! Mo E IMMIMMOOK EPA I.D. NUMBER (oopyftmftm 1 of Form 1) OUTFALL NUMBER F nnAWWAd CONTINUED FROM PACE V•8 N O0243920057 f a 1. POLLUTANT 2. MARK "r 3. EFFLUENT 4. UNITS S. INTAKE ANI CA^S NO, e,ro- b crab. MA taM� DA1LY VALUE b. M tM 3A Y VALUE c. LOG M AYC;. VALUE a. LONG TERM A VALUE t No. ' a. n- b. d , OF ad 1 a0ai 2 M f daYaa 2 Maaa 1 Nan 2 1 Ya11 CCJMS FRACTION - PESTt 17P, x' 18P. PCB-1242 53469-21-9 19P.PCB-1251 X 110971 20P, PCB-1221 21P.PCB-1232 t22; PCB-1248 29 g 23P. 1 11 -5 24P. PM1016 x 12674-11-2 25P, 7crm 1-3+5.2 EPA F" 3510-2C{Ray. 24.5) E a P y 9, NIPDES Supplemental Information for McGuire Nuclear Station June 29, 1994 TABU OF CONTENTS OVERVIEW 1 STATION INTAKE 1 Surface Intake 1 Subsurface Intake; f NUCLEAR SERVICE WATER 1 Containment Spray Heat Exchangers CONVENTIONAL LOW PRESSURE SERVICE WATER 2 FIRE PROTECTION SYSTEM 2 OUTFALL tiff Condenser Cooling Water OUTFALL 0 Water Treatment Room Sump 4 Filtered Water System Drinking Water System 5 I emi erali ed Water System 5 Turbine Building Sumps Diesel Generator Room Sumps Lab Drains ' S Condensate Polisher Backwash Stearn Generator Blowdown Wet Layup 7 Auxiliary Electric Boiler Blowdown 7 Groundwater Drainage System 7 RC System Unwatoring 7 Closed Cooling Systems 7 Standby Shutdown Facility 7 Stearn Generator Cleaning 8 Miscellaneous System/Component Cleaning _ 5 Landfill Leachate Vehicle Maintenance Facility OUTFALL 00 Vehicle Maintenance Facility 10 McGuire Office Complex 10 Nondestructive Examination 10 Medical Facility I 1 OUTFALL 004 11 Floor, Equipment, and Laundry Drains 12 Ventilation Unit Drains 1 Chemical Volume and Control System 12 Chemical Treatment in WM System "12 OUTFALL 005 13 Standby Nuclear :service Water Pond 13 Administrative Building Drains 1 RC System Unwatering 13 Filtered Water 1 HVAC Unit Drains 1 Yard Drains 14 Reverse Osmosis 14 OUTFALL 006 14 APPENDIX l Connection to Charlotte/MecklenburgCharlotte/Mecklenburg Utility Department 15 APPENDIX Il: Hazardous Substance List for Section 311 Exclusion 15 OVERVIEW USX# TMAW WRI MOM 10 Cf�A Part 50. The 'following is a t6W description of th6 maW� soferns. gjTAjj�LN INIAq NUCLEAR SERVICE WATER The RN is a safety related once through noncontact cooling water system, The Nuclear Service Water System supplies cooling water to various heat loads in both the primary and secondary portions of each unit. There are two (2) pumps per unit (four (4) pumps total) that are capable of delivering 17,500 GPM per pump. The water supply is from Lake Norman or the Standby Nuclear Service Water Pond (NSW), Water from Lake Norman is supplied by the RC system from the surface intake or by the LLI. The normal source of water is the LLI system. The normal discharge is to Lake Norman through Outfall 001 The SNSWP is a 34.9 acre pond designed to provide cooling water for the safe shutdown of the station in the unlikely event that Lake Norman becomes unavailable. The level in the pond is maintained, per 1 across dirt or grass to yard drains. This test is performed only if the system is being chlorinated (i.e., the jockey pumps are operating and the chlorine cylinders are open). Other routine tests are performed periodically to ensure operability of the RF/RY System. These tests include pump head curve and pump starts in which the water is recirculated back into take Norman. Water is also pumped through the system to ensure there are no obstructions in the lines, which discharges water across paved lots, and grass to the yard drain system: OUTFALL 001 Inputs to Outtall 001 include discharges from RC, RL, and RN. Outtall 004 combines with Outfall 001 before discharging into Lake Norman. Condenser Cooling Water The RC System is a once through noncontact cooling water system that removes heat rejected from the main and fe dw ter pump turbine condensers and other miscellaneous heat exchangers. Each of the two (2) power generating units has four (4) RC pumps for a total of eight (8) pumps: The flow for each unit depends on the number of pumps operating as shown by the following table: Number of Pumps Operating Total Flow/Unit (GPM) 1 254,000 640,000 3 867,000 4 1,016,000 The operational schedule of the pumps of each unit is a function of the intake water temperature and the unit load. At 100% load and with the intake temperature near its summer high, three () and sometimes four (4), RC pumps per unit are used. Curing winter when intake temperatures are lower; three (3) pumps may be used. Condenser cleaning is accomplished by mechanical means (trade name'"Amertap°"). This system circulates small sponge rubber balls through the condenser continuously. It may become "necessary at times to institute chemical control for macroinvertebrate infestation, general corrosion, and microbiologically induced corrosion (MIC). Chemicals anticipated to be added include chlorine (sodium or calcium hypochlorite), organic biocides, dispersants, and corrosion inhibitors. The corrosion inhibitors may include nitrites, carbonates, triazoles, borates, triazoles, and azole . Discharge concentrations will be maintained below permitted discharge levels. A 316(a) study was submitted August 9,1985 and a 316(a) variance was granted October 18, 1 8 . Plant operating conditions and load factors are unchanged and are expected to remain so for the term of the reissued permit. A Lake Norman aquatic environment maintenance monitoring program was implemented July 8, 1987 Duke Power Company is not aware of any changes to plant discharge or other discharges in the plant site area which could interact with the thermal discharge or to biotic community of Lake Norman. Duke therefore requests a continuation of the existing 316() variance. OUTFALL 002 Outfall 002 discharges treated wastewater from the Conventional Wastewater Treatment (WC) System through a Parshall flume to the Catawba River below Coans Ford Dam. The WC System consists of a concrete lined initial holdup pond (IHP, 200,000 gallons), two (2) parallel clay -lined settling ponds (2.5 million gallons each), and a concrete lined final holdup pond (FHP, 1 million gallons). Normally, inputs are received in the IHP but can be routed directly to an in-service settling pond. The IHP serves as a common mixing point for all wastewater, a surge dampening function to the remainder of the system, and also allows the heavy solids to settle for periodic Solids removed from the lHP are dewatered and i die, luiltilIVIJ iprusunt In tills )F�dblu t5tfedjll� I flu urallis in in jmp� Filtered Water System Water from Lake Norman is treated for process use. Filtration is performed by diatomaceous earth (DE) pressure filters. Water from the RI_ System is treated with chlorine for disinfection purposes and polyelectrolytes to coagulate colloidal material. The water is filtered through one (1) 750 GPM DE filter while a second filter is in standby. The filtered water is stored in three (3) 42,500 gallon Filtered Water Storage Tanks. When the administratively determined pressure differential across the filter is achieved, the filter is backwashed thereby removing the filter cake. The system utilizes approximately 200 pounds of DE and 32 ounces of polyelectrolyte per day. Backwashing requires approximately 3,000 gallons of water per day. The backwash water containing the waste DE and filtered solids is routed to the WC System, where solids are accumulated and ultimately placed in a permitted landfill. Approximately every 2-5 years, citric acid is use to clean the filter elements because of tube fouling, The approximately 110 gallons per cleaning of waste citric acid is treated for disposal through Outfall 006. 4 Drinking Water System The Chinking Water to the McGuire Site is applied by the Charlotte/Mecklenburg Utility Department: Demineralized Water System The Demineralized Water System (YM) provides high purity water for makeup to the primary and secondary systems and for laboratory usage. There are two (2) carbon filters, one (1) 300 GPM reverse osmosis unit (RO), ;and two () mixed bed regenerative demineralizers, with a system design flowrate of 475 GPM. Normally, two (2) carbon beds, the RO unit, and one (1) demineralier are in use while the other demineralizer is being regenerated or is in standby. The YM System takes suction from the YF System. The carbon filters remove organic substances and any residual chlorine. These filters may be cleaned by bckwahing, steam cleaning, or rinsing. The cleaning may occur as often as twice per month and is discharged via the water treatment room sump to the WC System (Outfall 002). For the cleaning, 15,000 gallons of water are used. Each carbon bed is replenished every six to twelve months. Waste carbon is routed to the WC System or collected and deposited directly in a permitted landfill. The RO unit provides pretreatment to the demineralizers. It consists of an integral series of filters and the RO unit itself. Sulfuric acid is injected to the process stream to maintain propel' pH. Depending upon system demands, the finished water (300 GPM) is supplied to the demineralizers. The reject flow (150 GPM) would be diverted to the WWCB (Outfall 005) The RO units are periodically cleaned based on performance standards. The cleaning process may involve use of surfactants, acids, and caustics. When this cleaning is conducted, it would be discharged via the water treatment sump to; the WC System (Outfall 002). Regeneration of one deineralizr may occur as often as every month. To regenerate the resins, sulfuric acid and sodium hydroxide are flushed through the bed. At the present time, each normal regeneration takes approximately 90 gallons of 93% sulfuric acid, 400 gallons of 50% sodium hydroxide, and 75,000 gallons of YM. The amountsof required acid and caustic will vary as dictated by operational requirements. Based on annual resin analysis results, the beds may be surfactant cleaned, caustic soaked or brine soaked. The water from these cleanings is discharged via the water treatment room sump to the VC System. The d miner liter beds are replenished approximately every six (6) to eight (8) years. Waste resin is routed via the water treatment room sump to the WC System, and is ultimately placed in a permitted landfill: Turbine Building Sumps The Turbine Building Bumps (TBS) receive inputs from leakage, drainage, and liquid wastes from equipment and floor drains located in the Turbine Building. Inputs include' Groundwater Drainage Sumps (W ),' Auxiliary Electric Boiler Blowdown, Steam Generator Blow own, filter air handling units, Diesel Generator Room Sumps, tab drains, floor washes, normal condensate system leakage, and condensate polisher backwashes. Other passible inputs include RC Unwatering, and steam generator wet laup draindown. ;Periodically, condensate from air compressors is processed through an oil water separator and routed to the TBS to the WC IHP. Chemicals that may be present in the TBS include the following: ammonia boron hyrazin morpholine ethanolamine microbiocides corrosion inhibitors janitorial cleaning products' miscellaneous system/componentcleaning products laboratory chemicals The TBS normally are routed to the WC System. However, if radioactivity limits are exceeded, these sumps can be routed through the Radwaste Liquid Waste Monitoring ( M) System (Outfall 004) or directly to RC (Outfall 001) depending on the treatment needed.. Very low levels of radioactivity' can be routed to the WC System. All radioactivity is accounted for and regulated by the NRC. Diesel Generator Room Sum The Diesel Generator Room Sumps (KD) receive inputs from the leakage or drainage of the four (4) diesel generator engine coaling water systems, fuel oil, and lubrication systems. Each diesel generator room has two (2) sumps. The smaller sump has a volume of 600 gallons and one (1) pump with a capacity of 25 GPM. ' The larger sump has a volume of approximately 4,000 gallons, two () pumps with a capacity of 450 GPM, and a third pump with capacity of 50 GPM. Fuel oil and lube oil is collected in the "drip tank" which is then' pumped to the Waste Oil Storage Tank (WOST), Each of the four (4) engine cooling water systems has a volume of 500 gallons. The systems may be treated with various corrosion inhibitors Which may include nitrites, hydroxides, borates, silicates, triazoles, and azoles. Miscellaneous biocides and dispersants may also be added. Each system is drained and flushed to the WC System, approximately once per year. Additionally, the fuel tail may contain residual biocide, to reduce bacterial breakdown of the oil. Lab Drains There are several analytical laboratories within the plant, which drain to sumps that discharge to the WC System. The discharges contain typical laboratory chemicals used in analytical procedures. condensate Polisher Backwash Over time, trace impurities in the condensate system increase in concentration. In order to maintain the integrity of the condensate system, the condensate is processed through powdered ion exchange resin. A condensate polisher is backwashed on an average of twice per month The backwash contains approximately 15- 0 cubic feet of resin, 120 milliliters of polymer, and requires approximately 10,000 gallons of water. The resin may contain trace quantities of radioactivity from primary to secondary leaks. It can be discharged to the WC System or to the Liquid Waste Monitoring System (W) depending on levels of radioactivity: Steam Generator Blowdown Each of our four () generators per unit has a volume of 40,000 gallons. Each unit is provided with a Steam Generator Blowdown Recycle System. Steam generator blowdown is continuous at a rate of approximately 5,000 gallons per hour to maintain acceptable steam generator water chemistry. The blowdown is directed to either the condensate polisher demineralizer or to the steam generator blowdown demineralizer. If the blowdown water quality is unacceptable, it is rejected, It can be discharged to the WC System or to WM System depending on levels of radioactivity. During normal operation hydrazine is added to the condensate system for oxygen scavenging, The hydrazine concentration is maintained within a concentration range of 2-200 ppb. Ammonia is added for pH control. The steam generators and hotwell are placed in wet layup it a unit is to be in cold shutdown for two days or more. Each until is normally shutdown on a 12 month cycle for refueling. Wet lau efficiency, the cooling system is flushed annually to the SSF which drains to the We System. Steam Generator Cleaning Each electrical generating unit contains'four {} steam generators that have a capacity of approximately 40,000 gallons each. There have been no chemical cleaning of the steam generators to date, but the remote possibility exists that cleaning may be required. Should this need arise, more ihformation will be provided to the Department seeking approval to conduct the cleaning process. Miscellan s SysLem/Compgnent Cleaning Other; systems/components (such as strainers, HVAC heat exchangers, etc.) may need to be cleaned periodically because of scaling or plugging. Other components will be cleaned as necessary for various fouling problems. Solutions utilized may be dilute acids or caustic sodas. Chemicals utilized by these methodologies, alone or in combination, include the following: Alkaline Boilout Solutions non-ionic surfactants anionic surfactants cationic surfactants sodium hydroxide soda ash trisodium phosphate disodium phosphate monosodium phosphate sodium bicarbonate Acid Solutions hydrochloric acid sulfuric acid phosphoric acid formic acid hydrxyacetic acid sulfuric acid citric acid nitric acid Acid Solution Additives thiourea ammonium bifluorid oxalic acid EDTA Compounds and HEDTA pH adjusted tetra -ammonium EDT tetra -ammonium EDTA di -ammonium EDTA hydroxyethylenediarninetriacetic acid tetraodium EDTA Miscellaneous ComDounds chlorothene sodium chloride potassium permanganate aqua ammonia ammonium persultate antifoam sodium sultite chlorine These solutions are described in the Development Document for Effluent Limitations Guidelines and New Source Performance Standards for the Steam Electric Rower Generating Point Source Category. (Development Document): The wastes from these cleanings will be analyzed to determine prosper waste disposal. These cleaning solutions will be released through the WC System or WM System depending on levels of radioactivity, Landfill Leachate The McGuire Site operates a synthetically lined sanitary waste landfill (Permit 60-04), which is located on Duke Power property, on the opposite side of Highway 73, from the McGuire Plant. The landfill began operation in January 1992, The maximum active area of the landfill in current estimated usage is to be 0.45 acres, but the active area can be expanded to approximately 5 acres, as is needed. The landfill accepts only nonhazardous solid wastes, which contain no free liquids. The leachate collection system is designed to collect rainwater that falls directly onto the active portion of the landfill. In the active landfill cells, a perforated pipe collects the leachate which is then routed to the leachate collection pond. The leachate system is designed to collect a maximum of 63,O00 gallons. From the leachate collection pond, the leachate is pumped to the WC System Initial Holdup Pond. The Leacate will also contain pump seal water. The estimated average flow from the landfill leachate system is 120 GPD. The leachate is sampled semi-annually and submitted to the N.C. Department of Environment, -Health, and Natural Resources, Solid Waste Section, per Landfill Operation permit conditions. Vehicle Maintenance Facility The Vehicle Maintenance Facility conducts maintenance on all company automobiles and heavy equipment. To add weight to some equipment, water is added to the tires. To prevent the water from freezing, calcium chloride is added. Approximately 500 gallons of this solution are generated each year. As it is generated, it is transported to the initial hold up pond and 'discharged, C UTFAL.L 003 Outfall 003 discharges treated sanitary waste from the Sanitary Waste Treatment System (WT) to the WWCB. The WT System is four (4) cell aerated lagoon system. The system was designed to process domestic sewage from restroom, showers, lab drains, and site cafeterias. The lagoon provides a 5-day retention time and will allow for variable level discharge, The wastewater effluent from the aerated lagoon flowsthrough a sand filter, chlorinators, a chlorine contact chamber, and a parsall flume before discharging to the WWCR. The lagoon ;is lined with a flexible synthetic material such as hyp lon. It is divided into four (4) cells by a curtain material such as a polymer coated polyester with a weighted chain ballast and floatation collar. The first cell provides for a two day retention time and is kept in complete suspension by surface 9 flow rate of 40,60 GPD, �5�,000 G-PD, and 64,000' GPD�-�- tiv'ely.• In addit' wastewa The i 10 w contains ammonium thiosulfate and sodium sulfate. Other developer replenisher working solutions and/or fixer and relenisher working solution with other constituents may be substituted in the future: Silver is recovered from the processor flow before it enters the waste stream. The developing process is operated a maximum of 30 hours per week (4.3 hours/day) but averages 6 hours per week (1.2 hours/day), Operation of the developing process results in:a maximum of approximately 1041 GPD, with an average of 290 GPD; of photographic waste discharging to the WT System. The flow from this system is very intermittent. Medical Facility The primary effluent from the Medical Facility is domestic waste, but a minimal inflow from the Medical Facility X-Ray process (i.e. photographic wastes) may also discharged. The chemical nature of this waste stream does not differ substantially from the more voluminous processing unit located in the OA Vault. Silver is recovered from the process flow before it enters the waste stream. The X-Ray processor operates intermittently, Monday through Friday. The average flowrate 110 GPD, and the maximum flowrate 300 GPD, of photographic waste discharging to the WT System: O TF LL 004 Outtall 004 discharges flow from the Radwaste Liquid Waste Monitoring System ( M). This flow combines with the RC before discharging through; the concrete discharge structure (Outtall 001) into Lake Norman as a batch discharge. All radioactive and potentially radioactive liquids are collected, segregated and processed prior to release. These effluents are classified as recyclable or nonrecyclable liquids. Recyclable liquids are recirculated back to the process streams. Nonrecyclable liquids are collected and processed to Nuclear Regulatory Commission (NR) requirements (10 CFR Part 20 and 10 CFR Part 0) prior to release with the type of processing depending on the type of waste. The maximum discharge rate from WM is 120 GPM. The batch discharge flow for a Waste Monitor Tank Release is a function of activity level, the number of RC pumps in operation, and the resultant boron concentration in take Norman'. The WM collects waste in three (3) subsystems (floor and equipment drains, laundry waste, and ventilation unit drains). Chemicals that may be present in the WM System include: boric acid borax nitrate ammonia morpholine ethanolamine lithium hydroxide ethylene glycol " corrosion inhibitors hydrazine chlornelhypchlorit hydrogen peroxide pump bearing cleaning chemicals laboratory chemicals surfactants polyelectrolytes miscellaneous system/component cleaning waste tool and component decontamination waste janitorial cleaning products 11 R The TBS can become contaminated with radioactivity. When this occurs, it can be pumped to the Floor Drain Tank (FDT) or to the WM release point in the RC crossover line. Any chemicals listed as being in the T S may also be present in WM when the sump is routed to WM. Any solids generated in the treatment process are solidified or deatered and transported to a State and NRC licensed low level radioactive waste disposalfacility. •r sRMa • i . Ventilation Unit Drains The Ventilation Unit Condensate Drain Tanks (VUCDT) collect condensate from air handling units from each reactor building. Each VUCDT has a volume of; 4,000 gallons. This waste typically has little radionuclide contamination and contains a small amount of boron from the ice melt. The waste is sampled for radionuclide contamination, If the results of this sampling indicates the need, the VUCDT content are transferred to the FDT for processing (Outfall 004) If no need for processing is indicated, the waste is released from the VUCDT via the RC to Lake Norman (Outfall 001). Twice per year a portion of the ice in the annulus in the reactor building is melted and drained to the UCDT. The VUCDT could contain boron from the ice melt. Chemical Volume and Control System Chemical Treatment in WM System casionally, it is necessary to oxidize sodium nitrate in the waste monitor tank using hypochlorite (calcium or sodium) or catalyzed hydrogen peroxide. When this treatment is performed, the waste monitor tank is isolated, recirculated, and mixed. The tank is sampled to ensure that the nitrate has been oxidized. The addition of the oxidation chemicals should result in a small residual of nitrate in the tank, since the 12 oxidation chemicals will not be stoichiometrically added in excess. OUTFALL 005 Filtered Water Filtered Water (YF) storage tank sediment on the bottom of the to going to the SNSWP. Dn the service building root are periodically flushed to remove any s. Those flushes go to root drains which discharge into yard drains 13 ;9M . 14 APPENDIX I Connection to Charlotte/Mecklenburg Utility Department The McGuire Nuclear Site will be connecting all sanitary sewer systems to the Charlotte/Mecklenburg Utility Department (CMUD) by 1997. This project will be completed in phases. In the first phase, the Training and Technology Center's (TTC's) industrial and sanitary wastewaters will be separated. The TTC"s industrial wastewaters will be routed to MNS's Outtall 002 (WC) and the Sanitary wastewaters routed 'to MNS's Outtall 003 (WT), The Training and Technology Center (TTC) Outtall 001 under permit number NCO026255 will be eliminated completely by April 1, 1995. The remaining TTC Outtalk (002, 003, 004) will be eliminated by the end of 1995, The industrial wastewaters from the McGuire Office Shop, McGuire Office Complex, and the Nondestructive Examination building will also be routed to MNS's Outfall 00 (WC). This phase will be completed by the end of 1995: The final phase of the project is to connect MNS's sanitary C uffall 003 to CMUD. Therefore, MNS Outtall 003 (permit No. NG0024 92) will be eliminated by 1997. The industrial wastewaters from the Vehicle Maintenance Facility and the Medical Facility will also be routed to MNS's Outtall 002 (WC) during the final phase. As part of this phase, a new car wash will be installed at the Vehicle Maintenance Facility. The maximum flow from this car wash is expected to be 2,000 GPD, with an average flow of 700 GPD. The wash water will drain to a collection sump, then through an oil/water separator into the WC System (Ouffall 002). The proper NPDS permit modifications and construction permits will be obtained, as required, prior to construction and operation. 15 APPENDIX If Hazardous Substance twist for Section 311 Exclusion The following is a list of the hazardous substances located on site in response to 40 CFR 117.12 and 40 CFR12221 to qualify for a Section 311 exclusion under the Clean Water Act. Pollutant s Quantity (Ibs) Use Acetic Acid 39 Lab Ammonia 1,284 pH Control Ammonium ,Hydroxide 2,147 Lab Ammonium Chloride 16 Lab Chlorine (Gas) 2,550 Disinfection Chloroform 23 Lab Ferric Nitrate 7 Lab Hydrochloric Acid 61 Lab Hydrofluoric Acid 1 Lab Hydrazine 17,7 pH Control Monomethylamine 1 Lab Nitric; Acid Phosphorus 725 2 Lab Lab Potassium Hydroxide 62 Lab Potassium Permanganate 26 Lab Sodium 02 Lab Sodium Risulfite Sodium Fluoride Sodium Hydroxide 1.3 8 391 Lab Lab Lab Sodium Hydroxide: 63,801 Demineralizer Regeneration, Neutralization Sodium Hypochlorte 2,300 Disinfection, Cleaner Sodium Nitrate 1,273 Lab Sodium Phosphate, dibasic 6 Lab Sulfuric Acid Sulfuric Acid Values represent rnaximUm uantities ll 207,117 82 # Demineralizer Regeneration Lab q u Ua y on-si e at any given time and do not necessarily retlect quantities discharged. Various amounts of these substances may go to the WC System (Outfall 002) for treatment due to use in site laboratories, small leaks, spills, or drips from closed loop systems. Hydrazine is not included in the Section 311 hazardous substances list. It is included in this table because, it can be found in the list of hazardous substances In 40 CFR302.4.- 16 SCHEMATIC OF WATER FLOW STANDBY NUCLEAR DUKE POWER COMPANY sERYiCE wATER DRATSTORM INS McGU1RE NUCLEAR STATION ND ( NPOES PERMIT # NCO024392 t t LAKE I NUCLEAR SERVICELAKE 20000 LOW LEVEL NO N INTAKELLI) WA (RN) NORMAN r I CONDENSER COOLING t tnas FIRE WATER (RC) PROTECTION -i i LOW PRESSURE SERVICE WATER ( IRL ) t I FILTERED ' REVERSE EMINERAIJZED REACTOR RA T E WATER (YF) OSMOSIS UNIT WATER SYSTEMS (RO) (YM) (NC) ( ) ASH tf WASM u+A16RM f i ________________ ----- WATER SE ND Y � TREATMENT AUX Y TURBINE BLDG. w SUMP STEAMGEN. SUMPS t TM ( SLOWDOWN LEAKAGE &IAN LL 1 DRAINAGE t LEACHATE w ... .... •: NCIE .::; ...,• r DIESEL GENER. , SANJTARYWASTE htl�l I SUMPS ( ) EA920 FACILITY I !__v____�____®—___—�__.__—_ION --------------------------------------------- WASTEWATER iIDRAINS CB) CATA WBA — NORMAL FLO A RIVER A * O A ( NOTE: BE DI A O ) c IN GPM FMAVISRAMCOMWIONS EC?C PRIORITY PROJECT: No To: Permits and Engineering Unit Water Quality Section Attention: Sean Doris Date: August 25, 1994 NPDES STAFF REPORT AND RECOMMENDATIONS County: Mecklenburg NPUE9 Permit No.: NCO024392 MRO No.: 94-17 PART I - GENERAL INFORMATION 1. Facility and Address. McGuire Nuclear Station c/o Duke Power Company 13339 Hagers Ferry Road MC03A5 Huntersville, N.C. 2 078 2. Late of Investigation: August 22 1994 3. Report Prepared By: Michael L. Parke., Environ, En r. II 4. Person. Contacted and Telephone Number: Norma. Atherton, (704 875-5963. 5. Directions to Site: From the intersection of Hwy 16 and Hwy. 73 in eastern Lincoln County, travel east on Hwy. 73 ^ 3.2 miles. The entrance to the McGuire facility will be on the left (north) side of Hwy. 73. . Discharge Point(s), List for all discharge Points: outfall 001 & 004 002 & 005 00 Latitude: 35° 25' 10" 35* 5' 4 " 35' 25' 43" Longitude. 80° 56' -A to 8 ® 7' 21" 80* 57, 1',3ii Attach a. U8C8 Map Extract and indicate treatment plant site and discharge Point can map. USGS Quad No.: F 15 N ' 7. Site size and expansion area consistent with application: Yes. No expansion is proposedat this time. If necessary, sufficient area is available for WWTP construction. . Topography (relationship to flood plain included): Gently rolling slopes ( 10%). The site is not located within a flood plain. 9. Location of Nearest Dwelling: Norte within 1000 feet of the site. Page Two 10. Deceiving Stream or Affected Surface Waters: Catawba River (Lake Norman)-outfall 001 & 004; Catawba River '(Mountain Island Lake)-outfall 002, 003, 005 a& Classification: -Its, E (outfall 001 & 004) S-Its (outfall 002, 003, 005): ID. River Basin and Subbasin o.: Catawba 030832 c. Describe receiving stream features and pertinent downstream uses- outfalls 001 & 004: The receiving waters are used extensively for primary and secondary recreation and as a municipal raw water supply (Town of Huntersvalle located t 3 miles northeast of the discharge). outfalls 002, 003 & 005: The receiving, waters' are also used for primary and secondary recreation and as a source of municipal water supply, however, the water intake (City of Charlotte) is >10'miles from the point of. discharge. PART II - DESCRIPTION OF DISCHARGE AND TREATMENT WORKS 1. a. `volume of Wastewater: * *See breakdown of the various waste streams and their flow rates an Permit application. b. What as the current permitted capacity. There is no flow limit for any outfall an the current Permit. C. Actual treatment capacity of current facility (current design capacity). Duke Power is proposing to reroute several existing outfalls from their nearby Training and Technology Center (NC0026255) into WWT facilities on the McGuire site. Prior to the reissuance of the Permit, documentation as to the hydraulic capacity of the existing treatment facilities and their ability to accept the additional waste streams should be provided. do Date(s) and construction activities allowed by previous ATM's issued an the previous two years. P. e. Description of existing or substantially constructed WWT facilities. outfall 001-no WWT facilities are prop*ided. outfall 002-existing treatment consists of pH adjustment and coagulant addition followed by an initial hold-up pond. (0<200 MG capacity), two (2) parallel earthen settling ponds (2.5 MG capacity), and:a concrete lined final hold-up pond (1.0 MG capacity), outfall 003-a four (4) cell aerated lagoon followed by a_sand filter, tablet disinfection with contact tank, and a parshall flume, outfall 004-no existing WWT facilities, outfall 005-a 13.4 acre settling pond with a surface skimmer. f. Description of proposed WWT facilities. N/A Page Three c. Possible toxic impacts to surface waters. This facility has 'consistently passed all toxicity tests performed since 1990 (see supplemental information submitted with the application for a list of all additives that may have toxic characteristics). . Pretreatment Program (POTWs only): Not Needed. 2. Residual handling and utilization/disposal scheme: . If residuals are being land applied specify DEM Permit No. WQ0002877. Residuals Contractor: McGuire personnel Telephone No. (704) 875-59 3 (Norma Atherton). h. Residuals stabilization: unknown C. Landfill. residuals generated in the WWT;system that discharges at outfall 002 are disposed of in a landfill permitted by the Division of Solid Waste. 3. Treatment Plant Classification: Less than 5 points; no rating (include rating sheet). outfalls 001, 004, and. 005-no rating; outfalls 002 & 003-Cl-ass II. 4, SIC Code(s): 4911 Wastewater Ccde(s): Primary:14, 02 5. MTU Code(s): outfall 002-51 2; outfall 03-31103 PART III - OTHER PERTINENT INFORMATION . Is this facility being constructed with Construction Grant Funds or are any public monies involvec? (municipals only)? No . Special monitoring or limitations (including toxicity), requests: None at this time. 3. Important SCC/JOC or Compliance Schedule dates N/A . Alternative Analysis Evaluation a. Spray Irrigation: Insufficient area. b. Connect to regional sewer system. A connection of all sanitary waste streams at both McGuire and the nearby Training and Technology Center to the CMUD surer collection system is scheduled to occur by 1997. C. Subsurface.: N/A Page Four' PART IV - EVALUATION AND RECOMMENDATIONS Duke Power Company (DPC) has requested renewal of the subject Permit. There have been no changes or modifications since the Permit was last issued, however, there are several proposed changes that need to be addressed at Permit reissuance. It is also our understanding that this Permit will be placed on held until July, 1995, at which time it will be in line with the`Painswide permitting schedule. Below is `listed the activities proposed by DPC that will require approval and/or a modification to the NPDES Permit prior to implementation. 1. DPC intends to eliminate all of the outfalls from the nearby Training and Technology Center {TT} by either connecting the waste streams to existing McGuire treatment facilities. Eventually, all sanitary waste generated at either McGuire or the TTC will be treated by CMUD (projected to occur by 1997 Industrial wastewater from the TTC will be routed to Mcuire's outfall 002 (by the end of 1995) and the sanitary wastewater will be rerouted to McGuire's outfall 003 (by April, 1995). The rerouting of the sanitary wastewater is expected to occur prior to Permit r'eissuance. A modification of the current Permit to include the additional wastewater is unnecessary since Mcc-'Zuire's outfall 003 and the TT''s outfall 001 are identical waste streams, however, DPC will need to demonstrate that capacity does existatMcGuire to accept the wastewater. 2. Assorted industrial wastewaters from the McGuire office and. Office Shop and the Nondestructive Examination Building will also be routed to Mc uire's outfall 002. . A car wash is planned for the garage at McGuire by 1996'and the effluent will be treated and discharged through outfall 02.` . Cutf ,l l 003 (sanitary wastewater)- is projected to be eliminated by 1997 (connected to C UL) . DPC had requested that outfall 00 (which has not been used to date) remain in the Permit, however, since the wastewater discharges through outfall 002, it is recommended that the waste stream described in the application for out -fall 006 be included in the waste stream for outfall 002 and that outfall 006 be eliminated from the Permit. DPC will need to submit a revised application authorizing this change, Page Five The renewal application appears to contain a more descriptive narrative of the different` sources of wastewater that may enter the various McGuire treatment facilities than found in previous applications, Based on this information, additional monitoring and ,or limitations may he necessary pending TSB's review of this information. r � Signature of Report Prepares Date Waver Quality R' icnal supervisor Da e ""t' Ff� ��",�:. `'�4 `� t£IiZr �,,.dt `�1y� I i �., �1 ```� •+,1'}�( i {C. - 4�� ' "' �� µ 7 � � ,,� pp � �+ 4 ir�r ti �ot`'`�,�✓ !Rf (1' /'f{' I' f -i � �" r (`` �t,/L'' r i ✓t 4 r 4 1 OU is AV 61 ' - • ` }�'"{ CIA O j .. �_ � 1 � � j °�v� � � P'loj 3 'em ry a "uO el ~ 4t 4 b � a t - 4 .'* \ / k 1 F{ r r1 41 a f }} �) t r II 00 ; TOO .00 ~ ` �� �� it � f t� , � �, 1 :~ � � ✓ C earjaW v/ r(t off rr ef State of North Carolina D pa�µtm nt of Environment, Health and Natural l Resources 4, IL. D,,vision of Environmental Management James B. Hunt, Jr., Governor Jonathan B. Howes,' Secretary A. Preston Howard, Jr., P.E., Director %". ' . 01 r' JJI. 1 994 Norma Atherton Duke rower Company 0twisa t 0101 13339 Hagers Perry Road M 1r 3A Huntersville, NC 2807 Subject: NPLES Permit Application Permit No. NCO024392 McGuire Nuclear Station Mecklenburg County Dear Ms. Atherton. This is to acknowledge the receipt of the following documents on July 5, 1994: - Application Form d Package. - Application Processing Fee Of $ 00.00 This application has been assigned to Sean D. Goes 919-733- 083 of our Permits Unit for review. You will be advised of any comments, recommendations, questions or other information necessary for the review of the application. I am, by copy of this letter, requesting that our Regional Office Supervisor prepare a staff report and recommendations regarding this discharge. If you have any questions regarding this application, please contact the review person listed above. cerel, t 6 Goodrich, Supervisor NPDES Croup cc P.O. Box 29535, Raleigh, North Carolina 27626-0535 Telephone 919-733-7015 FAX 919-7 3-2496' An Equal Opporlunity Affirmative Action Employer 0% recycled/ 10% post -consumer paper Duke ftwer Company Generation Services Uefiartment 13339 ffa8ers Ferry Road 11untersvd1e, NC28078-2929 Ott . j U POWF � t 1Uji tf , JUL sa; June 3, 1994 NMI Nis. Coleen Sullins ti � tt� � ��,� . Eric( �d yy tt g fi uA�fn �F3 B9�d�Y Permits and'Engineering Unit North Carolina Department of Environment, p" y ', Health and Natural Resources P.t. Box 29535 Raleigh, North Carolina 27626-05 5 Subject: NPDES Permit Renewal, NC 0024392 McGuire Nuclear Station, Mecklenburg County File: MC-72.13 Certified: P 384 366 919 Dear Ms. Sullins: Duke Power Company requests that the subject permit be renewed and reissued. The above referenced permit expires January 1 1995: Attached is the permit renewal' application package which includes the following items: 1. EPA Form - including Topographic and Site Maus (3 copies). 2. EPA Form 2C - Including Priority Pollutant Analysis, "water Flaw Diagram, d Supplemental Information (3 copies). . Check in the o t of $400.44 for the Permit Processing Fee. Please review this application package at your earliest convenience and send us a letter confirming its completeness. As required by CS 143• 15.1 C), this permit application, for renewal is being submitted at least 180 days prior to permit expiration. The McGuire Nuclear Site (which includes the 'gaining and 'Technology Center, NC a26255) will be connecting all s sewer systemsto the Charlotte Mecklenburg Utillity Department (C UD b 1997. We request that when you are drafting the new permit, you consider the following changes which are under development for McGuire: 1. in the first phase, the Training and Technology Center's (TTC's) industrial' and sanitary wastewaters will be separated. The TTC's industrial wastewaters will be routed to M `fire's Outfall 002 (Conventional Wastewater Treatment). The sanitary wastewater will be routed to Mc fire's Outfall 003 (Sanitary Treatment). The TT 's Outfall 001 will be eliminated completely by April 1 1995 The remaining T'TC Outfalls (002, 003, and 004) will be eliminated by the end of 1995. . The industrial wastewaters from McGuire Office Shop, the McGuire Office Complex, and the Nondestructive Exarrrination Building, `ll also be routed to Mc fire's Outfall 002 (WC). This phase will be completed the end of 1995. . In 1996, a car wash will be installed; at the McGuire Garage Facility. The discharge from this car wash will be routed to Mc fire's Outfall 002 (WC). . In the final phase of the project, Mc fire's sanitary tfall 03 will be connected to CMUD. Therefore, cGuire's Outfall 003 will'be eliminated by 1997, The industrial wastewaters from the Vehicle Maintenance Facility d the MedicalFacility will also be routed to MNS's Outfall 002 (WC) during the final phase, ; The proper NPDES construction permits will be obtained during this process as required. Also, we would life to point out that no data was available for Outfall 006 on Form 2C° This outfall was not used during this time period; however, there are plans to use this outfall in the near future. We would like tomaintain this outfall in the new permit that will be issued. Thank you for your assistance with this permitting request. Should you have any question or desire additional information, please contact Norma Atherton at (704) 87 -5963. Very truly yours, o . C er Technical Systems Manager GSD/Environmental Division Attachment cc w/Attac ent: Mr. Rex Gleason, NCDEHNR,Mooresville, N.C. w. Got4vIVtIRD FROM PAGF 9 t (ropy from Item I of Fame I ) '4 3 9' t t. F!Clit 3flFlt 2. SOURCE t. POL 4uT^NT Z. SouRcle } tj+prodtt 0 YES (tistatt such pollutants Wow) cjHo (Bo to Item VI.8) JA A Form 3510.2C (6-34) PACE 3 OF 4 CONTINUE ON REVERSE m x a Connection to Charlotte/Mecklenburg Utility Department The McGuire Nuclear Site will be connecting all sanitary sewer system to the Ch ttburg Utility Department (CMU) by 1997. This project will be completed in phases. In the first phase, the Training and Technology Centees (TTC`s) industrial nitary wastewaters will be separated. The TTC's industrial wastewaters will be routed to MNS°s Outtall 002 (WC) and the sanitaryat routed to MNS!s Outfall 003 ( . The Training and Technology Center ( C) Outtall 001 under permit number NCO026256 will be eliminated completely b April 1, 1995. The remaining TTC Outfalls ( ) will be eliminated by of 1 M. The industrial wast atrs fr the uire it ' Complex, and the Nondestructive Examination building will also be routed to MNS's Outfall 002 (WC). This phase will be completed by the end of 1995. The final phase of the project is to conned MNS!ssanitary Outtall 003 to CMU D. Therefore, MNS Outtall 003 (Permit No. NC 4392) will be eliminated by 1997. The industrial wastewaters from the Vehicle Maintenance Facility and the Medical Facility will also be routed to MNS"s Outfall 002 (WC) during the final phase. As part of this phase, a new car wash will be installed at the Vehicle Maintenance Facility. The maximum flow from this car wash is expected to be 2,000 GP©, with an average flow of 700 GP©. The wash water will drain to a collection sump, theri through an oiIlwater separator into the WC System (Outfalf ). The proper NPO S permit modifications and constructionpermits will be obtained, as required, prior to construction and operation. Ii� + x, 30 / aura * � j ON 53MtcS 0"Q2 780 t 17 C + Bawer t r �1 M r � Lt + + 1 t ° �' it Ca FRS rt>t"Ci! E S t8 1 y ["�_ a3 } Q'e784 J( 8M _- ti atdwett I44 ...^'". li`'•�... y�"tea."`•"^.,, it tion it it 700 .w i VU inn vy. em �56 � MCGUIRE NUCLEAR STATION C i U E POWER C;C?IVIPANIf 03 0" 57'30" 1504 1 1 V5 150,6 507 SCALE 1:24tO'} t U ! MILE 1000 0 BOOCt2wo 3000 4000 5000 6= 7OW FEET 1 5 0 1 XKOMETER EPA I.D. NUMBER (.*yr. #M i d Fo.m 1) OUTFALL NUMBER Form #PKOV*d OMB No. 20404M 'CONTINUED FROM PAGE V-7 NCO024392 001 i, POLLUTANT 2. MARK *X* 3. EFFLUENT, UNITS S. INTAKE (000"0 ANJ9 C=�O. 8.!!YIM LY VALUE 1b. Im DAY VALUE o, Lom=m VALUE -4. c LONG TERM AVG. VALUE ov*m I q*_ _2 n�OMDAI t Na OF 0, Cwww b. Mass d N F od 0)c4rcw**#on 1(2)Mm J1jCwwwft#on (2)M"s DLqLo�tan 2,M!n AN&Y8E$1 b*tl*n ti) Cw4w**ftn 10.0 MOALYM GC/MS FRACTION - BASEINEUTRAL COMPOUN-, (continued) 438, N-Nftro 1"dowjw*' X < 10 < 225.3 1 "911 IWDmy < 10 < 209.5 1 88- 448. Phomr0nm X < 10 225.3 1 uwi IWD*y < 10 4 (8"l-8) 468, pf" x < 10 < 225.3 1 Uan wofty < 10 < 209.5 1 (1 1,2,444- dowobw%ww x < 10 < 225.3 1 0911 twomy 4 10 < .5 1 I46B, GCIMS FRMA_ ET... -PESTICIDES i R Akft 2P. Wo-SHC x 31 3R bo"mc x L 4P. Qwmw9HC x Its"o-9) 6P. defts-SHC — x 31 op. chwroam x 7P. 4,4-DOT x OP, 4X-DDE (72-W91 W 4,4'DDD x 72- lop, owftin x i 1P.60hoi-Endosulron x 12R beto-ErwImfto x 13R Etxkx~ &00* x 11031-0741 14P.ErdAn x (72-2") 1W FJXW AW" x I7421-0341 16P, Hop%~ 7 —_ EPA Fwm 3510-2C (Rev. 2-M) PAGE V-9 CONT"ONPAGEV4 FOMAWwmd EPAL0,NU ( let FWM 1) OUTFALL NUMBER s ram, CONTINUED FROM PAGE V-8 NCO0 4392 001 7 � 1. POLLUTANT 2. MARK W 3. EFFLUENT 4. UNITS S. INTAKE AN NO.` e.re d e. e. IM ILY VALUE, b. 1M 3ii' Y VALUE c. LOG M A . VALUE s. LONG TERM A . VALUE { I t . 4F a. b. n NC. OF od 1 2 1 span tation1" ibnnM!ft_ ANALYSES GC/MS FRACTION - PETI 1 P. 1tb2#-Cr7-3 18P,PC$ 4242 i 5'3# 21-9 WQ PCS-1254 ( 11087 1 20P. 1221 11104.28.2 21P, PM1232 X 91141.98�5 22P,PCS-1248 12872+ 23P, 1 X 11 5 2#P, PCS-1016 x " 128i#-t1- 28P.T ` }( ($001-W2) EPA Form 10.2C (Rev. 2-W) 6 PAGE V-8 EPA 1,0, NUMBER (.7 ft. ft. I d F. 11 OUTFALL NUMBER FaMAWamd OMB Na. 204040M CONTINUED FROM PAGE V-7 NCO024392 OD2 AIWVMVVMW W40*- 1. POLL TANT 2. MARK *r 3. EFFLUENT A. UNITS 5. INTAKE AN=J 0. ww = ..w a. MM%MDAILY VALUE fcJ X b. Im DAY VALUE c. Lommm VALUE Concon- b. Man LONG TERM AVG. VALUE tNO.OF qt*- swt �V �b. I - No. oF a. - ad tl)corocw"#m .�ALUE (2) Man (2) Mw* ±N&ys% _.tgM_ O��� AWYM MIS GCIMS FRACT N - SMASEl/NEUTR L COMPOUN (continuod) x 10 < 0.05 Man lb/Day < 10 < 2094 1 440, Fhovw*mw x < lo---- < 0.05 U9fi bfDay < 10 < 200.5 1 45& P"M x < 10 < 0.05 UVA */Day < 10 < 209.5 1 Q L4� 468,1,2,4-Tri- x < 10 < 0.05 1uwl womy < 10 < 200.5 1 GC(MS FRACTION - PESTICIDES IP. A" x 2F. ak*WSHC x 31 3P. BtiCx Ap, q&-mW8Hc x 6P! BHC x 6p. C"ordw* x TP. 4,4'-DOT x (SC,29-3) $R 4,t4)OE x 72-W9 OR f,4AW 7245" loR txowm x 11P.s"wFodo"an x 12P, bets-Erdosubm x 13P. Endm#an "*to x (1031-07-81 x rz- isp, &Kft AW" x (7421-9UI 16p,HspWd4or EPA Form 3610-2C(Rw 2-85) PAGEV-9 CONTINUEONPAGE" EPA I.D. NUMBER (,mw ftm rom i of Pgrm it OUTFALL NUM M B CONTINUED FROM PAGE -8 N O024392 7-3i 1. POLLUTANT 2. R W 1 EFFLUENT 4. UNITS INTAKE (000OM4 �4NR N) O. a o C b IM VALUE b. IAA CI VALUE c. LQ G A VALUE . LONG TERM A VALUE )DAILY r 1. c e. n- b t NO. a+1 i lion M 1 a1 i kn ' i ca FRACTION • PESTI ,MS x 1C�2t-67.3 18P. 1242 219 19P, PCB•1254 X 11097 1 tlP.PM1221 41144 2&z 21P.PCOA232 1114l-l" 22P, PCB•1249 1 -29 9" 23P, PCB-1 11 2.5 20. PC&10% X 12Et71-1f-2 2SP. T 1-35-2 EPA Fdm 3510.2C (Roy, 245) E P \+ 9 III MIZArM-771 MEN am am um r rs� i iill MMN MEN MOMMOMENNE as + � MMM no am no ---ENIN EPA i.0. P CONTINUED FROM PAGE 11-7 1, POLLUTANT 2. MARK W 1 EFFi ia ANp Nlth. o.ra . cg a. IM DAILY VALUE b. IM t ed la-emmmmun Immom i c lon GCIMS FRACTION - ` SFJNEUTRAL COM U(continued) 43B,'N- rr*e il----- x < 10 0.002u0n INDOY lt2m)-- 448. X < 10 < 0. 1 lb/Day BC+-Oi-9 458 x< 10 < 0.002 1 ugn !lrJCkay i 46& i,Z,44et aox E-1-o-11 < 0.0m 1 1 U04 IbtDay GC/MS FRACTION - PESTICIDES IP. 2 2P. ONC 3t 3P. bsW8W ?C 3t 7 4P, 9WOW014C X Bitc 3i 6P. ONordam 67-74-9 7P.4,41-WT . 50.2�3 SR 4.V-DDE %C ±2- 9P. 4,4-DDD is 72-54 d lop.04 7-i ti"r29.7 42P. on X III 292 i3P. Endm9on iO3"7-6 ' i4R Enft x 72-20 8 i5P: AMOrldo x 7421-934 16P =. Q=L. 1 1 11 EPA Foon 35104C (Rev. 2-M) PAGE V-6 CONTINUE ON PAGE V-9 EPA LD NUMBER (CW **M tbM I of form 1) OUTFALL NUMBER ForM AWVV*d i I ON$ Na. 20404M CONTINUED FROM PAGE V-8 NCO024392 ON731 I. POLLUTANT 2. MARK *X* 3. EFFLUENT 4. UNITS S. INTAKE folAlmob ANRMLNU, cWp. - cob. a. IM DAILY VALUE b. Im 30 DAY VALUE , c. L G M AVG. VALUE a. LONG TERM AVG. VALUE tNo. oF a.Carowt- b.Mm dW�OF ad ji) nt*.2j M.- MRn2!� M!L 2 il&!j_ Atooses tfution IC nL ANALYSES GCIMS FRACTION - PESTI Im Hopta~ toodde x 1(1024-SL31 W. PCW1242 x !tilt- 19P. PCS-1264 x 20P. PM1221 jill04.3L21 21P. PCB-1232 x 11141-1641 22P, PCB-1248 x (VM2") I — 23P. PC$.1280 x (11 20. PC$4016 x (12674-11-2) — — ---------- --- A rTwow— m�. EPA Form 3610-2C (Rov, 2-M) PA(W MEMO "ma vjg�� , UA MIN 110�� MEN MEN MEME iRmMMM SP. 4,4' ODE (72-55-9) 9P, 4,4-DDD IOR Nowrl (W57-il 11P.soho-Endm0an JC 115.29-7 12P. betwer4m0an (11&2%-7) 13P. EMostgon "aft 11031-0741 UP, EtWn J72-20-81 IW e*ft Aide" (742E4LA) 4- W, HopUd*)r (764") EPA Fam 35104C (Rw 246) --------- PAGEV-9 CONTNUEONPAGEV-0 EPA I.D. NUMBER (copy ka ftm t of Fotm 1) OUTFALL WNBER Form AWwod i OMB No. CONTINUED FROM A v-8 N O0 4 r«31 I. POLLUTANT 2. MARK "X" 3. EFFLUENT 4. UNITS S. INTAKE AN Nq. a.ro e.e a. IM DAILY VALUE b. IM 30 DAY VALUE . LO M A VALUE a LONG "TERM A . VALUE 11IR ( ) eva t NO, o. n- b. n . ea 1 tloaa 2 Matix t NOn Maa 1 a#Cra M!s 1 G $ FRACTION - PESTI HoptadW Epwdft X tts2a67-3 19P; PC8-1242 is (sum2i-9) 19P. PCB-1254 is 20P:PC8=1221 ttt04.25 2 21P.PC$4232 i1141.16-5 22P.PM1248 X 1 23P. PM12WX X LTomphom X EPA Fo m 351.0.2C (Reu. 2-85) ti P V-9 EPA W, NUMBER (C0pYftM#ft I of Fom 1) # OUTFALL NUMBER POMAWWAO OMS W 20404M$ CONTINUED FROM PAGE 4W7 NCO024392 005 I, POLLUTANT 2. MARK W 3,EFFLUENT 4. UNITS S. fflTAKE LO&LOft AN( NCB. cw C V f ALUE b. Im DAY VALUE Lom=m- c. Lom=m VALUE a. LONG TERM AVG. VALUE ,4.10. qw- sot , ,=DAILY 4, No. oF a. Conowt- b� M*u NOOF od —1j1jcocw**w Itzma" 1 1oa Mass 1 stlon 2 Mept s tmtion GCIMS FRACTION - RASIVNEUTRAL COMPOUN (corttinued) X < 10 < 0,26 1 ugA WORY < 10 200.5 1 448, r rages x < 10 < 026 1 ugA WD*y -c 10 t .5 1 0& P"M x < 10 4 026 lbfDay < 10 209.5 1 0200") d*t*bmmw* X < 10 < 0.26 1 U04 twosy 10 209.5 1 G,CtMS, FRACTION - PESTICIDES IRA" x I 2 2P. WwSHC x (31 3p.bst*-aHC x V540-7) 4p. qwww-smc x SP, dsbftHC x x 7P, 4,4*-00T x x 72.8 9P, 4,4'-000 X. i72. " 8� I 10PL 010** x x x 13P, Emodo"an to x p 4Lx AW" x 7421-03-4 cd LQLL x EPA FOM 3510-2C (Rw 2-M) P V-8 CONTNMONPAGEV4 EPA LD NUMBER ( of FoM 1) OUTFALL NUMBER FO i No. C9WTPf�fUEt? FROMPAGE V-8 NCO02439 1, POLLUTANT 2. MARK*)(" 3. EFFLUENT ; 4. UNfTS 7-3fi S. INTAKE AfV(P CAS E} p. aura b. tot a. fM 1�1 GtAILY VALUE b. fM 3(f DAY VALUE . LC) G AVG. VALUE ' a. LONGTERM A . VALUE t No. a. r1- b. ed fi 6a1 2 M' 1 on 2 M 4 bon Mast 4 AZI J Ca/MS FRACTPC)N - PE YI 17P. Heptad*X Epodde X 9ik2447-3 18P, PCS-1242 X 53469.21-9 19P.PC8-1254.. X 11097.69.1 MR PC8-122t X 11104-28.2 21P.PC8-1232 X 1ti41-18-5 22P: PC8.1248 X 126T2- 23P: PC8 1 X 11... -5 24P PC 6 1016 X 12674-11.2 25PT X f-35.2 EPA Fatte 3510.2C (Rev. 2-0) PAGEV4 NPDES Supplemental Information for McGuire Nuclear Staten June 29, 1994 TABLE OF CONTENTS OVERVIEW' STATION INTAKE 1 Surface Intake 1 Subsurface Intake 1 NUCLEAR SERVICE WATER 1 Containment Spray Neat Exchangers 2 CONVENTIONAL LOW PRESSURE SERVICE WATER 2 FIRE PROTECTION SYSTEM 2 OUTFALL 001 Condenser Cooling Water 3 OUTFALL 002 Water Treatment Room Sump Filtered Water System 4 Drinking Water System Demneralized Water System Turbine Building Sumps 5 Diesel Generator Roam Sumps 6 Lab Drains 6 Condensate Polisher Backwash 6 Steam Generator Blowdwn Wet t_ayup 7 Auxiliary Electric Boiler Blowdown 7 Groundwater Drainage System 7 RC System Unwatering 7 Closed Cooling Systems 7 Standby Shutdown Facility 7 Steam Generator Cleaning g Miscellaneous System/Component Cleaning 3 Landfill Leachate Vehicle Maintenance Facility OUTFALL 003 Vehicle Maintenance Facility ' 10 McGuire Office Complex 16 Nondestructive Examination 16 Medical Facility 11 OUTFALL 004 11 Floor, Equipment; and Laundry Drains 12 Ventilation Unit Drains 12 Chemical Volume and Control System 12 Chemical Treatment in WM System 12 OUTFALL 005 Standby Nuclear Service Water Pond Administrative wilding Grins RC System Untering Filtered Water HVAC Unit brains Yard Drain Reverse Osmosis QUTFALL 00 APPENDIX 1: Connection to Charlotte/Mecklenburg Utility Department APPENDIX It: Hazardous Substance List for Section 311 Exclusion 13 13 1 13 1 1 1 14 OVERVIEW Subsurface Intake The subsurface intake (Low Level Intake) is located near the bottom of Lake Norman at Cowans Ford Dam, There are six (6) low level intake pumps with a capacity of 150,000 GPM each. During certain times of the year, this system pumps cooler water from the lake hypolimnion and mixes it with the warmer water in the surface intake structure during times of high take surface water temperatures. At all times of the year, the Low Level Intake (LLI) supplies water to RV and RN. NUCLEAR SERVICE WATER The FIN is a safety related once through noncontact cooling water system. The Nuclear Service Water System supplies cooling water to various heat loads in both the primary and secondary portions of each unit. There are two (2) pumps per unit (four (4) pumps total) that are capable of delivering 17,500 GPM per pump. The water supply is from Lake Norman or the Standby Nuclear Service Water Pond (SNSWP). Water from Lake Norman is supplied by the RC system from the surface intake or by the LLI. The normal -source of water is the LLI system, The normal discharge is to Lake Norman through Outtall 001 The SNSWP is a 34.9 acre pond designed to provide cooling water for the safe shutdown of the station in the unlikely event that Lake Norman becomes unavailable. The level in the pond is maintained, per t 1'I • ® * • • •. � �. �. •1 I/! .. f11 • �U * ! * • * • � N'' ! * • � * *. • • ,. � •* • e r • s � * • 1! e * • • e � a • _ � 'i 11 it • •* *♦ � f • *• • • � •s s " 1t 11i •. • • •. * *• • •• • " .:. Drinking Water System The Drinking Water to the McGuire Site is applied by the Charlotte/Mecklenburg Utility Department. Demineralied Water System The Demineralized Water System ( ) provides high purity water for makeup to the primary and secondary systems and for laboratory usage. There are two (2) carbon fitters, one (1) 300 GPM reverse osmosis unit (RO) and two () mixed bed regenerative dler in rali ers with a system design flowrate of 475 GPM. Normally, two (2) carbon beds, the RO unit, and one (1) dernineralizer are in use while the other demineralizer is being regenerated or is in standby. The YM System takes suction from the YF System. The carbon filters remove organic substances and any residual chlorine. These filters may be cleaned by backwashing, steam cleaning, or rinsing. The cleaning may occur as often as twice per month and is discharged via the water treatment room sump to the WC System (©uttall 002). For the cleaning, 15,000 gallons of water are used. Each carbon bed is replenished every six to twelve months. Waste carbon is routed to the WC System or collected and deposited directly in a permitted landfill. The RO unit provides pretreatment to the demineralizers. It consists of an integral series of filters and the RO unit itself. Sulfuric acid is injected to the process stream to maintain proper pH. Depending upon system demands, the finished water (00 GPM) is supplied to the demineralizers. The reject flow (50 GPM) would be diverted to the WWCB (Outfall 005). The ;RCS units are periodically cleaned based on performance standards. The cleaning process may involve use of surfactants, acids, and caustics. When this cleaning is conducted, it would be discharged via the water treatment sump to the WC System (Outfall 002). Regeneration of one demneralir may occur as often as every month. To regenerate the resins, sulfuric acid and sodium hydroxide are flushed through the bed. At the present time, each normal regeneration takes'; approximately 90 gallons of % sulfuric acid, 400 gallons of 50% sodium hydroxide, and 75,000 gallons of YM. The amounts of required acid and caustic will vary as dictated by operational requirements. Based on annual resin analysis results, the beds may be surtactant cleaned, caustic soaked or brine soaked. The water from these cleanings is discharged via the water treatment room sump to the C System.' The damineralizer beds are replenished approximately every six (5) to eight (3) years. Waste resin is routed via the water treatment room sump to the WC System, and is ultimately placed in a permitted landfill. Turbine Building Sumps. The Turbine Building Sumps (TBS) receive inputs from leakage, drainage, and liquid wastes from equipment and floor drains located in the Turbine Building. Inputs include Groundwater Drainage Sumps (WZ), Auxiliary Electric Boiler Blowdown, Steam Generator Blowdown, 'filter air handling units, Diesel Generator Room Sumps, lab drains, fluor washes, normal condensate system leakage, and condensate polisher backwashes. Other possible inputs include RC Unwatering, and steam generator wet laup draindown. Periodically, condensate from air compressors is processed through an oil water separator and routed to the TBS to the WC IHP. Chemicals that may be present in the TBS include the following: ammonia boron hyrazine morpholine ethanolamine 5 The TBS normally are rot sumps can be routed throu to RC (Ouffall 001) depen( microbiocides corrosion inhibitors janitorial cleaning products miscellaneous, system/component cleaning products laboratory chemicals to the WC System. However, it radioactivity limits are exceeded, these he Radwaste Liquid Waste Monitoring (WM) System (Ouffall 004) or directly on the treatment needed. - Very low levels of radioactivity can be routed to • Steam Generator Blowdown Each of our four (4) generators per unit has a volume of 40,000 gallons. Each unit is provided with a Steam Generator Blowdown Recycle System. Steam generator blowdown is continuous at a rate of approximately 5,000 gallons per hour to maintain acceptable steam generator water chemistry. The blowdown is directed to either the condensate polisher demineralizer or to the steam generator blowdown demineralizer. It the blowdown water quality is unacceptable, it is rejected. It can be discharged to the WC System or to WM System depending on levels of radioactivity. During normal operation hydrazine is added to the condensate system for oxygen scavenging. The hydrazine concentration is maintained within a concentration range of 25-200 ppb, Ammonia is added 6 • • •. :t # ''. is « « ! � t. #".. • «.# *• « •.. '. «M,.«. • !.. * . « •.:. � i x . . ! • .: M '. # •::. • •: • • :. * : � � is • ! w f •' a w i* a •• f !' !. . . i « s m m a 'i a '. « . «#* of . # ! . m#* • * 'f # a - . * * ® .t a! ! • i,. . a. . is . . t i # # w efficiency, the cooling system is flushed annually to the SSF which drains to the WC System. Steam Generator Cleaning Each electrical generating unit contains four () steam generators that have a capacity of approximately 40,000 gallons each. There have been no chemical cleaning of the steam generators to date, but the remote possibility exists that cleaning: may be required. Should this need arise, more ihformaton will be provided to the Department seeking approval to conduct the cleaning process. Miscellaneous System/Comr)onent Cleaning Other systems/components (such as strainers, HVAC heat exchangers, etc.) may need to be cleaned periodically because of scaling or plugging. Other components will be craned as necessary for various fouling problems. Solutions utilized may be dilute adds or caustic sodas. Chemicals `utilized by these methodologies, alone or in combination; include the following: Alkaline Boilut Solutions non-ionic surfactants anionic surfactants cationic surfactants sodium hydroxide soda ash trisodium phosphate disodium phosphate monosodiumphosphate sodium bicarbonate Acid Solutions hydrochloric acid sulfuric acid phosphoric acid formic acid hydroxyacetic acid sulfuric acid citric acid nitric acid Acid Solution Additives thiourea ammonium bifluoride oxalic acid EDTA Compounds and HEDI'A pH adjusted tetra -ammonium EDTA tetra -ammonium EDTA di -ammonium EDTA hydroxyethylened aminetri cetic acid tetrasodium EDTA Miscellaneous Comoounds tt t,t- t. a, tt • NEI • *s s ,sr s s t- -• • •- • ss- t ss s s e s•s• a, • s , t ,• t, t _ tt. ,, , •t • *_ .! is s -• • # *s - s tr- s -sets • #. • s s _ , , • s-s, • • s t , ss s• t t i s s s s^ s •s s t t s s s• t �' s s s• • •s t s• • • •s r „� - - s , s s• • « «,, « t• s •s "r s . ♦ * i1i t, s t s s ss s s s•• s s t *s t -» s , •, s « t s , • • s s• s s^ .' t t• • s t • s t :•, t tt t "s • - • ,t• • • t t .s, t •s,t.s * s t _ t •s ,ts• t• t -t s s • t' • t ,• • « t' s mt «ttu .tts •• t" t• t •'t i s t tt t, •t tt - t 't s, t t, , t t , , • t t• t s t. , s , • •• t s - t, s • 9 The Nondestructive Examination (NDE) is --ray testing of various components. The photographic waste effluent line is connected to the domestic waste line (T). NDE is usually conducted in a building inside the protected area, It this X-ray processing unit is unavailable, then a trailer (just outside the North PAP) which has the same type of process equipment will be utilized. The trailer also discharges the photographic waste effluent to the domestic waste line ( T). When operating, the photographic waste consists of approximately 4 GPM, 0.0059 GPM developer replenisher working solution, and 0.0297 GPM fixer and re lenisher working solution. The developer replenisher working solution contains hydroquinone, glutaraldehyde, potassium sulfite, and potassium acetate. The fixer and replenisherworking solution 10 contains ammonium thiosulfate and sodium sulfate. tither developer replenisher working solutions and/or fixer and replenisher working solution with other constituents may be substituted in the future. Silver i recovered from the processor flow before it enters the waste stream. The developing process is operated a maximum of 30 hours per week (4 hours/day) but averages 6 hours per week (1.2 hours/day). Operation of the developing process results in a maximum of approximately 1041 GPD, with an average of 290 GPD of photographic waste discharging to the WT System. The flow from this system is very intermittent. Medical Facility The primaryeffluent from the Medical Facility is domestic waste, but a minimal inflow from the Medical Facility X-Ray process (i.. photographic wastes) may also discharged. The chemical nature of this waste stream does' not differ substantially from the more voluminous processing unit located in the QA Vault. Silver is recovered from the process flow before it enters the waste stream. The X-Ray processor operates intermittently, Monday through Friday. The average flowrate 110 GPD, and the maximum flowrate 300 GPD, of photographic waste discharging to the WT System, OUTFALL 004 outfall 004 discharges flow from the Radwaste Liquid Waste Monitoring System ( M). This flow combines with the PIC before discharging through the concrete discharge structure (outfall 001) into Lake Borman as a batch discharge. All radioactive and potentially radioactive liquids are collected, segregated and processed prior to release. These effluents are classified as recyclable or nonrecyclable liquids. Recyclable liquids are recirculated back to the process streams. Nonrecylable liquids are collected and processed to Nuclear Regulatory Commission (NRC) requirements (10 CFR Part 20 and 10 CFR Part 0) prior to release with the type of processing depending on the type of waste. The maximum discharge rate from WM is 120 GPM. The batch discharge flow for a Waste Monitor Tank Release is a function of activity level, the number of RC pumps in operation, :and the resultant boron concentration in Lake Norman. The WM collects waste in three (3) subsystems (floor and equipment' drains, laundry waste, and ventilation unit drains).; Chemicals that may be present in the WM System include: boric acid borax nitrate ammonia morphplin ethanolamine lithium hydroxide ethylene glycol corrosion inhibitors hydrazine chlorinelhypochlorite hydrogen peroxide pump bearing cleaning chemicals laboratory chemicals surfactants polyelectrolytes miscellaneous system/component cleaning waste tool and component decontamination waste janitorial cleaning products _11 • Chemical Treatment in WM System Occasionally, it is necessary to oxidize sodium nitrate in the waste monitor tank using hypochlorite (calcium or sodium) or catalyzed hydrogen peroxide. When this treatment is performed, the waste monitor tank is isolated, recirculated, and mixed. The tank is sampled to ensure that the nitrate has been oxidized. The addition of the oxidation chemicals should result in a small residual of nitrate in the tank, since the 32 in a concreTe apron ano is atsunargea to frICS (:7F(RRWWl, WsFaown Cow ord Dam. 1 frOVITA Mall-rMIMMUT TIMMMMERSTAPITIMi HVAC Unit Drains Several HV C units have once through noncontact cooling water drains which discharge to yard drains on the east and west sides of the Administrative Building. The flow from each of these units is 10 GPM. These HVAC units are supplied by RL: Yard Drains Most yard drains discharge to the WWCB or SNSWP. The drainage area for the plant 'site is approximately 250 acres. The yard drain system is described in cGuire's Stormwater Permit Application. Reverse Osmosis The Reverse Osmosis (RO) unitprovides pretreatment to the demineralized water system (YM). RO is supplied by YF This system consist of an integral series of filters and the RO unit itself. Depending upon system demands, the finished water (00 GPM) is supplied to the demineralizers. The reject flow (150 GPM) would be diverted to the WWCB (Outfall 005). The RO reject is to the YF water that can not pass through the series of filters. This water is lake water with slightly elevated minerals. The RO units are periodically cleaned based on performance standards. The cleaning process may involved the use of surfactants, acids, and caustics. When this cleaning is conducted, it would be discharged via the water treatment sump to the WC System (Outfall 002) Performance standards require that certain metal components be periodically cleaned using an acid or caustic solution. This cleaning actually attacks the base metal of the component. The waste metal cleaning solutions which are generated will be neutralized. The other compounds will be mixed, oxidized, andlor precipitated as necessary for treatment. The wastes from: these cleanings will be sampled and analyzed to determine proper waste disposal. It permitted discharge limits allow, the waste will be released through the WC System or WM'System. If the treated waste solution exceeds the permitted' discharge limits, the waste metal cleaning solution will be properly disposed. 1 APPENDIX I Connection to Charlotte/Mecklenburg Utility Department APPENDIX II Hazardous Substance List for Section 311 Exclusion The following is a list of the hazardous substances located on site in response to 40 CFR 117.12 and 40 CFR12221 t qualify for a Section 311 exclusion under the Glean Water Act. Po71 wt6lit Hydroxide Chloride Pitt Control a # 7,1 s # -y amine r # r # # # um Hydroxide « r # r# U�-rerma Yr an a # # Fluoride s # Hydroxid ydroxid # # # .# orite Disinfection, # #ate sphate, dibasic T 1 11117 7115 uo MoTnecessarily reflect quanti yes discharged. Various amounts of these substances may go to the WC System (Guttall 002) for treatment due to use in site laboratories, small leaks, spills, or drips from closed loop systems. Hydrazine is not included in the Section, 311 hazardous substances list.. It is included in this table because, it can be found in the list of hazardous substances in 40 GFR30 .4. 1 LOW SERVICE WATER DRAINS MCQUIRE NUCLEAR STA110N ND; (SN P) _NPUES PERMIT If NCO024392 I LAKE LOW LEVEL NUCLEAR NORMAN INTAKE (LLI) SERVICE LAKE WATER (RN) NORMAN Y i ----------ND SI FIRE it PROTECTION i 4 i I t I , 1 C i s �t t FILTERED REVERSE IN REACTOR E_ WATER (YF) OSMOSIS UNIT T WATER Y S SYSTEMS ` (RO) (YM) (NC) ( ) iA!! FEGEN WASTE UNWA _T _ SECONDARY &WATER t TREATMENT < AUX00OLANTSYS TURBINE BLDG.W SUMP STEAM GEN. SUMPS r TMpq ° I SLOWDOWN WATERLEAKAGE t LANDFILL DRAINAGE ! FIB NICE DIESEL GENER. TTARY W TE ' (. j SUMPS ( ) j CM t i t I WASTE WATER 1s,*003 ---------------------------- COLLECTION BASIN ( ) *006 CATAWBA -" NORMAL FLO ATH -----> STORM RIVER FLO A * O A ( NOTE: BE DI O ) DRAINS WTS ALL FLOWS MOM ARE IN GPM FOR AVERAGE CONDMONS