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HomeMy WebLinkAboutNC0006190_RENEWAL APPLICATION_19970625WDES DOCUWEMT SCAMMIM& COVER SMEET NPDES Permit: NC0006190 Document Type: Permit Issuance Wasteload Allocation Authorization to Construct (AtC) Permit Modification Complete File - Historical Renewal Application Speculative Limits Instream Assessment (67b) Environmental Assessment (EA) Permit History Document Date: June 25, 1997 MMIS docxxxlmelmt is primted oxx reuse paper - igpmore any coxxtent oa the re-srerse side 1 1 1 1 1 1 1 1 1 1 1 1 1 1 1 1 3uaf 417 NPDES Permit Modification Application Delta Apparel, Inc. Nco00619 0 June 1997 Prepared for: Delta Apparel, Inc. (Delta Mills, Maiden Plant) 100 West Pine Street Maiden, North Carolina 28650 Catawba County (704) 428-9921 Prepared by: Applied Water Technology 621 Hutton Street Suite 107 Raleigh, North Carolina 27606 (919) 836-8688 3 rn , W: rf,� �T�M+-+r:��-wit.• -_ APPLIED WATER TECHNOLOGY AWT FOR AGF=NUY r ' NORTH CAROLINA DEPT. OF ENVIRONMENT, HEALTH, AND NATURAL RESOURCES ENVIRONMENTAL MANAGEMENT COMMISSION NATIONAL POLLUTANT DISCHARGE ELIMINATION SYSTEM APPLICATION FOR PERMIT TO DISCHARGE WASTEWATER STANDARD FORM C - MANUFACTURING AND COMMERCIAL I I I I I 1 1 1 1 SECTION I. APPLICATION AND FACILITY DESCRIPTION Unless otherwise Wocifled on this form all Rome are to be completed. 9 an Rom Is not applicable Indicate 7-W. So X rn ADDITIONAL INSTRUCTIONS FOR SELECTED ITEMS APPEAR IN SEPARATE INSTRUCTION BOOKLET AS INDICATED. REFER TO BO3WET :M �:Ir- rn BEFORE FILLING OUT THESE ITEMS. p morn Plea so Afnif or Type"P. rn < 1. Legal Name of Applicant 101 Delta Mills, Inc. (see instructions) Maiden Plant 2. Mailing Address of Applicant (see Instructions) 100 1.7 D4 C Number & Street City State Zip Code Applicant's Authorized Agent (see Instructions) Name and Tite Number& Street City State Zip Code Telephone 4. Previous Application It a previous f plication for a permit under e National Pollutant Discharge Elimination System has been made, give of application. the date N 103C 103d 1030 103f '104 �- Q1 L. ne treel- Maiden North Carolina 28650 Charles BI Applied Water Technn]lngy 621 Hutton Street Suite 107 Raleigh North Carolina 27606 919 835-8688 Area Number Code YF1 M0 DAY I certify that I am familiar with the information contained in this application and that to the best of my knowledge and belief such information is true, complete, and accurate. Charles D. Blackwell 102e Authorized A-ent- Printed Name of Person Signi 1 Title 1021 Signature of Applicant or Authorized Agent YR M0 DAY Date Application Signed North Carolina General Statue 143-216.6 (b)(2) provides that Any person who knowingly makes any false statement representation, or certification in any record, report plan, or other document files or required to be maintained under Article 21 or regulations of the Environmental Management rrl��M`snsn implementing that Article, or who falsifies, tampers with, or knowing�_ renders inaccurate any recording or monitoring device or method required to be operated or maintained under Article 21 or regulations of the Environmental management Commission implementing that Article, shall be guilty of a misdemeanor punishable by a fine not to exceed $10,000. or by imprisonment not to exceed six months, or by both. (18 U.S.C. Section 1001 provides a punishment by a fine or not more than $ 10,000 or imprisonment not more than 5 years, or both, for a similar offense.) y 5 Facility (see instructions) Give the name, ownership, and physical location of the plant or other operating facility where discharge(s) presently omugs) or wiU occur. Name 6. 7 8. Ownership (Public. Private or both Public and Private) Check block if a Federal facility and give GSA Inventory Control Number Looation: Number tf Stmet City County State Nature of Business State the nature of the business conducted at the plant or operating facility. Facility Intake Water (see instructions) Indicate water intake volume per day by sources. Estimate average volume per day in thousand gallons per day. Municipal or private water system Surface water Groundwater Othef Total Item 7 ' If there is intake water from 'other, specify thq source. Facility Water Use Estimate average volume per day in thousand gallons per day for the followingg types of water usage at the fact ity. (See instructions) Noncontact cooling water Boiler feed water Process water Including contact cooling water} Sanitary water Other' Total Item 8 ' If there are discharges to'other, specify Et there is'Sanitary' water use, give the numborof people served. 106a 105b 105c 105d lose 105f 105g loch 106a 106b 107a 107b 107c 107d 107e 107f 108a 108b 108C 108d 108e 108f 108g 108h Delta Apparel Co. Maiden Plant ® PUS 0 PFIv 0 OPP ❑ FM 100 West Pine Street Maiden North Carolina Textiles Manufacture Knit Fabric AGENCY USE I- 2000 thousand gallons per day thousand gallons per day thousand gationtis per day thousand gallons per day thousand gallons per day thousand gallons per day 90 thousand gallons per day 1500 - thousand gallons per day NA Thousand gallons per day 400 Thousand gallons per day 2000 thousand gallons per day le se rved TOR AGENUY Ubb J'- 0. All Facility Discharges and other Losses. Number and Discharge (See lnshictions)Vclume Specify the number of discharge points and ft volume of water discharged lostirom the facility to the ' or according - categones below. Estimate average volume per day in Thousand gallons per day Numberof Total Volume Discharged, Discharge Points Million Gallons Per DR Surface Water 109al 1 10&2 1 - U with e intent t?.kabrease to Sanitary wastewater transport systen 109bl NA iogm '0.4 Storm water transport system 109c1 5 109c2 NA Combined sanitery and storm water incidl -NA 1n-QrV I I I I 0 transport system Surface impoundment with no 10901 10902 effluent Underground percolation 1091 lom Well injection _109gl 109g2 Waste acceptance firm 109h1 1109112 Evaporation 101 NA low 0.1 Consumption 109j1 10912 Other 109k1 109k2 Facility dischargers and volume Total item 9 10911 1092 'If there are discharges to 'other. 1109m1 specify. Permits. Licenses and Applications List all existing, pending or denied permits, licenses and applications related to discharges from this facility (see Issuing For z-Typo of Date Data I Date Expiration Agency Agency Permit or Filed Issued I Denied Date use License 10 Number YRIMO/DA YRIMOIDA I YRrMO/DA YR/M01DA h) ICDEM 'N' b v-.k o.,r W- pop to i ci 94/11/1835/9/1 )0/9/30 N&-EM OQ0op 8122/9/8 93/212 NMEM A 4f Fio t I a .3 4 7, L R. I L 9 6-15 16 ()6/7Z99 01/3/31 11. Maps and Drawings Attach all requited maps and drawings to the back of this application. (see instructions) 12. Additional Information r instructions) OR AGENCYUSE -7 STANDARD FORM C MANUFACTURING AND COMMERCIAL SECTION It. BASIC DISCHARGE DESCRIPTION complete this section for each discharge indicated in section 1, Items 9. that Is to This Includes discharges to sewerage systems in surface waters. munkipal which the waste water does not go through a treatment works prior to being discharged to surface waters. Discharges to wells must be described where there are discharges to also surface waters imm tt" facility. SEPARATE DESCRIPTIONS OF EACH DISCHARGE ARE REQUIRED EVEN IF SEVERAL DISCHARGES ORIGINATE IN THE SAME FACILITY. All values for an exiAkV discharge should be repmentallve of the twelve previous months of operation. If this Is a proposed discharge, values should reflect bad engineering ealknales. ADDITIONAL INSTRUCTIONS FOR SELECTED ITEMS APPEAR IN SEPARATE INSTRUCTION BOOKLETAS INDICATED. REFER TO BOOKLET BEFORE FILLING OUT THESE ITEMS. 7. Discharge Serial No. and Name 001 a Discharge Seriat No. 201a (we instructions) b. Discharge Name 201b Give the name of discharge, it NA any (see instructions) c. Previous Discharge Serial No 201c. NA If a previous permit for this dis.r" application was made I ' charge (item 4, Section provide previous discharge sN number. z Discha rating Dates DM%p %legan Date 202a 70 2 If the discharge described below is in operation, give the date (within best estimate) the discharge began b. Discharge to Begin Date 202b NA It the dscha7 has never YR MO occurred but is planned for some future date, give the date to discharge vAll begin. c. Discharge to End Date If the 202c NA c2schar is scheduled to 6;9, YR MO discontinued within the next 5 years, give the date (within best estimate) the discharge will and. 3. Engineering Report Available Check it an engneering report Is available to reviewing agency upon request (we instructions) '203 R3 4. Discharge Location Name the polidcal boundaries within which the point of discharge Is bcated: Agency Use State 204a County 204, North Carolina 2111d Catawba 2D40 (it applicable) City or Town 204c Maiden 2W 5. Discharge Point Description 8 siee instructions) scharge into (check one) Stream (includes ditches, arroyos, 205a k]STR and other watercourses Lake [] LKE 008arl C]OCE Municipal S ' anitary Wastewater []MTS Transport System Municipal Combined Sanitary and Storm Transport System E] MCS I I FUR-AUENUY U5i-- DISCHARGE SET 6 NUMBER Municipal storm Water Transport [3 STS System Well (injection) ❑ WE L Other ❑ OTH if -athee is &&*od, specify type msb 6. Discharge Point- Lal/Lon. Give the precise location of the point discharge to the nearest Latitude 206a _15—DEG. _L4-MIN. _-L—sEc Lcongftudo 206b. 81 DEG. _14_M I N. 2 5_sE c 7. Discharge Receiving Water Name Name Me waterway at the point of 207a Clark Creek discharge. (see instructions) If the disdiame is through an outfall that extends 2= beyond the shoreline or is below the mean low water line, complete hem 8. ' Fa A Use I S. 207c FwAoentv Use 8. Offshore Discharge a. Discharge Distance from Shore 206a feet b. Discharge Depth Below Water 20eb feet 9 Discharge Typo and Occurrence a. Type of Discharge Check whether the discharge is M (oon) Continuous continuous or intermittent D (int) Intermittent (See instructions) b. Discharge Occurrence Days per Week- Enter the average number of days per week M Z_days per week (during periods of discharge) this discharge oemrs. c. Discharge Occurrence- Months 209c JAN FEB MAR If this discharge normally oper- APR MAY J U N ates (either intermittently or JUL AUG SEP continuously) on less than aye OCT NOV DEC around basis (excluding shut- downs for routine maintenance), check the months during the yea when the discha. is operating (see in-structionsr Complete Items 10 and 11 K *intermittent' is chocked in Item 9.a. Otherwise, proceed to Item 12. 110. Intermittent Discharge Quantity State the average volume per clis- 210 NA thousand gallons per day charge occurnanoe in thousands of gallons 11. Intermittent Discharge Duration and Frequency a Intermittent Discharge Duration Per Day State the average 211a NA hours per day numberof hours perday the discharge Is operating b, Intermittent. Discharge Frequency State the average 211b discharge occurrences per day number of discharge occurrenoi s r day during days when discharging 12, Maximum Flow Period Give the time period in which the maximum 212 From Jan to Dpc-- flow of this discharge occurs month month I PUH AGENCY USE DISCHARGE SERIAL NUMBER 001 13. Activity Description Give a 213a Manufacture of cotton and synthetic narrative description of activity fabric on circU ai riitting machines producing this discharge (we Process also includes .bleachi.n.g, _d eeing instructions) finishing fabric using all dyes and c emica s associated with this process generally falling under Standard _ Industrial.Qgdg (SM—No. 2257. 14. 2 N Activity Causing Discharge For each SIC Code which describes the activity causing this discharge, supply the type and maximum amount of either the raw matenal consumed (Item 14a) or the product produced (Itom 14b) In the units specified in Table I of the Instruction Booidet. For SIC Codes not Osted in Table I, use raw material or production units nomlafly used for measuring production (see instructions) r' a Raw Materials b. Products Maximum Unit Shared Discharges SIC Code Name Amount/D See Table Serial Number) t a 2257 extile --Mi:ll 80 H-2 001 Products mYL, -,VU ffw 7f t 0� /Q c.'fv� t, jtIA.,-5 -W 41A wv 14 - Pro -\,—r 0ry CtL1` J � Qvt VAIty '7)1)4) S k b Ilt r b4j, � P,,ku� lb, su�y rR6 - Uvpt-r,�G� do '�NOY U81z� FOR Al2 T. DISCHARGE SERIAL NUMBER 001 is Waste Abatement a Waste Abatement Practices 215a Wastewater from dyehouse goes to Narrative- - -- Describe to waste abatement heat reclaimer buildinp, whereheatis prac6oas used on this dis- recovered from hot wastewater, -Hot & rold charge with a brief narrative wastewater is screened, then discharge ggU (s" instrudons) to wastewater treatment facility consisting of bar screen-, dual aeration basins, dual secondary clarifiers with sludge return,__ chlorine contact basin and Post aeration basin. b. Waste Abatement Codes 215b (IfSCREE _(2) RHEATR -_(3) BACTIV Using the codes listed in Table r (4ESEPAR -(s) MPOSTA .—(6) QMON11 11 of the instruction Booklet, (7ELAGOO s)SLANDD (9) closaibc the waste abatement (10) (11) (12) p rooesses for this discharge in (13) --- (14)--- -- -0s)— the order in which they occur (16) --- (17)_(18)_ if possible. (19) _(20)(21)_ (22) (2 (24) (25) I I I I I s FOR AGENCY U 5dE s; DISCHARGE SERIAL NUMBER ' 001 16. Wastewater Characteristics ' Check the box beside each constituent which is present in the effluent (discharge wateo. This determination is to be based on actual anatysis or best estimate,(see instructions) ' Parameter emsent Parameter Present 216 216 Color 00080 X Cop 01 per X Xm—monia Iron 00610 X 01045 tganic tutrogen o0E05 Y 01051 X Nitrate agnesium OOG20 X OO9Z7 itnte 00615 01� Phosphorus r Mercury 03565 X 71900 Sulfate Moi m 00945 x 1 010 2 00745 X 01067 Witite Selenium 00740 01147 romi a 5fiver 71870 01077 Chionde Potassium 00940 X 00937 X anOO wm 03720 00929 X Huonde I hallIUM 00951 01059 Aluminum I iLanium 01105 01152" AnbmGny I in 01097 01102 Arsenic Zinc 01002 01092 X ryhum gtu s x 01012 74051 num Crilonnated organic oompou 01037 74052 s 01022 74053 X Cadmium i and grease 01027 00550 Calcium PneFM 00916 . X 3Z73:) X Coball buflaclanb 01037 38M X Chromium C londe 01034 X 50060 X ecal co arm bacteria HaoicactivIty 74055 1 74050 - 1 1 1 1 1 1 1 Specify substances, compounds and/or elements in Item 26. ' Pesticides (insecticides, fungicides, and rodenticides) must be reported in terms of the acceptable common names specified in Acceptable Common Names and Chemicalnames for the In mcf'ant statement on Pesticide Labels, 2nd Edition, Environmental Protection Agency, Washington, D.C. 20250, June 197Z as required by Subsection 1623(b) of the Regutations for f}18 Enfowrient of the Federal Insecticide, Fungicide, and Rodenticide Act. ' 1 1 1 DISCHARGE SERIAL NUMBER ' 17. Description of Intake and Discharge For each of the parameters listed below, enter in the appropriate box the value or code letter answercailed for (see instructions) In addition, enter the parameter name and code and all required values for any of the following parameters if (hey ere checked in Item 16: ammonia, cyanide, aluminum, arsenic, beryllium, cadmium, chromium, copper, lead, mercury, rocket, selenium, zinc, phenols, oil and grease, and ' chlorine (residual). 1 1 1 1 1 1 n uent tmuant Parameter and Code ntmaled Intake ln-P n Treated Uaily Average Minimum Value aximum Value Frequency of Analysis Numbero Analyses bmple Type Water Intake Observed or Observed or 217 (Daily Water F)gmbd Expected average) (Daily During During average) Discharge Discharge Activity Activity (9 2 (31(4)5 6 (7) 1 (8 Flow' MGD Gallons per day 50050 .789 NA .007 1.112 Daily I I P Units 0= 10.3 NA 8.1 8.5 5/7 1 G. emperature (winter) cc 74026 38 NA 22.3 9 28 5/7 1 G emperature summer °C 74025 1 43 NA 26.7 1 22 30 1 5/7 1 1 G • ioc emcra xygen Demand (BOD 5-Day) mgA t>310 LBS NA I NA 21.1 7.4 82 1 3/7 1 C Mmical Oxygen Demand (COD) 12647.2 mg/I LBS flosao NA' NA 961.4 359.8 1/7 1 C otal buspenoed (nonfi tenable) Solids mgA LBS 00= NA NA 126.0 5.7 1557.5 3/7 1 C G cuctance micromhoslcm at 25'C ODOG, NA NA 54.2 486 1/7 1 C . SiMeabie Panet (residue) mIA ODSa5 1.4 NA 0.0 0.0 0.0 5/7 1 G ' ' Other discharges sharing intake flow (serial numbers) (see instructions) Y O��L'It[�Y�►ty��b'1� Attmloni Chroms Copper Lead Zinc Phenol Residt DISCHARGE SERIAL NUMBER 001 17. (Cont'd) Innuent en Parameter and Code n Intake n Treated at y Average Minimum Value Maximum Value Frequency of Analysts Number of Samp,e Type Water Make Observed or Observed or Analyses 217 (Daily Water Expected Expected average) (Daily During During average) Discharge Discharge Activity Activity '. 1 2) IM a 5 6 8 a 00610 Mg/1 NA 0.8 0 um 01034 Lbs.ug 1 NA 2.93 0.7 01042 u /1 NA 2 01051 a/1 NA J 4 4 4 1 365 01092 u 1 NA 35.1 10 s 32730 Lbs N al Chlorine Mg/l NA 0.77 0.29 60.4 1/7 1 G 50060 18. Plant Controls Check if the following plant controls are available for this discharge Attemate powersource for major pumping facility Alarm or emergency procedure for power or equipment failure Complete Item 19 if discharge is Iron cooling andror steam water generation and water treatment addWyes are used 19. Water Treatment Additives 1f the discharge is treated with any conditioner, inhibitor, or algtcide, answer the following: a Name of Material(s) b. Name and address of manufacturer 218 219a 2M c, Quanbty (pounds added per # 219c million gallons of water treated) { APS [] ALM NA d Chemical composition of these 219d additives (s" instruction I Complete Hems 20-25 H them is a thermal discharge (e.g., associated with a stoam and/or power generation plant steel mill, petroleum refinery, or any other manufacturing process) and the total discharge flow is 10 million gallons per day or more. (see Instructions) 20.. Thermal Discharge Source. Check 220 the appropriate hem(s) indcating the souroe of the discharge (see instructions) Boiler Slowdown Boiler Chemical Clewing Ash Pond Overflow Boiler Water Treatment - Evaporator. Slowdown - Oil and Coal Fired Plants -Effluent from Air Pollution Control Devices Condense Cooling Water Cooling Tower Blowdown Manufacturing Process Other 1. Discharge/Receiving Water Temperature Difference Give the maximum temperature difference between the discharge and receiving waters for summer and winter operating oonditions, instnictons) Summer 221a Winter 221b 22. Discharge Temperature, Rate of Change Per Hour 222 Give the rnaximum posstUe rate of m change per hour of disc harge 23. WaterTempemture, Percentile Rcgrt(Frequency of Occurrence) In table below, enter the temperature which is exceeded 1019 of the year, 5% of the year. I% of the year and not at all (maximum yearty temperature). (we instructions) Frequency of occurrence a. Intake Water Temperature 223a (subject to natural changes b. Discharge Water Temperature 223b DISCHARGE SERIAL NUMBER 001 NA C] BLBD ❑ BCCL ❑ APOF ❑ EPSD 0 OCFP NA F1 COND ❑ CTBD ❑ MFPR ❑ OTHR NA OF NA OF NA__ FJhour yCr/- NA 511/0 NA 1% NA M1A1mum NA OF NA OF NA OF NA OF NA *F NA OF I NA OF I NA OF 24. Water Intake Velocity 224 _HA _feet/sec. (see instructions) - 25. Retention Time Give the length of 225 NA minutes time, in minutes, from start of water temperature rise to discharge of cooling water. (see instructions) E rd DISCHARGE SERIAL NUMBER 001 26. Adcri6onal Inlomiation FQH A5ENL;Y =1 '' STANDARD FORM C MANUFACTURING AND COMMERCIAL SECTION Ill. WASTE ABATEMENT REQUIREMENTS & IMPLEMENTATION (CONSTRUCTION) SCHEDULE This section requires information on any uncompleted implementation schedule which may have been imposed for construction of waste treatment facilities. Such requirements and implementation schedules may have been established by local, State. or Federal agerxoes or by court action. In addition to cornplating the lollowirq Rents, a copy of an official Implementation sdwduie should be attached to this application. IF YOU ARE SUBJECT TO SEVERAL DIFFERENT IMPLEMENTATION SCHEDULES. EITHER BECAUSE OF DIFFERENT LEVELS OF AUTHORITY IMPOSING DIFFERENT SCHEDULES (DIFFERENT AND/OR STAGED CONSTRUCTION OF SEPARATE OPERATIONAL UNtTS (ITEM 1c), SUBMIT A SEPARATE SECTION Ill FOR EACH ONE. 1. FUH ALi,:NL;Y U51: Improvements EL Discharge Serial Numbers 300 Affected List the discharge serial numbers, assigned in Section 11, that are covered by this implementation schedule b. Authon Imposing Require- 30ia ment Aack the appropriate item indicating the authority for the implementation schedule It the identical implementation schedule has been ordered by more than one authority, check the appropriate items. (see instructions) Locally developed plan 301b ❑ LOC Amawide Plan ❑ AR E Basin Plan ❑ BAS State approved implementation E)SQS schedule Federal approved water quality f3was standards implementation plan Federal enforcement procedure (DENF or action State court order OCRT Federal court order r-1 FED c. Facility Requirement Specify the 3-charactercode of those 3-character listed below ftat best describes ,n general terms therequire- ment of301C the implementation schedule and the applicable six - character abatement oodes(s) from Table 11 of the instruction booklet If more than one 301d 6-character schedule applies to the facility specific) because of a staged constructior �soo Table 11) schedule, state to stage of con- struction being described here with the appropriate genera) action code. Submit a separate Section Ill for each stage of construction planned. Now Facility NEW Modification (no increase in capacity or treatment) MOD increase in Capacity INC Increase in Treatment Level INT Both Increase in Treatment Level and Capacity ICT Process Change PRO Elimination of Discharge ELI I - "MM HIM 2' hnFMementatson Schedule and 3. Actual Completion Dates Provide dates imposed by schedule and any actua! dates of completion for implementation steps listed below. Implementation Steps 2- Schedule (yr/Mo/Day) 3. Actual Completion (Yr/Mo/Day) a. Pfefirninary plan complete 302a 303a t I b. Final plan submission 302b 303b c. Final plan complete 302c 303c; d Fina=g complete & contract 3X!d 3Md LJ awarded e. Site acquired 302e 303e f. Begin construction 3= g, End construction 30 3M9 h Begin discharge 302h 303h i. OperaWnal favat attained 3W I 303i 9 ' N. C. DEPARTMENT OF NATURAL RESOURCES & COMMUNITY DEVELOPMENT ENVIRONMENTAL MANAGEMENT COMMISSION NATIONAL POLLUTANT DISCHARGE ELIMINATION SYSTEM APPLICATION FOR PERMIT TO DISCHARGE ' ADDITIONAL REQUIRED INFORMATION ' APPLICATION NUMBER DISCHARGE SERIAL. NUMBER, 001 ' REFER TO DIRECTIONS ON REVERSE SIDE BEFORE ATTEMPTING TO COMPLETE THIS FORM 1 .1 Untreated ' REMARKS: I certify that I am familiar with the information oontained In this report and that to fh'e best of my knowledge and belief such information is true, complete and exurate. are corm mateleo Name ol Aulnonzmn r a re Direcsbns - For each parameter listed, complete the information requested in each column in the units 4 oified according to the htstructions given below. Column f - Enter the daily average value of the intake water at the point it enters the facility. If intake water d from more than one source, and enters the facility at separate entry points, the value Oven In column 1 should be waVited proportional to the quantity of flow contributed Iran each source. If water is treated before use, completion of this column is not required (see Instructions for column 2). Values of intake are not required for n9ning activities. Cokrrnn 2 -'If all or part of intake water is treated before use, provide values for total intake here instead on in Column t, Also describe briefly in item 26'additional information,' the type of treatment performed on lntake water (e.g., rapid sand filtration, coagulation, flocculation, ion exchange, etc.) and the percent of intake water contributing to this discharge that has been tmated. Column 3 - Supply daily average value for the days when discharge is actually operating or is expected to be operating (anew discharge). Daitf average values ate to be computed by weighing the daily value in proportion to the daily flow. H a discharge occur; irregularly, the value supplied in the oolumn marked'Dally Average' should represent an average for the average for the days the discharge actually occurs. Average values are not to be supplied for pia, specific conductance, and bacteriological parameters e.g., colifotm bacteria). Columns 4 and 5 - Supply minimum and maximum value obse rved (or expected for new discharge) over any one day when the discharge is operating. Column 6 - Specify the averraaggee freque �f is for each parameter as number analyses per numberof dayss e.g.W isequNalent to three analyses performed every 7 days). lfcontinuous, enter'CONT.' When analyses are conducted on more than one indvidual grab sample coliectod during the same day, the analysis frequency should reflect one analysis whose value is the average of the individual grab sample measurements. Average frequency should be based on an operating month. Ca/umn 7- Specify the number of analyses performed at the average frequency specified in column 6, up to 365. Column a - Specify sample type as follows: G For grab sample (individual sample collected in less tan 15 minutes). 4C For composite sample # is to be replaced by the average numberof hours over which the composite sample was collected. Composite samples are combinations of individual samples obtained at intervals overa time period, either the volume of each individual sample is directly proportional to discharge flow rates or the sampling interval (for constant volume samples) is inversely proportional to the flow rates over the time period used to produce the composite. NA If 'CONT' was entered in column 6. Analytical moViods - Appendix A contains all parameters with their reporting levels, test descriptions, and references. The parameter values can be determined either by use of the standard analytical methods as described in table A or by methods previously ap raved by time EPA Regional Administrator or Director of a federally approv State program (or their authorized representative) who has jurisdiction over the State in which the discharge occurs. If the test used is not one shown in table A, the test procedure should be referenced'n'Remarks' cr on a separate sheet.. H values are determined to be less than the detectable limits (as determined by referenced standard analytical techniques and/or instrument manufacturer's literature), specify 'LT(Value of detectable limit)' In the appropriate space. For example, It the detectable Gmft Is .005 mgA and quantities of less than this are determined, spp�9*'LT.005.' Do not enterdescriptors such as 'NIL, "TRACE,' 'NE G,' etc. for this purpose. If It Is your reasoned judgment that one or more of the required parameters is not present in the initial untreated or treated process water and/or tho discharge, enter an 'A' (meaning 'absent') in the appropriate space. In order for values reported to be representative, It is recommended that they be based on from at least five to seven analyses of composite samples(if applicable). Each of the composite samples should be obtained by compositing frequent samples in proportion to flow over an operating day. SamFles should be taken during period of maximum production, if possible. ff samples are taken at perlods of less than maximum production, state in 'Remarks* the percent of maximum production that was obtained during the sampling period. . 1 I 1 1 1 1 1 1 1 1 1 1 1 1 1 SLUDGE MANAGEMENT PLAN Delta Mills, Inc. (Maiden Plant) Solids that settle and thicken in the clarifiers are wasted at a rate of approximately 50,000 gallons per week. This waste rate can vary with the amount of mix liquor total solids, flow and sludge blanket depth in clarifiers. Sludge is wasted into a lagoon with a holding capacity of approximately 2 million gallons. The decant is pumped back into the treatment works at aeration basins #1 and #2. This sludge thickens to about 4% solids. Once the lagoon is full or near full, we have a professional contractor empty it on an annual or as needed basis. Sludge from the lagoon is hauled to parts of a 240 acre pasture for land application. Land application takes place under the regulations listed in our permit WQ00069834. APPLIED WATER TECHNOLOGY A w'I` Engineering Alternatives Analysis Delta Apparel, Inc. June1997 Prepared for: Delta Apparel, Inc. (Delta Mills, Maiden Plant) 100 West Pine Street Maiden, North Carolina 28650 Catawba County (104) 428-9921 Prepared by: Applied Water Technology 621 Hutton Street Suite 107 Raleigh (9 9) 836-8688 North Carolina 27606 APPLIED WATER TECHNOLOGY AW T TABLE OF CONTENTS PAGE N-0. SUMMARY i BACKGROUND INFORMATION 2 PROJECT DESCRIPTION 2 EVALUATION OF DISPOSAL ALTERNATIVES 4 A. Connection to a Sewer Collection System 4 1. Existing Sewerage System 4 2. Planned Sewerage System 4 B. Land Based Disposal 4 1. On -Site Land Based Disposal 4 2. Off -Site Land Based Disposal C. Wastewater Reuse 5 D. Surface Water Discharge 7 E. Disposal Combinations 7 Surface Water Discharge and Wastewater Reuse Combination 7 Option 1 8 Option 2 9 Attachments • Flow Schematic for Surface Water/Wastewater Reuse Options • Land Availability for Land Based Disposal Alternative Letter • Land Area Required for 0.5 MGD Flow • Land Area required for 1.5 MGD Flow • Calculations of Wastewater Flow: Current Production and Existing Facilities Higher Production and Existing Facilities • Wastewater Treatment Plant Schematic • Proposed Wastewater Flow Schematic • Delta Mills WWTP Characteristics • Estimation of WWTP Effluent Limit Characteristics at 1.5 MGD • EPA Cost Curves - IV 3.3 - 15, IV 3.3 - 16 Secondary Clarifier with Polymer - IV 3.6 - 3, IV 3.6 - 4 Dual Media Filtration - IV 5.1 - 2, IV 5.1 - 3 Activated Carbon Adsorption - IV 5.9 - 3, IV 5.9 - 4 Reverse Osmosis - IV 4.1 - 6, IV 4.1 - 7 Aeration Basin • Analytical Report of Wastewater Influent • Additional Calculations - Aeration Basin and Reaeration Basin • Crocker & Associates, Inc. Quotation for Aerators Man Pocket • Catawba County Tap Map • To -Scale Facility Site Map APPLIED WATER TECH NOLOGY AWT Delta Apparel, Inc. June 1997 Page 1 SUMMARY Delta Apparel, Inc. would like to increase production at their Maiden Plant as soon as possible to continue to be competitive and to meet consumer demand. The current amount of wastewater generated by this facility is approximately 1.0 MGD. However, this production increase will ultimately result in an increase in the amount of wastewater generated of approximately 500,000 gpd. _. To comply with both state and federal requirements for requesting a NPDES permit modification due to an increase in flow, an engineering alternatives analysis has been completed. This engineering alternatives analysis is an evaluation of the available disposal alternatives, their costs, and applicability to determine the most cost effective alternative. The results of this analysis indicate that the most cost effective alternative available to Delta is to continue surface water discharge of their wastewater. The only costs associated with continuing to discharge to surface waters results from expanding the existing on -site wastewater treatment plant to handle the additional flow increase. The WWTP expansion includes the addition of both an aeration basin and a clarifier and the modification of the existing sludge lagoon. The other applicable disposal alternatives require not only expanding the WWTP to handle the additional flow, but also require additional treatment of the wastewater. Most of the costs provided in this analysis represent the Total Capital Investment as indicated in the appropriate EPA cost curves enclosed. These costs have been used to determine the total cost of each disposal alternative on a relative basis and are not necessarily represent4tive of actual construction costs. However, the costs provided were obtained from the same source of EPA cost curves and should provide a good relative cost comparison. There are three equipment costs, the 0.5 MGD bar screen, the 0.5 MGD aeration basin,and the 0.5 MGD reaeration basin, that were not available in the EPA cost curves and were provided either by quotes from vendors or determined based on best engineering judgment. Even though these costs were not obtained from the EPA cost curves as the other costs were, these costs are only used to determine the cost for additional wastewater treatment and will not affect the determination of the most cost effective alternative. This NPDES permit modification request is to continue to discharge to surface waters at an increased discharge flow. The estimated flow at an increased production rate will be approximately 1.5 MGD, not considering flow restricting devices. The use of flow restricting devices have not be investigated for this analysis; however, Delta intends to implement flow restricting devices some time in the future. When these flow restricting devices are used at this facility, the water requirements and wastewater generated will be reduced. This reduction would then allow a future production increase to be possible at this facility. APPLIED WATER TECHNOLOGY AWT Delta Apparel, Inc. June 1997 Page 2 BACKGROUND INFORMATION Delta Apparel, Inc. (listed as Delta Mills, Inc., Maiden Plant, on the NPDES Permit NC0006190) is a manufacturer of cotton and synthetic fabrics using circular knitting machines. The manufacturing process includes bleaching, dyeing, and finishing these fabrics using a variety of chemicals and dyes. There are two separate wastewater streams generated at this facility, sanitary and manufacturing wastewater. The sanitary wastewater is discharged to the Town of Maiden's sewer system and treated by their wastewater treatment plant. The manufacturing wastewater includes wastewater from the boiler, cooling tower, and the dyehouse which is discharged to Delta's on -site wastewater treatment plant. This on -site wastewater treatment plant has been used by Delta for the past thirty (30) years to treat the industrial wastewater generated at this facility. The performance of this treatment plant has been very good thus far. The treatment plant has consistently discharged an effluent meets their NPDES discharge permit limits, even during the times that the treatment plant has been operating at or above its design capacity of 1.0 MGD. As indicated on the attached wastewater treatment plant schematic, the plant consists of a bar screen, two aeration basins, two clarifiers, a chlorine contact chamber, a reaeration basin, a waste sludge holding tank, and a 1.2 MGD sludge lagoon. Each aeration basin has a volume of 1.2 MG and is equipped with two 50 h.p. floating aerators. Each clarifier is 38 feet in diameter with a 10 foot sidewater depth. The surface loading rate is calculated to be 441 gallons per day per square foot at the design flow of 1.0 MGD. The chlorine contact chamber is inactive since there is no sanitary waste discharged to the WWTP. The reaeration basin contains two 10 h.p. floating aerators. Currently, all of the treated wastewater flows from the reaeration basin through a parshall flume for effluent flow measurement, and then is discharged into Clark Creek which is the receiving water designated under DeIta's NPDES permit, NC0006190. Sludge is wasted to a 1.2 MGD sludge lagoon. PROJECT DESCRIPTION Delta Apparel would like to increase their production rates at this facility as soon -as possible., Orders received by Delta for the first four to six (4-6) months of 1997 indicate that sales have increased and will continue increasing. By not being able to increase the production rate at this facility, the amount of additional business that can be accepted by this facility.will be limited. Currently, Delta is operating at an average production rate of approximately 700,000 pounds of cloth per week. The goal of this facility is to increase the production rate to an estimated maximum and average production rate per week of 1,000,000 and 900,000 pounds per week of cloth respectively. Production at this rate will enable Delta to be more cost competitive and enable them to produce a sufficient amount of their products to meet customer demand. This production increase will ultimately result in an increase in the amount of wastewater generated at this facility of approximately 500,000 gallons per day. Since this facility is already treating the maximum amount of wastewater that the WWTP is designed to APPLIED WATER TECHNOLOGY AWT Delta Apparel, Inc. June 1997 Page 3 handle, Delta Apparel is reviewing all of the options available to determine which solution will be the most cost effective. This alternatives evaluation reveals that of the options available to be considered, the only applicable options are surface water discharge, wastewater reuse, and a combination of the surface water discharge and reuse; however, the most cost effective choice would be for_Delta to continue discharging to surface water, namely Clark Creek. All:three of these potential alternatives will require upgrading the on -site WWTP to handle the increased flow, but for wastewater reuse to be workable, the wastewater will require additional treatment. Delta must be able to have treated wastewater that is free of color and chlorides if this treated water is to be reused in the dyehouse. Since this facility relies on the quality of their product, Delta must be able to depend on the treated water to be consistent with their quality standards. Not only will Delta have to treat the wastewater more thoroughly for reuse, pilot studies will need to performed to determine if enough treatment is being applied. The size of flow, L5 MGD, is the major factor limiting the options available for treatment of this wastewater. An evaluation of the available disposal alternatives, their costs, and applicability are discussed in the following sections. APPLIED WATER TECHNOLOGY AWT Delta Apparel, Inc. June 1997 Page 4 EVALUATION OF DISPOSAL ALTERNATIVES A. Connection to a Sewer Collection System 1. Existing Sewerage SyaMmm There is an existing sewer line and manhole located on Delta Apparel's property. Delta is currently discharging the facility's sanitary waste to this sewer system which discharges into the Town of Maiden's wastewater treatment plant. The maximum capacity that the Town of Maiden's WWTP can handle is LO MGD. The volume of wastewater currently generated by Delta Apparel's facility is approximately 1.0 MGD, which is very near to the maximum capacity of wastewater that the Town's WWTP is designed to treat. When production is increased at Delta, the volume of wastewater generated will be approximately 1.5 MGD. This 1.5 MGD flow is more than the Town's WWTP was designed to handle; therefore, discharging this entire wastewater flow to this WWTP is not an option that is available to Delta Apparel. Currently, the Town of Maiden's WWTP is only receiving approximately 400,000 gallons per day of wastewater. It is possible that Delta could discharge on a temporary basis the 500,000 gallons per day increase to the Town's WWTP. Unfortunately, this could only be on a temporary basis because the Town has already allotted most of the remaining WWTP capacity. When the flow from these other sources is received, there will not be enough capacity available for Delta to use for the increased flow amount. In addition, the Town is also experiencing infiltration problems and if the Town agreed to accept this additional flow on either a temporary or permanent basis, Delta would not be able to discharge to the Town on any rainy days, otherwise the Town's effluent would not meet the permit's effluent flow limits. 2. Planned Sewerage Sy tem There is no planned sewerage system in this area that would be available to Delta Apparel at this time, nor is it likely that any system will be planned for this area in the near future. Therefore, this alternative is not an option that is available to Delta. B. Land Based Disposal There are a number of options listed under the land based disposal alternative that could be considered: nitrification systems, low pressure pipe systems, drip irrigation systems, mound systems, and spray irrigation systems. However, the only land based option that is even remotely feasible to consider for this large wastewater flow, 1.5 MGD, is a spray irrigation system. Spray irrigation could be used for this amount of flow; however, there is not enough land available on -site (See Site Diagram in Map Pocket) for Delta to use this system to dispose of their wastewater. The land requirement for the 1.5 MGD flow is approximately 105 acres. In fact, it is not possible for any reasonable portion of this wastewater to be land applied on -site. The land requirement for only the additional 500,000 gpd flow is approximately 35 acres. APPLIED WATER TECHNOLOGY AWT Delta Apparel, Inc. June 1997 Page 5 • . I � :. $I i .we There is no adjacent land available for Delta Apparel to acquire for use in this disposal system (See Catawba County Tax Map in Map Pocket). Delta Apparel is almost completely surrounded by other developed properties. These properties are either commercial or industrial and currently have buildings located on these lots. Based on AWT's review of the Catawba County tax map there is insufficient open land available or a farm nearby to land apply all or a portion of this wastewater. A letter from Delta Apparel confirming this lack of available adjacent land is attached. C. Wastewater Reuse Wastewater reuse at this facility is a possible alternative to consider for the 1.5 MGD wastewater stream. However, the cost of reusing the wastewater will be quite expensive. Delta must not only upgrade the existing WWTP to handle the flow increase, but also provide additional treatment to the wastewater so that the effluent quality will be acceptable for use in the manufacturing operations. The two main parameters of concern for treatment and reuse are color and chlorides removal. For the existing WWTP to handIe the additional 500,000 gpd flow increase, Delta will need to modify the existing sludge lagoon and add an additional clarifier to the WWTP. Modification of the sludge lagoon will require partitioning a portion of the lagoon and with the addition of aerators, convert this portion of the lagoon from anaerobic digestion to aerobic digestion. This modification should not only reduce the odor resulting from the anaerobic digestion, but should also increase the sludge handling capacity. In addition to modifying the sludge lagoon, an additional aeration basin and a secondary clarifier will be necessary. A 0.5 MGD aeration basin and a 0.5 MGD secondary clarifier with polymer addition were selected for use in handling this flow increase. The polymer addition should be able to contribute to the removal of color in the wastewater; however, to reuse this wastewater in the dyehouse even more treatment of this wastewater will be necessary. To reuse the wastewater at this facility, this wastewater will need to be treated for not only color removal, but also for the presence of chlorides. Since the current treatment operations do not address either of these two issues, additional treatment systems will be needed if an acceptable level of effluent quality is to be achieved. The technology available to address the removal of color and chlorides is very expensive. The reuse of this wastewater would not be cost effective when compared to continuing to discharge to surface waters. Reverse osmosis would be the treatment system necessary to remove chlorides. The cost provided in this analysis is the Total Cost Investment from the EPA cost curve 5.9-4 (see attached). To remove color, carbon adsorption was evaluated. This cost is the Total Cost Investment from the EPA cost curve 5.1-3, this cost does not include disposal of the spent carbon which would need to be considered. Other possible alternatives for removing color are the addition of polymers or bleach. To consider using polymers or bleach for color removal, maintenance and operating costs must be considered. The wastewater from the facility varies continuously with consumer APPLIED WATER TECHNOLOGY AWT Delta Apparel, Inc. June 1997 Page b demand; therefore, there would be a lot of time invested in operating and maintaining the quality of effluent required for reuse. The costs associated with handling the additional flow of 500,000 gpd and for additional treatment for the removal of chlorides and color are provided below. Wastewater Reuse, Handling low Increase EQuipmpu (Total it Comments Lagoon Modification 250,000 Aeration Basin 750,000 0.5 MGD Secondary Clarifier w/ Polymer Addition 350,000 0.5 MGD Total cost for handling additional flow 1,350,000 0.5 MGD Additional Treatment Equipment CD2 (Total Comments Reverse Osmosis $1,300,000 1.5 MGD (chlorides) Activated Carbon Adsorption $2,000,000 1.5 MGD (color) Total Cost for Additional Treatment = 3,300,000 otal Cost for Wastewater Reuse 1$4,650,000 i 1.5 MGD It is quite possible that even with additional treatment, the wastewater quality will not be acceptable for reuse at this facility. Pilot studies will inevitabIy need to be performed to determine the exact treatment scenario that will be needed to provide an acceptable effluent quality. The costs associated with implementing pilot studies have not been included in this analysis. APPLIED WATER TECHNOLOGY AWT ' Delta Apparel, Inc. June 1997 ' Page 7 I D. Surface Water Discharge g ' This is the current disposal method being used at Delta Apparel for the wastewater discharge of 1.0 MGD. The facility's on -site wastewater treatment system is operating very near its maximum design capacity; therefore, the on -site wastewater treatment ' system will need to be expanded to accommodate the increased flow resulting from the production, increase. The WWTP facilities which will require modifications include the existing sludge lagoon ' and the capacity of the clarifiers and the aeration basins. The sludge lagoon modification includes partitioning off a portion (one-fourth) of the lagoon and adding aerators to convert this portion of the lagoon from anaerobic to aerobic digestion. This modification ' should not only result in controlling the odor, but will also increase the sludge handling capacity of the lagoon. The cost presented in this alternatives analysis to modify the lagoon does not include installation or engineering costs. 1 1 An aeration basin and a secondary clarifier will also. be required to handle this flow increase. To be conservative and in the event of future production increase, an aeration basin and a secondary clarifier capable of handling up to 1.0 MGD flow were selected. The costs provided in this analysis for the 1.0 MGD aeration basin and 1.0 MGD secondary clarifier represent the Total Capital Investment from the EPA cost curve IV 4.1-7 and 3.3-16 respectively. The cost below represents a secondary clarifier with polymer addition.'UP `was considere a"s theconserva ive app IT . "Polymer addition should be able .to help control color; however, additional treatment could be necessary if the addition of polymer is not as effective as anticipated in meeting NPDES permit limits. Surface Water Discharge EquipmentComments (Total Ca an tall Lagoon Modification 250,000 Aeration Basin 1,200,000 1.0 MGD Secondary Clarifiers 450,000 1 1.0 MGD Total Cost for Surrace Water Discharge - 1, O,U00 11.5 E. Disposal Combinations Surface Water Discharge and Wastewater Reuse Combin The only disposal combination that is available for Delta to consider is the combination of surface water discharge and wastewater reuse. There are two options which will need to be considered when evaluating this disposal combination. The first option for surface water discharge and wastewater reuse is to add a separate smaller version of the existing WWTP and treat the additional 500,000 gpd for reuse and continue to discharge the remaining 1.0 MGD to surface water. The second option is to upgrade the existing APPLIED WATER TECHNOLOGY AWT 1 Delta Apparel, Inc. June 1997 Page 8 ' WWTP to handle the additional 500,000 gP d and add additional treatment to the end of the treatment process for reuse of the additional 500,000 gpd and continue to discharge ' the remaining flow to surface water. The following is a description of both of these options and the associated costs. 1 Option 1 ' This alternative consists of adding a small treatment plant that would treat only the additional 0.5 MGD flow for reuse purposes. The treatment would consist of a bar screen, an aeration basin, a clarifier with polymer addition, and a reaeration basin. Reverse osmosis and activated carbon would also be required for chloride and color ' removal respectively. Furthermore, the increased flowrate would necessitate the existing lagoon to be modified to handle the additional sludge loading. ' An extensive pilot study would be needed to determine all necessary wastewater treatment for reuse. Additional treatment operations may be required such as sand or dual media filtration. Other treatment operations may also be considered such as the use of bleach or highly concentrated peroxide to maintain a color free wastewater for reuse. tThe equipment costs associated with this option are presented in the following table. 1 Wastewater Reuse and ur ace Water Discharge - Option Handling tional Flow Equipment (Total apitall Comments Bar Screen 45,000 0.5 MGD* Aeration Basin 750,000 0.5 MGD Secondary Clarifier wl 1 mer 350,000 0.5 MGD Reaeration 30,000 0.5 MGD Lagoon Modification 250,000 Total cost for handling additional flow $1,425,000 0.5 MGD Additional Treatment Equipmen != 1 it Comments Activated Carbon $1,200,000 0.5 MGD Reverse Osmosis T 6 00,000 0.5 MGD Total cost for additional treatment $1,800,000 0.5 MGD Total Cost ror OpPion. 1-$3,225,0)0 Sand/Dual Media Filter 800,000 optional, 0.5 MGD *Quote by phone from Emory L. Wilson Associates. ><D; APPLIED WATER TECHNOLOGY AWT Delta Apparel, Inc. June 1997 Page 9 Option 2 This alternative consists of treating the entire 1.5 MGD flow in one plant, with additional treatment for reuse of 0.5 MGD of the wastewater. The additional treatment would consist of reverse osmosis and activated carbon for chloride and color removal respectively. Sand or dual media filtration may also be necessary to meet reuse water standards. Furthermore, the existing lagoon would have to be modified to handle the additional sludge production. Again, an extensive pilot study would be needed to determine which treatment operations would consistently provide an effluent suitable for production reuse. The total capital equipment costs associated with this option are presented in the table below. Wastewater Reuse and Surface Water Discharge - Option Handling Additional Flow Fume t . C-= (Total Capital) Comments Aeration Basin 750,000 0.5 MGD Second Clarifier w/ polymer addition 350,000 0.5 MGD Lagoon Modification 250,000 Total cost for handling additional flow = 1,350,00 0.5 MGD Additional Treatment i� C= (Iota] i Comments Activated Carbon $1,200,000 0.5 MGD Reverse Osmosis b00,0 Q 0.5 MGD Total cost for additional treatment $1,800,000 0.5 MGD Total Cost for OFtion 2 $3,150,060 an Media Filter $00,0 0 optional, 0.5 MGD 1\1 APPLIED WATER TECHNOLOGY AWT Plow Schematic for Surface Water Discharge/Wastewater Reuse Options 'Option 1 Treat and Reuse 0.5 MGD in separate WWTP. tContinue to treat current 1.0 MGD in existing WWTP and discharge to Clark Creek. 1 Clark Option 2 Upgrade existing WWTP. Treat entire 1.5 MGD in existing WWTP. Provide additional treatment for 0.5 MGD and reuse. Discharge remaining 1.0 MGD treated wastewater into Clark Creek. APPLIED WATER TECHNOLOGY AWT 4- DELTA ' A.P-P-A.R-E-L ' Mr. Mark McIntire NCDEE-INR ' Division of Water Quality Post Office Box 29535 ' Raleigh, North Carolina 27626-os3s June 5,1997 1 '"Z JUN 10 1997 APID WXrER TECHNOLOGY RE: Engineering Analysis Alternatives Land Availability for Land Based Disposal Alternative ' Delta Mill, Inc., Maiden Plant NPDES Permit - NCO006190 ' Dear Mr. McIntire: ' Our consultant, Applied Water Technology, is preparing the wastewater permit application for the proposed increased flow from our facility. During the ' evaluation the land based disposal alternative, the option of a acquiring land adjacent to our facility was reviewed. Unfortunately, there is not any land ' adjacent to our facility that could be acquired for this use. If there are any questions regarding this issue; please contact either Dena Pittman ' with Applied Water Technology at (919) 836-8688 or Allen McRee of our facility at (704) 428-9921 Extension 266. ' Coye Kidd Acting Plant Manager ' CKlrc ' P. O. Box 37.408 S. Main Avenue - Maiden, North Carolina 28650 (704) 428-9921 - FAX (704) 428-8307 & 428-8312 1 1 1 1 1 1 1 1 1 1 1 1 1 1 1 1 Land Area Required for 0.5 MGD Flow Water losses inches Water apetied, inches Month Eva otrans 1 Percolation 2 Total 3 Preci 4 WW Lw 5 Total 6 Jan 0.1 18.144 18.244 3.87 14.374 18.244 Feb 0.1 18.144 18.244 4.58 13.664 18.244 Mar 1.2 18.144 19.3441 5.05 14.294 19.344 Apr 1.8 18.144 19.944 3.96 15.984 19.944 Ma 3 18.144 21.144 4.67 16.474 21.144 Jun 4 18.144 22.144 5 17.144 22.144 Jul 4.5 18.144 22.644 4.03 18.614 22.644 Aug4.1 18.144 22.244 4.87 17.374 22.244 Sep 2.9 18.144 21.044 3.91 17.134 21.044 Oct 1.8 18.144 19.944 3.31 16.634 19.944 Nov 0.6 18.144 18.744 2.98 15.764 18.744 Dec 0.1 18.144 18.244 4.18 14.064 18.244 Total 24.2 217.7281 241.928 50.41 191.5 241.928 percolation(Wp)= (O.t3 in/h)'(24 hNd)•(0.04)•(30 d/mon) Wp - 18.144 Area Needed (Aw)- 0'365/Lwp Aw- (0.5MGD'O.134 cu ft/gal'365 d/yr)/(191.5 in/yr'1ft/12 in'43560 sq ft/acre) Aw. 35.2 acres Column explanations: 1 - data for Brevard, NO. Reference Metcalf & Eddy. 2 - data for Maiden, NO. Reference Soil Survey 3 - column 1 + column 2 4 - data for Hickory, NC. Reference NO Office of Climatology Report No. 185 5 - column 3 - column 4 6 - column 4 + column 5 Notes: Calculation procedure from Metcalf & Eddy 3rd ed, p. 960 APPLIED WATER TECHNOLOGY AWT 1 1 1 1 1 1 1 1 Land Area Required for 1.5 MGD Flow Water losses, inches Water applied, inches Month Eva otrans 1 Percolation 2 Total 3 Precl 4 WW,Lw 5 Total 6 Jan 0.1 18.144 18.244 3.87 14.374 18.244 Feb 0.1 18.144 18.244 4.58 13.664 18.244 Mar 1.2 18.144 19.344 5.05 14.294 19.344 Apr 1.8 18.144 19.944 3.96 15.984 19.944 May 3 18.144 21.144 4.67 16.474 21.144 Jun 4 16.144 22.144 5 17.144 22.144 Jul 4.5 18.144 22.644 4.03 18.614 22.644 Auq 4.1 18.144 22.244 4.87 17.374 22.244 Sep 2.9 18.144 21.044 3.91 17.134 21.044 Oct 1.8 18.144 19.944 3.31 16.634 19.944 Nov 0.6 18.144 18.744 2.98 15.764 18.744 Dec 0.1 18.144 18.244 4.18 14.064 18.244 Total 24.21 217.7281 241.9281 50.41 191.5 241.928 peroolation(Wp)n (0.63 in/h)'(24 hr/d)'(0.04)'(30 dlmon) Wp a 18.144 Area Needed (Aw)a 0'36511-wp Aw- (1.5MGD'0.134 cu ft/gal'365 d/yr)/(191.5 in/yr'1ft/12 in'43560 sq it/acre) Awa 105.5 acres Column explanations: f - data for Brevard, NC. Reference Metcalf & Eddy. 2 - data for Maiden, NC. Reference Soil Survey 3 - column 1 + column 2 4 - data for Hickory, NC. Reference NC Office of Climatology Report No. 185 5 - column 3 - column 4 6 - column 4 + column 5 Notes: Calculation procedure from Metcalf-& Eddy 3rd ed, p. 960 APPLIED WATER TECHNOLOGY A`�rrAr T Delta Apparel - CURRENT PRODUCTION AND EXISTING FACILITIES 1 1 1 1 1 1 1 DELTA APPAREL - PRODUCTION & WATER USAGE CURRENT PRODUCTION AND EXISTING FACILITIES DYE MACHINES Gal. per lb. of Product Number of Machines Number of Ports per Machine Ports Extended Total Prod. Lbs. per Batch per Machine Prod. Lbs. per Batch Prod. Lbs. per Day Gals. per Day (All Machines) Gals per Lb. of Product Estimated turnsper daV4.25 15 to 1 30 5 Dbl. cure 800 4,000 15 to 1 30 1 Sn le cure 400 400 4,400 5,500 165,000 30.00 4 Estimated turnpe!_Layd.25 10 to 1 16 1 6 6 2,400 2,400 10 to' 1 16 3 4 12 1,600 4,800 18 7,200 9,000 144,000 16.00 Estimated turnsper da .56 6 to 1 8 1 1 1 420 420 6 to 1 8 1 2 2 1 840 840 6 to 1 8 3 4 12 2,000 6,000 6 to 1 8 1 6 6 3 000 3,000 6 to 1 8 1 12 12 6,000 6,000 33 16,260 25,366 202,925 8.00 Total Ports::-51 DYE OPERATION SUMMARY Total Lbs er Da 39,866 Total Gallonsper Day= 511,925 12.84 BLEACH MACHINES Gal. per lb. of Product No. of Machines Lbs of Product per Hour Prod. Lbs. per Day 15 1 400 15 1 400 800 19,200 288,000 Gal. per lb. of Product Number of Machines Number of Ports per Machine Ports Extended Total Prod. Lbs. per Batch per Machine Prod. Lbs, per Batch Prod. Lbs. per Day Estimated turns per da W 5.0 6 to 1 6 1 12 12 6,000 6,000 6 to 1 6 1 6 6 3,000 3,000 Total Ports 18 9,000 45,000 270,000 BLEACH OPERATION SUMMARY Total Lbs per Day= 64,200 Total Gallons per Da 558,000 8.69 TOTAL PRODUCTION SUMMARY % D e= 38.3% % Bleachin 61.7% Lbs. per day::' 104,066 Pounds per 7 day week 728 459 Gallons er da 1,0691925 10.28 APPLIED WATER TECHNOLOGY AWT Delta Apparel - HIGHER PRODUCTION AND EXISTING FACILITIES 1 1 1 1 DELTA APPAREL - PRODUCTION & WATER USAGE HIGHER PRODUCTION AND EXISTING FAI ILITIE DYE MACHINES Gal. per lb. of Product Number of Machines Number of Ports per Machine Ports Extended Total Prod. Lbs. per Batch per Machine Prod. Lbs. per Batch Prod. Lbs. per Day Gals. per Day (Ail Machines) Gals per Lb. of Product Estimated turnsper da .00 15 to 1 30 5 Dbi. cure 800 4,000 15 to 1 30 1 Sn le cure 400 400 4,400 8,800 264,000 30.00 Estimated turns per da 2.00 10 to 1 1 16 1 6 6 2,400 1 2,400 10 to 1 16 3 4 12 1,600 4,800 18 7,200 1 14,400 230,400 16.00 Estimated turns per do .00 6 to 1 8 1 1 1 420 420 6 to 1 1 8 1 2 2 B40 840 6 to 1 8 3 4 12 2,000 6,000 6 to 1 8 1 6 6 3.000 3.000 6 to 1 8 1 12 12 6,000 1 6,000 33 16,260 32,520 260,160 8.00 Total Ports 51 DYE OPERATION SUMMARY Total Lbs per Day 55,720 Total Gallons per Dayn 754,560 13.54 BLEACH MACHINES Gal. per lb. of Product No. of Machines Lbs of Product per Hour Prod. Lbs. per Day i5 1` 525 15 1 525 1050 25,200 378,000 Gal. per lb. of Product Number of Machines Number of Ports per Machine Ports Extended Total I Prod. Lbs per Batch per Machine Prod. Lbs. per Batch Prod. Lbs. per Day Estimated turns per da = 7.00 6 to 1 6 1 12 12 6,000 6,000 6 to 1 6 1 6 6 3,000 3,000 Total Ports 18 9,000 63,000 378,000 BLEACH OPERATION SUMMARY Total Lbs per Da 88,200 Total Gallons per Da 756,000 6.57 TOTAL PRODUCTION SUMMARY % D e= 38.7% % Bleachin 61.3% Lbs. per do 143,920 Pounds per 7 day week 1,007,440 Gallons per da 11510,560 10.50 APPLIED WATER TECHNOLOGY AWT WASTEWATER TREATMENT PLANT SCHEMATIC AERATION BASIN #2 ' VOLUME . 1,222, 000 gallons (2) 50 h.p. floating aerators L—SAMPLING LOCATION ,1 1 1 1 'r ' BASIN 1 r� 1 1 BAR SCREEN AERATION BASIN #1 VOLUME . 1,222,000 gallons (2) 50 h.p. floating aerators SLUDGE RETURN SLU1DGE CLARIFIER #138' diameter RETURN 10' sidewater depth CLARIFIER #2 SLUDGE PUMP STATION SLUDGE PUMP CHLORINE CONTACT WASTE & 2.0 MGD FLOW POST SLUDGE MEASUREMENT EQUALIZATION BASIN REAERATION BASIN WASTE SLUDGE DISPOSAL SLUDGE BY LAND APPLICATION (2) 10 h.p. floating HOLDING T TO AGRICULTURAL SITE aerators TANK 45,000 gallons 1.2 MGJJL1.0 MGD holding capacityFi.UlTiR_OYNASUREMENT 111C CLARK CREEK APPLIED WATER TECHNOLOGY AWT S1 h, land disposed. Proposed Wastewater Flow Schematic APPLIED WATER TECHNOLOGY A rY T 1 1 1 1 1 1 1 1 1 1 1 1 1 1 1 1 1 1 1 Estimation of WWTP Effluent Limit Characteristics at 1.5 MGD BOD5 (Avg Flow & Jan 97 lbs (worst casell X 1.5 = ((35.6 lbs/d) / (0.797 MGD)) * 1.5 MGD = 67 lbs/d COD (Avg Flow & Apr 97 lbs (worst case)) X 1.5 = ((1545.1 ibs/d) / (0.797 MGD)) * 1.5 MGD = 2908 lbs/d = (Avg Flow & Mar 97 lbs (worst case)) X 1.5 = ((254 lbs/d) / (0.797 MGD)) * 1.5 MGD = 478 lbs/d Ammonia (Avg Concentration) X 1.5 = 0.8 mg/L Chromium (&_vg Concentration) X 1.5 = 2.93 µg/L .,- Sulfides (Avew X1.5 = ((0.74 lbs/d) / (0.797 MGD)) * 1.5 MGD = 1.4 lbs/d Phengls (Ave Flow & lbs) X1.5 = ((0.08 lbs/d) I (0.797 MGD)) * 1.5 MGD = 0.151bs/d APPLIED WATER TECHNOLOGY AWT Della Mills VAVTP Characteristic M2LI& Averages Ma 96 Jun•95 Jtd-95 Au -96 ftoe Oct-96 NOv96 Dea96 Jart97 Fob-97 Mar-97 r-97 Average Est 1.5M Commvres •0.96055 Row 0.694 0.66a 0.6$6 0.769 0.75 0.734 0.912 0.654 0.823 0.91 0.94947 0.727 PH xxx XXXI xxx xxx xxxi xxx xxx XXXI xxx xxx MI xxx xxx t C 25 26.51 29.1 29 25.6 25 22 21 22 21.4 241 23.6 24.5 BOD 5 bs 20.3 24.9 11,95 16.2 17.6 19 23.5 32.6 35.6 16.4 15.7 t6.7 21.1 67.03 Avg Flow 6 Jan 97 Ibs fforg Case) COD 763 741 772.5 1047.9 675.9 803.8 9a6.3 812.5 057.6 1179.2 1249.3 1545.1 951.4 2909.1E Avg Flow E Apr 97 tba Drat Case) TSS s 103.7 191.5 t ri.4 t45.6 62 61.1 144.4 115.1 t06.4 81.8 254 113.5 126.0 476.24 Avg Row d Mar 9710s Mrst Case C-orKWwxs 227 205 354 279 275 267 205 229 302 374 404 236.6 2E7.2 Sate. Maser rrmLlL 4 0 0 0 0 0 0 0 0 0 0 0 0.0 Ammonia 1.9 0.73 O.S.0.53 0.77 0.$ 0.5 0.5 1.9 0.5 0.5 0.5 0.5 1.90 Avotago Concantra6on Chromium 6.9 1.5 1.4 2,3 1.E 11 0,675 4.1 51 3.4 4 2.E4 2.93 6.90 Avers Concerara5an Coeper 30 35.3 45.4 31.3 24 26.4 26 26.5 21.4 23.3 27.5 19.2 26.2 SUTA66 0.59 0.5 0.51 0.65 0.64 0.59 0.69 0.75 0,7t 0.7E 0.7E 1.65 0.7 1.39 Average Flow B lbs zinc 40 611.3 39.6 45.5 32 27.6 29.5 25.E 33.4 25 37.5 16.6 35.t PMnds bs 0.042 0.033 0.026 0.500 0.03 0.05 0.04 0,04 0.0E 0.04 0.04 0.05 0.0E 0,15 Aywage Row # Ws Residual Chlorkw 0.73 0.69 O.a 0.43 0.64 0.6E 0.72 0.95 0.26 0.94 0.914 0.23 0.77 1,46 Avwage Raw d the !Twmeralum 1s dvided klto tr o s: vdnter V20v - 6M and nmsner fuffy Typical design criteria. Typical design criteria for pri- mary circular clarification re described in Section 2V.3.2.1.2. Typical design criteria for polymer addition are shown below. Design criteria value Dosage Materials contacting polymer solutions Storage conditions Viscosity Determined by jar testing Type 316 stainless steel, FRP or plastic Cool and dry; storage period should be minimized Must be considered in feed- ing system design Costs. Purchased equipment and installation cost for esti- mation of the total capital investment includes primary sludge pumps; clarifier; chemical storage, chemical feeding, and rapid mixing tanks; piping and building -to house the feeding equipment; and bag storage. Cost varies according to the plant size as shown below. Plant size Factors affecting costs 0.1 Mgpd Manual operation offeeder, mix tank, solu- tion feeder, and holding tank are included in cost estimation; no separate building is required. 1 Mgpd and smaller Manual procedures are applied; two systems of tanks and feeders are included in cost estimation. 10 Mgpd Cost estimate includes feeders and mixing tanks, one day tank, and two solution feeders. 100 Mgpd Cost estimate includes four feeders and mix- ing tanks, two holding tanks, and 10 solu- tion feeders; rapid mix tank is concrete and equipped with stainless steel mixer and handrails. This cost assumption is based on primary circular clarification with polymer addition at a dosage of 1.0 mg/L and a cost of $1.50/lb. References. 1. innovative and Alternative Technology Assessment Manual, EPA-430/9-78-009 (draft), U.S. Environmental Protection Agency, Cincinnati, Ohio, 1978. Date: 6/23/80• 1V.3.3-15 E� 1G 4 0. 0. 0 01 h TOTAL CAPITAL INVESTMENT A5 35 1 ENR INDS(3119 0.1 a 1.0 10 100 FLOW, Mga IId Date: 6/23/80 IV.3.3-16 IV.3.6.3 Costs Purchased equipment and installation cost for estimation of the total capital -investment includes facilities for backwash stor- age, all feed and backwash pumps, piping, and building. The following operating characteristics were assumed for cost estima- tion of a dual -media filtration system: 'Operatin9 characteristic Assumedvalue Gravity filters TDH for backwash and feed pumps Run length Pump, efficiency Motor efficiency Centrifugal pumps Backwash holding tank IV.3.6.4 References 4 gpm/ft2 14 ft 12 hr; 15 min backwash at 15 gpm/ft2 70% 93% Capacity of two backwash cycles 1. innovative and Alternative Technology Assesszient Manual, EPA-430/9-78-009 (draft), U.S. Environmental Protection Agency, Cincinnati, Ohio, 1978. 252 pp. 2. Physical, Chemical, and Biological Treatment Techniques for Industrial Wastes, PB 275 287, U.S. Environmental Protection Agency, Washington, D.C.., November 1976. pp. 22-1-22-25. Date: 6/23/80 iv.3_6-3 10 10 0 0 L" 0 0.1 L- 0.1 Date: 6/23/80 TOTAL CAPITAL' INVESTMENT O, s 1, '0 ► ,S Flow, Mga 11d IV.3.6-4 ENR INDEX - 3119 10 100 IV.5.1.2 Typical.Design Criteria Typical design criteria for an granular activated carbon adsorp- tion process are -shown below. Design criterion ^Value Vessel size Arba loading Organic Loading Backwash Air scour Bed depth Contact time. Land area 2 - 12 ft diameter commonly used 2 -- 10 gpm/f tz 0.1 - 0.3 lb BODS(or 12 - 20 gpm/ftx 3 - 5 ft3/min/ft 5 - 30 £t 10--50min Minimal COD)/lb carbon t IV.5.1.3 Costs Purchased equipment and installation cost for estimation of 'the total capital investment includes vessels, media, pumps, carbon { storage tanks, controls, and operations building. Disposal, costs f; are not included. No regeneration is included; therefore, above `• 3 Mgal/d cost curves are extrapolated. The following operating characteristics were assumed for cost estimation. Operating characteristic Assumed value Loading rate 30 lb/Mgal 1' Contact time 30 min IV.5.1.4 References { 1. Innovative and Alternative Technology Assessment Manual, EPA-430/9-78--009 (draft), U.S. Environmental Protection Agency, Cincinnati, Ohio, 1978. '252 pp. Date: 6/23/80 IV.5.1--2 Ac.� ► J a �� �. csl �,.ca..+ to � � � ,� S � r �'�� � �� n, TOTAL CAPITAL INVESTMENT Phi 0.1 FLOW, Mgalld 1 1 1 )ate: 6/23/80 IV. 5.1-3 1 eO% 10 ENR INDEX - 3119 1 The design basis for reverse osmosis included 24-hr/d, 330-d/yr ' operation; pumps and filter, and cellulose acetate membranes in a spiral configuration. Fixed capital costs based on an ENR index of 3119 are estimated ' to be $16,000. Similarly, total capital cost is estimated to be $17,000. Estimation of annual operating cost is presented in the following table based on a flowrate of 3,300 gal/d. 1 Cost item. Annual cost,.$ 1 Direct operating cost Labor Membrane replacement Power Total Annual operating cost 1,320 (1/4-hr/d @$16/hr) 436 (replaced @2.5 yr) 375 ($0.035/kWh) 2,131 5,491 Cost curves were developed for total capital investment and ' annual operating cost using the cost data shown above and the following exponential scaling factors, which were used to deter- mine costs at varying flowrates: ' Exponential Cost item factor `Total capital investment 0.7 Labor 0.3 ' Power and chemicals 1.0 IV.5.9.4 References 1. Physical, Chemical, and Biological Treatment Techniques for t Industrial Wastes, PB 275 287, U.S. Environmental Protection Agency, Washington, D.C., November 1976. pp. 39-1 to 39-19. Date: 6/23/80 IV.5.9-3 1. 1 1 1 1 1 1 1 1 1 1 1 1 1 1 1 1 1 1 m 100 10 0 0 0 cn z 0 .5 I.5 1.0 a•b 0.1 0.01 0.1 Date: 6/23/80 TOTAL CAPITAL INVESTMENT Pam/ ENR INDEK---3119 o.s 1.01'S 10 FLOW, Mgasld IV. 5.9--4 100 Typical design criteria. A partial listing of typical de- sign criteria for the conventional activated sludge process is summarized below. Design criteria Value ' Mixed liquor suspended solids (MLSS) 1,500-3,000 mg/L Food -to -microorganism (F/M) ratio 0.25-0.5 lb BOD5/d/lb MLSS Sludge age 5-10 d The mixing equipment for aeration or oxygen transfer must be sized to keep the solids in uniform suspension at all times. De- pending on basin shape and depth, 4,000 mg/L of MLSS require about 0.75 to 1.0 hp/1,000 ft3 (0.02 to 0.03 kW/m3) of basin volume to prevent settling if mechanical aerators are employed. However, the power required to transfer the necessary oxygen will usually equal or exceed this value. Costs. Purchased equipment and installation cost for esti- mation of the total capital investment includes aeration basins. Clarifier and recycle pumps are not included. The following op- erating characteristics were assumed for cost estimation: Operating characteristic Assumed value Organic loading 1,200 mg/L BOD5 Oxygen requirement 1.1 lb 02 supplies/lb BOD5 removed MLSS 2,000 mg/L F/M 0.25 lb BODs/d/lb MLSS References. 1. innovative and Alternative Technology Assessment Manual, ' EPA-430/9-78-009 (draft), U.S. Environmentdl Protection Agency, Cincinnati, Ohio, 1978. 252 pp. Date: 6/23/80 IV.4.1-6 Ki 0.1 A O EI-XI-S Y►.. TOTAL CAPITAL INVESTMENT i ENR INDEX - 3119 i 102 103 104 105 LOAD i NG, lb/day BOD5 IV.4.1-7 BURLINGTON HF.SBARCH V CUSTOMER: IIEPORTTO: Aquatic aloassay Testing a Aquatic Toxicity Reduction Evaluations Chemical Product Environmental Assessments • NPOES 7estirlg Reporting a Data Handling Services 1302 Belmont Street a Burlington, NC 27215-6935 * (910) 570-4661 • Fax (910) 570-4698 �T_ ►- ANALYTICAL REPORT Delta Apparel, Inc. WORK ORDER #: 7M86-002 Mr. Alien Mcl; ee RECEIVED: 05/23/97 REPORTED: 06105/97 SAMPLE DESC: PERMIT MONITOR MAMPLE TYPE: - WASTEWATER, INFLUENT COMP OLI_ECTED: 05/21/9712:00 to 05/22/97 12:00 PO NUMBER: DA07301 Tlow ^�— I.pMvk� ' PARAMETER DATEMME/ANALYST ML RESULT Ammonia Nitrogen Started 05/31/97 12:38 0.1 1.8 mg/L ' EPA 350.1 Analyzed 05/31/97 by BMM BOD. 5-Day - Started 05/23/9713:05 1.0 237 mg/L z so ' EPA 405.1 Analyzed 05/28/97 by-RAw Chrmic4 Oxygen Demand Started 05/27/97 09:00 20.0 774 mg1L .SSA EPA 410.4 Analyzed 05/2-7/97 by LMB ' Chloride Started 05/27/9714:20 1.0 525 mg/L EPA 325.2 Analyzed 05/27/97 by BMM 'Solids. Total. Suspended Started 05/27/9710:35 1.0 10.0 mg/L EPA 160.2 Analyzed 05/27/97 by D1D Sulfate Started 05/27/9710:25 3.0 419 mg/L EPA 375.3 Analyzed 05/27/97 by DID Sulfide Started 05/27/97 08:30 -0.10 C 0.10- Mg/L ' EPA 376.2 Analyzed 05/27/97 by BCC Chromium, Total by ICPMS Started 05/27197 10:00 . 0.0007 0.0080 tME/L ' EPA 200.8 Analyzed 05/28/97 by RTW Copper, ToM1 by ICPMS Started 05/27/97 10:00 0.002 0.055 mg/L 0.06 EPA 2004 Analyzed 05/28/97 by RTW Zinc, Total by ICPMS Started 05/27/97 10:00 0.005 0.053 mg/L EPA 200.8 Analyzed 05/28/97 by RTW ' MQL r Minimum Quantitation Limit BOD5: 500 mg of Sodium Sulfite were added to .1000 ml of sample to remove Peroxide. ,�, r., r� t� C7G?C7 k_;:� .fliN 111997 L �� Page z "APPLIED ATER Tm 1 % t .. go (aam) L6 . t t Hns v IAdditional Calculations - Aeration Basin and Reaeration Basin ' Aeration Basin Influent BOD5 concentration: 237 mg1l @ 1.0 MGD Convert mg/1 to lbs/day (237 mg/l)(1 MGD)(8.34 lbs/gal) = 1,977 lbs/day For 0.5 MGD ' (1,977 lbs/day)(0.5 MGD) = 989 lbslday Dimensions of existing reaeration basin designed for 1.0 MGD flow: 2Y x50, x4' Volume: 5000 cf Convert cf to gal (5000 cf)(7.481 gal/cf) = 37,403 gallons ' Assume $1.001gallon ' Cost of 0.5 MGD Reaeration Basin = (37,403 gal)($1.00/gal)(0.5 MGD/1.0 MGD) = $ 18,700 t Cost of Aerator (10 Hp) provided in quote from Crocker and Associates = $ 9,390.00 Total Cost of Adding 0.5 MGD Reaeration Basin = $ 28,090.00 1 APPLIED WATER TECHNOLOGY AWT V., {r 1 1 1 1 CROCKER & ASSOCIATES, INC. Manufacturer's Representative 1131 Mt. Gallant Road - Rock Hill, SC 29732.803/329-5384 - Fax: 803/366-2515 May 13, 1997 Mr. Larry Horton, P.E. Applied Water Technology Raleigh, NC Fax #919/836-8595 Re: Western North Carolina Textile Industry -- Revised Quotation Dear Mr. Horton: Per the request of our associate, Mr. Bob Ward, we are pleased to present the following budget pricing for your review and consideration: Option_ 1 (8) 20HP Aqua -Jet II Covered Aerators Model CSS, 575 volt $12,3130.00 each x 8 units = $99,120.00 OR -pN- (16) 10HP Aqua -Jet II Covered Aerators Model CSS, 575 volt $9,390.00 each x 16 units = $150,240.00 Option 2 (6) 3HP Aqua -Jet (I Covered Aerators Model CSS, 575 volt $7,370.00 each x 6 units = $44,220.00 Accessories: Anti -Erosion Assembly for 10HP unit $260.00 each Anti -Erosion Assembly for 20HP unit $440.00-each 7 x 19 x 3/16" Mooring Cable .40/foot 3116" Mooring Clip $2.75 each 3116" Mooring Thimble $1.35 each #12-4 Electrical Cable for 3HP and 10HP units .851foot #10-4 Electrical Cable for 20HP units $1.10lfoot Delivery for any of the options is 10 to 12 weeks after receipt of purchase order or receipt of approved drawings. Should you have any questions or require additional information, please feel free to contact us. We appreciate your interest in Crocker and Associates, Inc. Best Regards, Crocker and Associates, Inc. A0_t1__ Kelly eater Sales Assistant M. A.Y t 1997 APPL"I"; --i' WA 4 t- 1ECHM)LOGY cc: Mr. Bob Ward, Crocker and Associates, Inc. 919/870-1927 phone 9 919/870-1932 fax