IN THE MATTER OF:
Petition ofNoveon, Inc.
for an Adjusted Standard from
35 
Iii. Adm. Code 304.122
)
)
)
)
)
)
)
RECEIVED
CLERK’S OFFICE
Dorothy M. Gunn, Clerk
Illinois Pollution Control Board
James R. Thompson Center
100 West Randolph Street
Suite 11-500
Chicago, IL 60601
Deborah Williams
Assistant Counsel
Division ofLegal Counsel
Illinois Environmental Protection
Agency
1021 N. Grand Avenue East
Springfield, IL 62794-9276
Bradley P. Halloran
Hearing Officer
Illinois Pollution Control Board
James R. Thompson Center
100 West Randolph Street
Suite 11-500
Chicago, IL 60601
PLEASE 
TAKE NOTICE 
that on 
Thursday, April 15, 
2004, we filed the attached
Support 
Requested By Illinois EPA for Data Referenced By Houston Flippin 
with the
Illinois Pollution Control Board, a copy of which is herewith served upon you.
Richard J. Kissel
Mark Latham
Sheila H. Deely
GARDNER CARTON & DOUGLAS LLP
191 N. Wacker Drive 
— 
Suite 3700
Chicago, IL 60606
Respectfully submitted,
NOVEON, INC.
APR 15 2004
BEFORE 
THE 
ILLINOIS POLLUTION CONTROL BOARDS
POII~tj~~OFControlILUNOISBoard
AS 02-5
NOTICE OF FILING
By:    
~
One ofIts Attome~
THIS FILING IS SUBMITTED ON RECYCLED PAPER
SUPPORT REQUESTED BY ILLINOIS EPA FOR DATA REFERENCED BY
HOUSTON FLIPPIN ON PAGES 12 
AND 
13 OF HIS TESTIMONY
2.0 METHODS AI41) 
MATERIALS
Phase 
I 
consisted 
of
characterization and batch treatabilitytesting ofthe five major wastestreams
and the primary clarifier effluent to evaluate their impact on biohydrolysis and nitrification by
activated sludge.  A summary of the flow contributions by the individual wastestreams is
presented in Table 2-1.
2.1 Wastestream Sampling, Preparation, and Characterization
BF Goodrich collected grab samples of the contents of the PVC Tank, the PC Tank, the Pond,
C-18 Tank, Well No. 3 discharge, and primary clarifier effluent on September 28, 1995 ‘and
shipped them by overnight courier to ECKENFELDER INC.’s laboratory in Nashville,
Tennessee.  All samples (except primary clarifier effluent) were subjected to the chemical
coagulation and sedimentation procedure provided in the WWTF as described below.
I. Adjustment to pH 
9.5 
standard units (s.u.) using either sodium hydroxide (NaOH) or
sulfuric acid (H2S04).
2.  Addition of 300 ppm FeCl3 followed by a rapid mix time of4 minutes.
3.  Addition of 1 ppm anionic polymer (DREWFLOC® 2205 manufactured by Drew
Industrial Division ofAshland Chemicals) followed by a rapid mix time of4 minutes.
4. Re-adjustment to pH 9.3 (±0.2)standardunits using either NaOH or H2S04.
5.  
Gentlemixing (flocculation) for 18 minutes.
6.  Settling for 90 minutes.
7.  Decanting ofsupernatant for subsequent characterization and testing.
The primary clarifier effluent and pretreated samples of the PVC Tank contents, PC Tank
contents, Pond Water, Well No. 3 discharge, and C-l 8 Tank contents were then split into two
aliquots. One aliquot was preserved and analyzed for total carbonaceous biochemical oxygen
demand (TCBOD), total chemical oxygen demand (TCOD), total Kjeldahl nitrogen (TKN),
ammonia-nitrogen (NH3-N), nitrite-nitrogen (N02-N), nitrate-nitrogen (N03-N), morpholine,
Q.\938701\TSR                                                       
3
TABLE 2-1
WASTESTREAM ORIGIN 
AND FLOW CONTRIBUTION
Wastestream Origin
FlowRate
Average
(gpm)
Range
(gpm)
Contributiona
()
Discharge from Pond                      
35               
25 
to 100            
4 
to 
16b
Well No. 
3                                      
7                   
7 to 11                 
1 
to 
2
Discharge from C-I
8 
Tank                  
7                
2 
to 
14              
0 
to 
2
Discharge from 
PVC 
Tank                
450            
330 
to 
490          
54 
to 
80
DischargefromPCTank
Combined Wastestream (i.e.,
Primary Clarifier Effluent)
110             
90to140          
15to23
609             
454 
to 
755
a1~ngeofcontribution to primary clarifier effluent based on a combined average primary clarifier effluent
flowrate of609 gpm.
bBold typeindicates target peak flowcontribution used in batchtreatability tests.
Q:’938701\TSTO2OI                                                                                
Page I oil
and total alkalinity.  The methods of preservation and analysis for these parameters are
summarized in Table 2-2.  The remaining aliquot of primary clarifier effluent and of the
pretreated wastestreams was kept refrigerated until used in the batch biohydrolysis test and the
first set of batch nitrification tests.
BF Goodrich also collected grab samples of primary clarifier effluent, the PVC Tank contents,
and PC Tank contents on October 19, 1995 and shipped them via overnight courier to
ECKENFELDER JNC.’s laboratory in Nashville, Tennessee. The PVC Tank contents and the PC
Tank contents were pretreated in the same manner as described above. The primary clarifier
effluent and the pretreated PVC and PC Tank contents were split into two aliquots. One aliquot
was preserved and analyzed for TCBOD, TCOD, TKN, NH3-N, and combined nitrite- plus
nitrate-nitrogen (N02-N plus N03-N). The remaining aliquot was refrigerated until used in the
second set ofbatch nitrification tests.
BF Goodrich recorded the flows of all wastestreams at the time of sampling. These flows were
coupled with wastestream characterization data to calculate the flow and load contribution of
each wastestream to the combined wastestream as monitored at the primary clarifiereffluent.
2.2 Biomass Preparation
Two types of biomass were used in the treatabilily testing as illustrated in Figure 2-1:
BF Goodrich biomass and “nitrifier-rich” biomass. BF Goodrich biomass was used in both the
batch biohydrolysis test and the batch nitrification tests. The nitrifier-rich biomass had been
cultured in ECKENFELDER INC.’s laboratory for over two years and was used only in the batch
nitrification tests.  
Both biomasses were acclimated to test conditions of 3 mg/L DO,
pH 7.7 ±0.2standard units, 22 ±2°C(for batch biohydrolysis tests), and 32±2°C(for batch
nitrification tests) as described below.
BF Goodrich collected grab samples of primary clarifier effluent and return activated sludge
(RAS) on September28, 1995 and October 19, 
1995, 
and shipped them to ECKENFELDER INC.’s
laboratory in Nashville, Tennessee. Upon arrival, the RAS was aerated at 3 mg/L DO for
1.0 hour to “freshen” the biomass. During aeration, the RAS was adjusted to pH 7.7 standard
units using NaOH. Aeration was then shut off and the mixed liquor was allowed to settle for one
hour. Sixty percent of the initial volume was decanted and replaced with primary clarifier
effluent which had been spiked with 35 mg P/L using phosphoric acid (H3P04). Aeration was
then restored andthe RAS was aerated for 24 hours at a mixed liquor DO and pH of3 mg/L and
Q:\938701\TSP.                                                        
4
TABLE 3-I
SUMMARY OF WASTESTREAM CHARACTERIZATION RESULTS
Sample
Wastestrearn Origin
PVC Tanka     
PC                  
Well     
C- 18 Tanka    
Primary
Collection          
Parameter                       
Tanka
ponda     
No. 3~
Clarifier
Date                                                                                
Effluent
9-28-95     
Flow, gpm                     
377        
109          
14           
7           
10          
517
Flow,  
of Primary Clarifier       
73          
21             
3              
1.4         
1.9          
--
Effluent
10-19-95    
Flow, gpm                     
412        
98           
9           
7           
8           
534
Flow,  
ofPrimaryClarifier      
77           
18            
2           
1.3         
1.5          
--
Effluent
Flow, 
,  
Evaluated During        
8 to 80     
0.2 to 23     
15 to 16    
1.7 to 1.8    
1.7 to 1.8     
0.8 to 85
TreatabilityStudies
9-28-95    
Total Alkalinity, mgIL            
340        
1,120        
30         
510       
4,300        
550
9-28-95    
TCBOD, mgIL                   
131         
1,998         
4        
52         
6,390        
669
TCBOD, b                       
14          
63           
0           
0           
18          
(95)C
10-19-95    
TCBOD, mg/L                 
114        
1,140       
NAd        
NA       
NA        
390
TCBOD,                       
23          
54        
NA        
NA        
NA        
(77)
9-28-95    
TCOD, mg/L                  
410       
4,900       
25          
90       
17,200       
1,840
TCOD,                      
16          
56           
0           
0           
18          
(90)
10-19-95    
TCOD, mg/L                  
545       
5,800e       
NA        
NA        
NA        
1,350
TCOD,                      
31            
79         
NA        
NA        
NA        
(110)
9-28-95    
TKN,mg/L                   
81           
290        
1           
10           
820         
150
TKN,         
39     
41     
0     
0     
11       
(91)
10-19-95  TKN, mg/L         
59    
270    
NA   
NA  
NA   
100
TKN,           
46     
50    
NA   
NA   
NA   
(96)
9-28-95    
NH3-N, mg/L         
50    
31      
0.6      
3       
280     
51
NH3-N,                       
71            
13            
0-        
0           
1                       
(85)
10-19-95   
NH3-N, mg/L                  
39          
42        
NA        
NA       
NA         
39
NH3-N,                       
77          
20        
NA        
NA        
NA         
(97)
9-28-95    
Morpholine, mgIL                
37        
418        
1            
16          
1,880        
169
Morpholine,                    
16            
52         
0           
0           
22          
(90)
9-28-95    
N02-N, mg/L                  
0.1         
0.1          
0.2       
0.1          
7.6        
0.1
N02-N,                     
Nd’      
NC       
NC        
NC        
NC        
(NC)
9/28/95     
N02-N 
+ 
N03-N, mgIL            
0.1          
Il        
28          
0.3          
13            
0.1
N02-N+N03-N,             
73         
100        
100         
4           
1                    
(100)
10-19-95   
N02-N 
+ 
N03-N, mg/L          
0.1          
11           
NA        
NA        
NA        
0.1
N02-N 
+ 
N03-N,               
77        
100        
NA        
NA        
NA       
(100)
Q\9387Ol\TSTO3OI                                                                                
Page I of2
TABLE 3-I (Continued)
SUMMARY OF WASTESTREAM CHARACTERIZATION RESULTS
Sample
Wastestrearn Origin
PVC Tanka     
PC                  
Well    
C-I 8 Tanka   
Primary
Collection          
Parameter                       
Tanka
ponda
No. 3a                    
Clarifier
Date                                                                                
Effluent
9-28-95    
Organic NitrogenS, mg/L
Organic Nitrogen,
31
23
259
55
0
0
7
0
540
II
99
(89)
10-19-95   
Organic Nitrogen, rng/L
Organic Nitrogen,
20
25
228
69
NA
NA
NA
NA
NA
NA
61
(94)
aCharacte~.j~ationfollowing sample pretreatment described in Section 2.1.
bContrjbution of individual wastestreams to measured primary clarifier effluent load.
CValues in parentheses represent percentage calculated by summing contributions of individual wastestreams,
dNot analyzed.
eValue determinedby BFG at time ofsampling.
~Notcalculable.
gCalculated as difference between TKN andNH3-N concentrations.
Q:\9387 Ol\TSTO3OI                                                                                
Page 2 of2
Wastestream                  
PVC Tank PC Tank 
C-i8 Tank Well No. 3    
Total
Table 2-1
Average Flowrate, 
gpm
Maximum, gpm
Minimum, gpm
Factor
Factored Average
Factored Maximum
450      
110        
7
490     
140       
14
330   
90    
2
0.89      
0.97     
0.86
401       
107        
6
42      
609
III    
755 Essentially used these maximums as future maximums.
32      
454
1.10          
Factor used to scale to future based on discussions with Noveon.
46      
560
Table 3-1
9/2812004 Flow, gpm
10/19/2004 Flow, gpm
Average
Maximum
Factor
Factored Average
Factored Maximum
Presented Average, gpm
Presented Maximum, gpm
401      
107
499      
150
6        
46      
560
15        
105      
769
Table 3-1
9/28/2004 TCBOD, mg/I
10/19/2004 TCBOD, mg/L
Average, mg/L
Maximum, mg/L
9/28/2004 TCBOD, lbs/day
10/19/2004 TCBOD, lbs/day
Average (9/28-10/19), lbs/day
Design Average, lbs/day
Factor
Design Maximum, lbs/day
Factor
Presented Average, lbs/day
Presented Maximum, lbs/day
131     
1998     
6390
114     
1140       
NA
123     
1569     
6390
131     
1998     
6390
593     
2613     
767
564     
1341
578     
1977      
767
589     
2015     
460
1.35      
1.23     
0.86
784     
3596     
1150
1.66     
0.90     
0.77
795     
2485      
395
1300     
3250      
880
5     
3978
5     
3327
11
1.36
25
0.60
15     
3690
15     
5445
9/2812004 TCOD, mg/I
10/19/2004 TCOD, mg/L
Average, mg/L
Maximum, mg/L
9/28/2004 TCOD, lbs/day
10/19/2004 TCOD, lbs/day
Average (9/28-10/19), lbs/day
Design Average, lbs/day
Factor
410     
4900    
17200
545    
5800      
NA
478     
5350    
17200
545     
5800    
17200
1855     
6409    
2064
2694     
6821
2275     
6615    
2064
2298     
6869     
1238
1.15      
1.21      
1.07
47
NA
47
47
12    
10340
12    
10966
26    
10431 Design Ave.FlowX Ave. Meas. Conc.
1.93          
Factor used to scale to future based on discussions with Noveon.
377      
109      
10         
21       
517
412       
98        
8        
16      
534
395      
104        
9        
19      
526
20
NA
20
20
Design Ave.FlowX Ave. Meas. Conc.
Factor used to scale to future based on discussions with Noveon.
Design Max.FlowX Max. Meas. Cone.
Factor used to scale to future based on discussions with Noveon.
Wastestream                  
PVC Tank PC Tank C-I8 Tank Well No. 3   
Total
Design Maximum, lbs/day             
3263    
10440    
3096         
59           
Design Max.Flow X Max. Meas. Cone.
Factor                               
1.33     
1.04     
0.96       
0.84         
Factor used to scale to future based on discussions with Noveon.
Presented Average, lbs/day           
2650    
8280     
1320        
50    
12300
Presented Maximum, lbs/day         
4330    
10840    
2940        
50    
18160
9/28/2004 TKN, mg/I                   
81       
290      
820         
4
10/19/2004 TKN, mg/L                 
59      
270      
NA       
NA
Average, mgiL                      
70      
280      
820         
4
Maximum, mg/L                      
81        
290      
820         
4
9/28/2004 TKN, lbs/day               
366     
379       
98          
1        
845
1011 9/2004 TKN, lbs/day              
292     
318
Average (9/28-1 0/1 9), lbs/day          
329      
348       
98         
1            
777
Design Average, lbs/day               
337     
360       
59         
2      
758 Design Ave. Flow X Ave. Meas. Cone.
Factor                            
1.36     
1.37     
1.39      
1.36          
Factor used to scaleto future based on discussions with Noveon.
Design Maximum, lbs/day             
485     
522      
148         
5          
Design Max.FlowX Max. Meas. Cone.
Factor                            
1.32      
1.33     
1.34      
1.39          
Factor used to scale to future based on discussions with Noveon.
Presented Average, lbs/day            
459     
494       
82         
3     
1038
Presented Maximum, lbs/day           
640      
693      
198         
7     
1538
9/28/2004 Nl13-N, mg/I                 
50      
31       
280       
1.2
10/19/2004 NH3-N, mg/L               
39        
42      
NA       
NA
Average, mg/L                       
45      
37      
280         
1
Maximum, mg/L                      
50      
42      
280       
1.2
9/28/2004 TCBOD, lbs/day            
226    
2461     
6935         
0     
9622
10119/2004 TCBOD, lbs/day           
193      
49
Average (9/28-10/19), lbs/day          
210     
1255     
6935         
0     
8400
Design Average, lbs/day              
214      
47       
20          
I   
282 Design Ave.FlowX Ave. Meas. Cone.
Factor                             
1.38     
1.32     
1.34       
1.51           
Factor used to scale to future based on discussions with Noveon.
Design Maximum, lbs/day              
299       
76       
50          
2        
Design Max.FlowX Max. Meas. Cone.
Factor                            
1.37      
1.15     
1.31       
1.98          
Factor used to scale to future based on discussions with Noveon.
Presented Average, lbs/day            
295       
62      
27         
1        
385
Presented Maximum, lbs/day           
411        
87        
66          
3      
567
CERTIFICATE OF SERVICE
The undersigned certifies that a copy ofthe foregoing Notice 
of Filing 
and 
Support Requested
By Illinois EPA for Data Referenced By Houston Flippin 
was filed by hand delivery with the
Clerk ofthe Illinois Pollution Control Board and served upon the parties to whom said Notice is
directed by
Dorothy M. Gunn, Clerk
Illinois Pollution Control Board
James R. Thompson Center
100 West Randolph Street
Suite 11-500
Chicago, IL 60601
(personal delivery)
Deborah Williams
Assistant Counsel
Division ofLegal Counsel
Illinois Environmental Protection
Agency
1021 N. Grand Avenue East
Springfield, IL 62794-9276
(first class mail and electronic
delivery)
Bradley P. Halloran
Hearing Officer
Illinois Pollution Control Board
James R. Thompson Center
100 West Randolph Street
Suite 11-500
Chicago, 
IL 60601
(personal delivery)
on Thursday, April 
15, 
2004.
A4~L
,~/42~x~
r