Summary of UPLs using emission averages ‐‐ Oil‐fired units

Mean (lb/MMBtu) UPL (lb/MMBtu)

Number of

units in the

floor

Floor

value,

lb/TBtu

Mean (lb/MMBtu) UPL (lb/MMBtu)

Num

units 

flo

Antimony (Sb) 8.6708E‐08 1.9652E‐07 7 0.2 2.1226E‐08 7.3180E‐08 

Arsenic (As) 2.7023E‐07 5.4091E‐07 7 0.6 1.6383E‐07 1.6975E‐07 

Beryllium (Be) 2.7199E‐08 5.6981E‐08 7 0.06 1.6033E‐08 4.7659E‐08 

Cadmium (Cd) 4.3958E‐08 9.2940E‐08 7 0.1 1.4205E‐08 4.2446E‐08 

Chromium (Cr) 7.8696E‐07 1.5677E‐06 7 2 4.3092E‐07 1.2688E‐06 

Cobalt 5.8610E‐07 2.0215E‐06 7 3 8.0152E‐08 4.0255E‐07 Lead (Pb) 6.4748E‐07 1.9103E‐06 7 2 1.3693E‐07 5.7816E‐07 

Manganese (Mn) 1.4568E‐06 4.3093E‐06 7 5 5.2749E‐07 2.6576E‐06 Nickel (Ni) 2.3887E‐06 7.2536E‐06 7 8 7.8153E‐07 2.5569E‐06 Selenium (Se) 5.0320E‐07 1.0922E‐06 7 2 1.8038E‐07 2.7208E‐07 

Mean (lb/MW) UPL (lb/MW)

Number of

units in the

floor

Floor

value,

lb/GWh

Mean (lb/MW) UPL (lb/MW)

Num

units 

flo

Antimony (Sb) 1.1052E‐06 2.4682E‐06 7 0.003 3.1152E‐07 1.0740E‐06 

Arsenic (As) 3.2301E‐06 6.8826E‐06 7 0.007 1.4986E‐06 1.5529E‐06 

Beryllium (Be) 3.2934E‐07 6.2782E‐07 7 0.0007 2.2836E‐07 6.7882E‐07 

Cadmium (Cd) 4.8715E‐07 1.0240E‐06 7 0.002 1.2994E‐07 3.8828E‐07 Chromium (Cr) 8.9730E‐06 1.8550E‐05 7 0.02 3.9709E‐06 1.1692E‐05 Cobalt 6.1582E‐06 1.9352E‐05 7 0.02 1.1416E‐06 5.7337E‐06 Lead (Pb) 7.2271E‐06 2.0418E‐05 7 0.03 1.2618E‐06 5.3277E‐06 

Manganese (Mn) 1.8763E‐05 5.9894E‐05 7 0.06 4.8608E‐06 2.4490E‐05 

Nickel (Ni) 2.8419E‐05 7.8157E‐05 7 0.08 1.1470E‐05 3.7526E‐05 

Selenium (Se) 6.1244E‐06 1.3004E‐05 7 0.02 2.5693E‐06 3.8753E‐06 

New (99 UPL)

Existing (99 UPL) New (99 UPL)

Existing (99 UPL)
Northport Northport

ORIS/Facility/Unit 2516 2516

Test Averages Unit2 Unit3

1 6.661333E-09 9.305667E-09

2

3

4

5

6

7

8

9

10

11

12

13

14

15

16

17

18

19

20

21

22

23

24

25

26

27

28

29

30

31

32

33

34

35

ni = number test runs = 1 1

Total Number of sources = 7

n =Total # test runs = 7

1

N

i

i

n





N
6

This step is for QC only:

means 6.66E-09 9.31E-09

1.99E-08

Mean =

Pooled Variance = 7.0904E-17

m= number future runs = 1

Term1 1.1429

Term2 8.1033E-17

Squared root Term2 9.00186E-09

NOTE: the pvalue for the t-statistic is calculated as: 2*alpha, where 1-alpha is desired confidence, so if 99%

t-statistic

= quantile t-distribution 

with df degrees of freedom 

at .99 confidence level = 3.14

UPL POOLED VARIANCE = 4.8170E-08

 2 2

1

1

1

n

i

i

s x X

n 

   

1 1

1 N ni

ij

i j

X x

n  

 

1 1

n m



2 1 1

s

n m

      

1

1

N

i

i

df n 

        

d f t

2 1 1

s

n m

      

1

1 ni

i ik

i k

x x

n 

 

2 1 1 X df p t s        
2

,

1 1 Xt s df p n m

       
William F Wyman Waiau C D McIntosh Jr Honolulu

1507 766 676 764

1 W7 Unit 2 H9

2.032616E-08 2.483333E-08 2.553333E-08 2.553333E-08

1111

Emissions (lb/
2.03E-08 2.48E-08 2.55E-08 2.55E-08

Skewness =

SE Skewness

Skewness Test

Kurtosis =

SE Kurtosis

Kurtosis Test

Number of test runs =

% confidence is desired then alpha=0.01 and 2*alpha=2*(0.01)
PSEG Sewaren Generating Station

2411

SEWU3E3PT3OS0

2.696667E-08

1

/MMBtu)
2.70E-08

Distribution of Normal Tests Distribution of Log Tests

-1.04E+00 #DIV/0!

0.93 #DIV/0!

normal #DIV/0!

-9.26E-01 #DIV/0!

1.85 #DIV/0!

normal #DIV/0!

7 0 REsult: normal
Acid_Gas_oil

primary_fuel ORIS code Plant Name physical_state Unit Number

oil 2493 East River NY 60

oil 638 Suwannee River Plant FL Suw_Cfg_1

oil 2378 BL England NJ 3

oil 676 C D McIntosh Jr FL Unit 2

oil 667 Northside Generating Station FL 3

oil 6042 Manatee FL PMT01

oil 6043 Martin FL PMR02

oil 2517 Port Jefferson NY Unit4

oil 3148 PPL Martins Creek PA U3

oil 638 Suwannee River Plant FL Suw_Cfg_2

oil 562 Middletown CT 2

oil 2480 Danskammer Generating Station NY 1

oil 991 Eagle Valley IN 1

oil 991 Eagle Valley IN 2

oil 765 Kahe HI K3

oil 548 Norwalk ‐ Norwalk Power LLC CT 2

oil 2516 Northport NY Unit3

oil 3148 PPL Martins Creek PA U4

oil 2480 Danskammer Generating Station NY 2

oil 990 Harding Street IN 09

oil 6043 Martin FL PMR01

oil 621 Turkey Point FL PTF02

oil 766 Waiau HI W7

oil 617 Port Everglades FL PPE03

oil 617 Port Everglades FL PPE04

oil 764 Honolulu HI H8

oil 765 Kahe HI K1

oil 990 Harding Street IN 10

oil 766 Waiau HI W6

oil 1507 William F Wyman ME 2

oil 621 Turkey Point FL PTF01

oil 546 Montville Station CT 5

oil 764 Honolulu HI H9

oil 1682 Cleary‐Flood Generating Station MA 8

oil 2411 PSEG Sewaren Generating Station NJ SEWU3E3PT3OS0

oil 2516 Northport NY Unit2

oil 8906 Astoria Generating Station NY A‐S0003

oil 3809 Yorktown VA Unit 3

oil 638 Suwannee River Plant FL Suw_Cfg_3

oil 3181 Mitchell Power Station PA 003

oil 715 McManus GA Unit 1

oil 2411 PSEG Sewaren Generating Station NJ SEWU4E4PT4OS0

Page 8359
Acid_Gas_oil

oil 6042 Manatee FL PMT02

oil 1564 Vienna Generating Station MD Unit 8

oil 3804 Possum Point VA Unit 5

oil 1642 West Springfield MA Unit 3

oil 8054 Gerald Andrus MS 001

oil 3181 Mitchell Power Station PA 001

oil 2411 PSEG Sewaren Generating Station NJ SEWU1E1PT1OS0

oil 2050 Baxter Wilson MS 001

oil 3319 Jefferies SC J2

oil 1507 William F Wyman ME 1

oil 3159 Cromby Generating Station PA Unit 2

oil 3161 Eddystone Generating Station PA Unit 3

oil 3161 Eddystone Generating Station PA Unit 4

oil 2500 Ravenswood NY 30

oil 2500 Ravenswood NY 20

oil 8002 Newington Station NH nt1

Page 8360
Acid_Gas_oil

Unit Type Boiler_type Boiler_count Total_Capacity_MWe

MW

Conventional Boiler Wall firing ‐ opposed firing 1 129

Conventional Boiler Tangential firing 1 31

Conventional Boiler Tangential firing 1 177

Conventional Boiler Wall firing ‐ front firing 1 115

Conventional Boiler Wall firing ‐ front firing 1 538

Conventional Boiler Wall firing ‐ front firing 1 841

Conventional Boiler Wall firing ‐ front firing 1 859

Conventional Boiler Tangential firing 1 190

Conventional Boiler Tangential firing 1 884

Conventional Boiler Wall firing ‐ front firing 1 31

Conventional Boiler Wall firing ‐ front firing 1 125

Conventional Boiler Tangential firing 1 65

Conventional Boiler Concentric firing 1 42

Conventional Boiler Concentric firing 1 42

Conventional Boiler Tangential firing 1 92

Conventional Boiler Tangential firing 1 178

Conventional Boiler Tangential firing 1 375

Conventional Boiler Tangential firing 1 812

Conventional Boiler Tangential firing 1 68

Conventional Boiler Concentric firing 1 37

Conventional Boiler Wall firing ‐ front firing 1 859

Conventional Boiler Wall firing ‐ front firing 1 407

Conventional Boiler Tangential firing 1 92

Conventional Boiler Wall firing ‐ front firing 1 395

Conventional Boiler Wall firing ‐ front firing 1 395

Conventional Boiler Wall firing ‐ front firing 1 56

Conventional Boiler Wall firing ‐ front firing 1 92

Conventional Boiler Concentric firing 1 37

Conventional Boiler Wall firing ‐ front firing 1 58

Conventional Boiler Wall firing ‐ front firing 1 53

Conventional Boiler Wall firing ‐ front firing 1 421

Conventional Boiler Tangential firing 1 81

Conventional Boiler Wall firing ‐ front firing 1 57

Conventional Boiler Wall firing ‐ front firing 1 28

Conventional Boiler Tangential firing 1 109

Conventional Boiler Tangential firing 1 375

Conventional Boiler Tangential firing 1 388

Conventional Boiler Tangential firing 1 843

Conventional Boiler Wall firing ‐ front firing 1 75

Conventional Boiler Vertical firing 1 44

Conventional Boiler Wall firing ‐ front firing 1 45

Conventional Boiler Tangential firing 1 124

Page 8361
Acid_Gas_oil

Conventional Boiler Wall firing ‐ front firing 1 854

Conventional Boiler Tangential firing 1 162

Conventional Boiler Tangential firing 1 840

Conventional Boiler Tangential firing 1 104

Conventional Boiler Wall firing ‐ unspecified 1 737

Conventional Boiler Vertical firing 1 44

Conventional Boiler Tangential firing 1 104

Conventional Boiler Tangential firing 1 408

Conventional Boiler Wall firing ‐ rear firing 1 44

Conventional Boiler Wall firing ‐ front firing 1 52

Conventional Boiler Tangential firing 1 223

Conventional Boiler Tangential firing 1 395

Conventional Boiler Tangential firing 1 395

Conventional Boiler Tangential firing 1 979

Conventional Boiler Tangential firing 1 366

Conventional Boiler Tangential firing 1 421

Page 8362
Acid_Gas_oil

Total_max_heat_input Unit_heat_rate Fuel types

MMBtu/hr Mmbtu/MWh

1930 14.91 No.6 Fuel Oil (residual or bunker C)

315 10.16 No.6 Fuel Oil (residual or bunker C)

1720 9.72 oil ‐ residual or bunker

1185 10.33 No.6 Fuel Oil (residual or bunker C)

4857 9.03 No.6 Fuel Oil (residual or bunker C)

8650 10.29 No.6 Fuel Oil (residual or bunker C)

9040 10.52 No.6 Fuel Oil (residual or bunker C)

1850 9.74 No.6 Fuel Oil (residual or bunker C)

7721 8.74 No.6 Fuel Oil (residual or bunker C)

353 11.39 No.6 Fuel Oil (residual or bunker C)

1173 9.39 No.6 Fuel Oil (residual or bunker C)

650 9.95

524 12.48 No.2 Fuel Oil (distillate)

524 12.48 No.2 Fuel Oil (distillate)

892 9.70 No.6 Fuel Oil (residual or bunker C)

1776 9.98 No.6 Fuel Oil (residual or bunker C)

3650 9.73 No.6 Fuel Oil (residual or bunker C)

7721 9.51 No.6 Fuel Oil (residual or bunker C)

650 9.63 No.6 Fuel Oil (residual or bunker C)

527 14.24 No.2 Fuel Oil (distillate)

9040 10.52 No.6 Fuel Oil (residual or bunker C)

4000 9.83 No.6 Fuel Oil (residual or bunker C)

922 10.02 No.6 Fuel Oil (residual or bunker C)

4000 10.13 No.6 Fuel Oil (residual or bunker C)

4000 10.13 No.6 Fuel Oil (residual or bunker C)

589 10.52 No.6 Fuel Oil (residual or bunker C)

903 9.82 No.6 Fuel Oil (residual or bunker C)

527 14.24 No.2 Fuel Oil (distillate)

637 10.99 No.6 Fuel Oil (residual or bunker C)

630 11.93 No.6 Fuel Oil (residual or bunker C)

4000 9.50 No.6 Fuel Oil (residual or bunker C)

995 12.28 No.6 Fuel Oil (residual or bunker C)

632 11.08 No.6 Fuel Oil (residual or bunker C)

335 11.96 Note 1: separate samples were taken for No. 6 and No. 2 oil

1600 14.71 No.6 Fuel Oil (residual or bunker C)

3650 9.73 No.6 Fuel Oil (residual or bunker C)

4074 10.49 No.6 Fuel Oil (residual or bunker C)

8883 10.54 No.6 Fuel Oil (residual or bunker C)

761 10.15 No.6 Fuel Oil (residual or bunker C)

600 13.64 No.6 Fuel Oil (residual or bunker C)

450 10.00

1700 13.71 No.6 Fuel Oil (residual or bunker C)

Page 8363
Acid_Gas_oil

8650 10.13 No.6 Fuel Oil (residual or bunker C)

2317 14.35 No.6 Fuel Oil (residual or bunker C)

8471 10.08 No.6 Fuel Oil (residual or bunker C)

1150 11.06 No.6 Fuel Oil (residual or bunker C)

6650 9.02 No.6 Fuel Oil (residual or bunker C)

600 13.64 No.6 Fuel Oil (residual or bunker C)

1550 14.90 No.6 Fuel Oil (residual or bunker C)

4900 12.01 No.6 Fuel Oil (residual or bunker C)

514 11.68 No.6 Fuel Oil (residual or bunker C)

630 12.07 No.6 Fuel Oil (residual or bunker C)

2300 10.31 No.6 Fuel Oil (residual or bunker C)

4546 11.51 No.6 Fuel Oil (residual or bunker C),  other‐‐Natural Gas

4546 11.51 No.6 Fuel Oil (residual or bunker C),  other‐‐Natural Gas

9702 9.91 No.6 Fuel Oil (residual or bunker C),  other‐‐natural gas

3357 9.17 No.6 Fuel Oil (residual or bunker C),  other‐‐natural gas

4350 10.33 No.6 Fuel Oil (residual or bunker C),  other‐‐Natural Gas

Page 8364
Acid_Gas_oil

Fuel_Cl_lb/MMBtu Fuel_F_lb/MMBtu Chlorine ‐ ERT Chlorine MW ‐ ERT Chlorine ‐ ETTS

lb/MMBtu lb/MMBtu lb/MMBtu lb/MW lb/MMBtu

1.06E‐03

3.17E‐03 7.93E‐04

1.66E‐03 5.33E‐04 5.71E‐04 5.90E‐03

1.15E‐02 4.27E‐03

5.78E‐03 2.16E‐03

5.17E‐04 5.17E‐04

1.08E‐03 9.01E‐04

1.08E‐02 6.69E‐04

1.13E‐03

3.85E‐04 1.54E‐04

3.85E‐04 1.54E‐04

4.49E‐03

1.91E‐03 5.16E‐04

1.78E‐03 9.01E‐04

5.44E‐03

1.95E‐03 1.57E‐04

4.25E‐03 2.16E‐03

6.01E‐03 3.83E‐03

7.04E‐03

1.36E‐02 4.22E‐03

6.63E‐03 4.31E‐03

1.95E‐03 1.57E‐04

5.23E‐03

9.18E‐03 3.22E‐03

5.61E‐03 3.69E‐03

1.25E‐03

1.32E‐02 6.39E‐04

3.32E‐03 1.04E‐03

3.80E‐03 5.15E‐04

5.33E‐03 9.59E‐04

5.24E‐03 8.89E‐04

5.70E‐03 6.69E‐04

4.07E‐04 7.22E‐04

4.86E‐03 5.28E‐04

Page 8365
Acid_Gas_oil

8.15E‐03 4.27E‐03

1.09E‐02 8.18E‐04

4.67E‐03 2.19E‐03

8.95E‐03 5.22E‐06

1.34E‐02 1.11E‐02

4.07E‐04 7.22E‐04

2.79E‐03 1.06E‐04

6.59E‐03 8.49E‐03

1.90E‐02 1.07E‐02

5.52E‐03 3.76E‐03

1.62E‐02 6.12E‐04

1.62E‐02 6.12E‐04

5.33E‐03 5.33E‐04

7.25E‐03 5.67E‐04

Page 8366
Acid_Gas_oil

Chlorine MW ‐ ETTS Chlorine ‐ Part II Chlorine MW ‐ Part II Chlorine ‐ min Chlorine MW ‐ min

lb/MW lb/MMBtu lb/MW lb/MMBtu lb/MW

5.71E‐04 5.90E‐03

Page 8367
Acid_Gas_oil

HCN ‐ ERT HCN MW ‐ ERT HCN ‐ ETTS HCN MW ‐ ETTS HCN ‐ Part II HCN MW ‐ Part II HCN ‐ min

lb/MMBtu lb/MW lb/MMBtu lb/MW lb/MMBtu lb/MW lb/MMBtu

1.78E‐06 2.66E‐05 1.78E‐06

4.52E‐05 4.60E‐04 4.52E‐05

5.00E‐04 5.16E‐03 5.00E‐04

6.97E‐05 6.30E‐04 6.97E‐05

3.21E‐04 3.30E‐03 3.21E‐04

1.86E‐04 1.95E‐03 1.86E‐04

3.53E‐06 3.43E‐05 3.53E‐06

1.79E‐05 1.57E‐04 1.79E‐05

3.23E‐05 3.68E‐04 3.23E‐05

4.15E‐04 3.90E‐03 4.15E‐04

1.39E‐04 1.38E‐03 1.39E‐04

2.58E‐05 3.22E‐04 2.58E‐05

2.58E‐05 3.22E‐04 2.58E‐05

1.93E‐05 1.87E‐04 1.93E‐05

8.39E‐04 8.37E‐03 8.39E‐04

3.21E‐06 3.13E‐05 3.21E‐06

1.85E‐05 1.76E‐04 1.85E‐05

1.59E‐04 1.53E‐03 1.59E‐04

1.92E‐05 2.74E‐04 1.92E‐05

3.95E‐04 4.16E‐03 3.95E‐04

5.17E‐04 5.08E‐03 5.17E‐04

2.83E‐05 2.83E‐04 2.83E‐05

6.60E‐04 6.68E‐03 6.60E‐04

4.31E‐04 4.37E‐03 4.31E‐04

2.92E‐05 3.07E‐04 2.92E‐05

3.29E‐05 3.23E‐04 3.29E‐05

2.53E‐05 3.60E‐04 2.53E‐05

2.93E‐05 3.22E‐04 2.93E‐05

5.90E‐04 7.04E‐03 5.90E‐04

4.18E‐04 3.97E‐03 4.18E‐04

3.79E‐04 4.66E‐03 3.79E‐04

3.15E‐05 3.49E‐04 3.15E‐05

1.92E‐03 2.30E‐02 1.92E‐03

1.54E‐04 2.27E‐03 1.54E‐04

3.99E‐06 3.88E‐05 3.99E‐06

9.39E‐04 9.86E‐03 9.39E‐04

4.39E‐05 4.63E‐04 4.39E‐05

2.10E‐04 2.13E‐03 2.10E‐04

2.96E‐05 4.04E‐04 2.96E‐05

2.05E‐04 2.81E‐03 2.05E‐04

Page 8369
Acid_Gas_oil

7.07E‐04 7.16E‐03 7.07E‐04

5.33E‐05 7.65E‐04 5.33E‐05

4.05E‐05 4.08E‐04 4.05E‐05

9.77E‐05 8.82E‐04 9.77E‐05

3.36E‐05 4.58E‐04 3.36E‐05

1.78E‐04 2.65E‐03 1.78E‐04

2.50E‐04 3.01E‐03 2.50E‐04

1.39E‐05 1.62E‐04 1.39E‐05

6.96E‐04 8.40E‐03 6.96E‐04

3.34E‐03 3.45E‐02 3.34E‐03

1.26E‐03 1.45E‐02 1.26E‐03

1.26E‐03 1.45E‐02 1.26E‐03

2.84E‐06 2.81E‐05 2.84E‐06

3.58E‐06 3.29E‐05 3.58E‐06

3.55E‐05 3.67E‐04 3.55E‐05

Page 8370
Acid_Gas_oil

HCN MW ‐ min Hydrogen Chloride ‐ ERT Hydrogen Chloride MW ‐ ERT Hydrogen Chloride ‐ ETTS

lb/MW lb/MMBtu lb/MW lb/MMBtu

2.66E‐05 1.02E‐05

4.60E‐04 3.18E‐04 3.23E‐03

5.16E‐03 1.57E‐04 1.62E‐03 1.67E‐04

6.30E‐04 9.68E‐04 8.74E‐03

3.30E‐03 2.70E‐04

1.95E‐03 5.58E‐04

3.43E‐05 2.47E‐04 2.40E‐03

1.57E‐04 8.77E‐04 7.66E‐03

3.68E‐04 7.35E‐04 8.37E‐03

3.90E‐03 9.10E‐04 8.54E‐03

1.38E‐03 8.25E‐04 8.22E‐03

3.22E‐04 9.35E‐05 1.17E‐03

3.22E‐04 9.35E‐05 1.17E‐03

1.87E‐04 2.42E‐04 2.35E‐03

8.37E‐03 1.45E‐03 1.44E‐02

3.13E‐05 2.16E‐04 2.10E‐03

1.76E‐04 9.41E‐04 8.94E‐03

1.53E‐03 8.00E‐04 7.70E‐03

2.74E‐04 9.59E‐05 1.37E‐03

4.16E‐03 1.12E‐03

5.08E‐03 9.16E‐04

2.83E‐04 1.45E‐04 1.45E‐03

6.68E‐03 6.08E‐04

4.37E‐03 7.37E‐04

3.07E‐04 7.68E‐04 8.08E‐03

3.23E‐04 9.68E‐05 9.50E‐04

3.60E‐04 1.13E‐04 1.61E‐03

3.22E‐04 3.33E‐04 3.66E‐03

7.04E‐03 3.70E‐04

3.97E‐03 8.20E‐04

4.66E‐03 9.40E‐04 1.16E‐02

3.49E‐04 6.93E‐04 7.68E‐03

2.30E‐02 8.45E‐04 1.01E‐02

2.27E‐03 1.44E‐03 2.12E‐02

3.88E‐05 1.88E‐04 1.83E‐03

9.86E‐03 8.26E‐04 8.67E‐03 8.26E‐04

4.63E‐04 6.73E‐04 7.09E‐03

2.13E‐03 2.04E‐03 2.07E‐02

4.04E‐04 4.65E‐04 6.34E‐03

1.07E‐03 1.07E‐02

2.81E‐03 8.97E‐04 1.23E‐02

Page 8371
Acid_Gas_oil

7.16E‐03 5.72E‐04

7.65E‐04 1.41E‐03 2.03E‐02

4.08E‐04 6.59E‐04 6.65E‐03

1.38E‐03 1.53E‐02

8.82E‐04 5.62E‐04

4.58E‐04 4.08E‐04 5.57E‐03

2.65E‐03 3.70E‐03 5.51E‐02

3.01E‐03 3.52E‐03

1.62E‐04 2.49E‐02 2.91E‐01

8.40E‐03 1.08E‐03

3.45E‐02

1.45E‐02 2.28E‐04

1.45E‐02 2.28E‐04

2.81E‐05 1.38E‐04 1.37E‐03

3.29E‐05 2.38E‐04 2.18E‐03

3.67E‐04 2.33E‐03 2.41E‐02

Page 8372
Acid_Gas_oil

Hydrogen Chloride MW ‐ ETTS Hydrogen Chloride ‐ Part II Hydrogen Chloride MW ‐ Part II

lb/MW lb/MMBtu lb/MW

1.52E‐04

3.30E‐04 3.21E‐03

1.72E‐03

2.77E‐03

5.88E‐03

1.18E‐02

9.01E‐03

6.16E‐03

7.46E‐03

4.42E‐03

7.79E‐03

8.67E‐03

Page 8373
Acid_Gas_oil

5.79E‐03

5.07E‐03

4.23E‐02

1.30E‐02

2.63E‐03

2.63E‐03

Page 8374
Acid_Gas_oil

Hydrogen Chloride ‐ min Hydrogen Chloride MW ‐ min Hydrogen Fluoride ‐ ERT

lb/MMBtu lb/MW lb/MMBtu

1.02E‐05 1.52E‐04

3.18E‐04 3.23E‐03 4.50E‐05

3.30E‐04 3.21E‐03

1.57E‐04 1.62E‐03 5.72E‐05

9.68E‐04 8.74E‐03 8.54E‐05

2.70E‐04 2.77E‐03

5.58E‐04 5.88E‐03

2.47E‐04 2.40E‐03 1.05E‐04

8.77E‐04 7.66E‐03 1.18E‐04

7.35E‐04 8.37E‐03 9.36E‐05

9.10E‐04 8.54E‐03 1.18E‐04

8.25E‐04 8.22E‐03 1.16E‐04

9.35E‐05 1.17E‐03 9.59E‐05

9.35E‐05 1.17E‐03 9.59E‐05

2.42E‐04 2.35E‐03 1.28E‐04

1.45E‐03 1.44E‐02 1.26E‐04

2.16E‐04 2.10E‐03 1.32E‐04

9.41E‐04 8.94E‐03 1.37E‐04

8.00E‐04 7.70E‐03 1.43E‐04

9.59E‐05 1.37E‐03 9.83E‐05

1.12E‐03 1.18E‐02

9.16E‐04 9.01E‐03

1.45E‐04 1.45E‐03 1.46E‐04

6.08E‐04 6.16E‐03

7.37E‐04 7.46E‐03

7.68E‐04 8.08E‐03 1.55E‐04

9.68E‐05 9.50E‐04 1.67E‐04

1.13E‐04 1.61E‐03 1.16E‐04

3.33E‐04 3.66E‐03 1.61E‐04

3.70E‐04 4.42E‐03

8.20E‐04 7.79E‐03

9.40E‐04 1.16E‐02 1.73E‐04

6.93E‐04 7.68E‐03 1.93E‐04

8.45E‐04 1.01E‐02 1.98E‐04

1.44E‐03 2.12E‐02 1.70E‐04

1.88E‐04 1.83E‐03 2.80E‐04

8.26E‐04 8.67E‐03 2.63E‐04

6.73E‐04 7.09E‐03 2.75E‐04

2.04E‐03 2.07E‐02 2.87E‐04

4.65E‐04 6.34E‐03 2.14E‐04

1.07E‐03 1.07E‐02 2.97E‐04

8.97E‐04 1.23E‐02 2.25E‐04

Page 8375
Acid_Gas_oil

5.72E‐04 5.79E‐03

1.41E‐03 2.03E‐02 2.49E‐04

6.59E‐04 6.65E‐03 3.78E‐04

1.38E‐03 1.53E‐02 3.83E‐04

5.62E‐04 5.07E‐03

4.08E‐04 5.57E‐03 3.97E‐04

3.70E‐03 5.51E‐02 1.03E‐03

3.52E‐03 4.23E‐02

2.49E‐02 2.91E‐01 2.28E‐03

1.08E‐03 1.30E‐02

2.28E‐04 2.63E‐03

2.28E‐04 2.63E‐03

1.38E‐04 1.37E‐03 5.60E‐05

2.38E‐04 2.18E‐03 1.71E‐04

2.33E‐03 2.41E‐02 1.33E‐04

Page 8376
Acid_Gas_oil

Hydrogen Fluoride MW ‐ ERT Hydrogen Fluoride ‐ ETTS Hydrogen Fluoride MW ‐ ETTS

lb/MW lb/MMBtu lb/MW

1.05E‐05 1.57E‐04

4.57E‐04

5.90E‐04 1.00E‐04 1.03E‐03

7.71E‐04

8.11E‐05 8.35E‐04

9.56E‐05 1.01E‐03

1.02E‐03

1.03E‐03

1.07E‐03

1.11E‐03

1.16E‐03

1.20E‐03

1.20E‐03

1.24E‐03

1.25E‐03

1.28E‐03

1.31E‐03

1.38E‐03

1.40E‐03

1.35E‐04 1.42E‐03

1.49E‐04 1.46E‐03

1.46E‐03

1.46E‐04 1.48E‐03

1.57E‐04 1.59E‐03

1.63E‐03

1.64E‐03

1.65E‐03

1.77E‐03

1.49E‐04 1.78E‐03

2.08E‐04 1.98E‐03

2.12E‐03

2.14E‐03

2.36E‐03

2.49E‐03

2.72E‐03

2.76E‐03 2.63E‐04 2.76E‐03

2.89E‐03

2.91E‐03

2.92E‐03

2.97E‐03

3.08E‐03

Page 8377
Acid_Gas_oil

3.50E‐04 3.55E‐03

3.57E‐03

3.82E‐03

4.23E‐03

5.76E‐04 5.20E‐03

5.41E‐03

1.54E‐02

1.47E‐03 1.77E‐02

2.66E‐02

1.24E‐04 1.43E‐03

1.24E‐04 1.43E‐03

5.55E‐04

1.57E‐03

1.38E‐03

Page 8378
Acid_Gas_oil

Hydrogen Fluoride ‐ Part II Hydrogen Fluoride MW ‐ Part II Hydrogen Fluoride ‐ min

lb/MMBtu lb/MW lb/MMBtu

1.05E‐05

4.50E‐05

5.90E‐05 5.74E‐04 5.90E‐05

5.72E‐05

8.54E‐05

8.11E‐05

9.56E‐05

1.05E‐04

1.18E‐04

9.36E‐05

1.18E‐04

1.16E‐04

9.59E‐05

9.59E‐05

1.28E‐04

1.26E‐04

1.32E‐04

1.37E‐04

1.43E‐04

9.83E‐05

1.35E‐04

1.49E‐04

1.46E‐04

1.46E‐04

1.57E‐04

1.55E‐04

1.67E‐04

1.16E‐04

1.61E‐04

1.49E‐04

2.08E‐04

1.73E‐04

1.93E‐04

1.98E‐04

1.70E‐04

2.80E‐04

2.63E‐04

2.75E‐04

2.87E‐04

2.14E‐04

2.97E‐04

2.25E‐04

Page 8379
Acid_Gas_oil

3.50E‐04

2.49E‐04

3.78E‐04

3.83E‐04

5.76E‐04

3.97E‐04

1.03E‐03

1.47E‐03

2.28E‐03

1.24E‐04

1.24E‐04

5.60E‐05

1.71E‐04

1.33E‐04

Page 8380
Acid_Gas_oil

Hydrogen Fluoride MW ‐ min Sulfur Dioxide ‐ CEMS Sulfur Dioxide MW ‐ CEMS Sulfur Dioxide ‐ ERT

lb/MW lb/MMBtu lb/MW lb/MMBtu

1.57E‐04 2.85E‐02 4.25E‐01 2.13E‐01

4.57E‐04 9.81E‐01

5.74E‐04

5.90E‐04 4.02E‐02 4.15E‐01

7.71E‐04 1.64E‐01 1.48E+00 1.66E+00

8.35E‐04 8.62E‐01

1.01E‐03 5.64E‐01

1.02E‐03 6.53E‐01

1.03E‐03 6.65E‐01

1.07E‐03 9.86E‐01

1.11E‐03 2.49E‐01

1.16E‐03 9.95E‐01

1.20E‐03 2.17E‐02

1.20E‐03 2.17E‐02

1.24E‐03 3.94E‐01

1.25E‐03 2.79E‐01

1.28E‐03 6.26E‐01

1.31E‐03 6.07E‐01

1.38E‐03 9.71E‐01

1.40E‐03 2.14E‐02

1.42E‐03 6.76E‐01

1.46E‐03 9.10E‐01

1.46E‐03 3.44E‐01

1.48E‐03 1.04E+00

1.59E‐03 1.04E+00

1.63E‐03 3.66E‐01

1.64E‐03 3.98E‐01

1.65E‐03 2.54E‐02

1.77E‐03 3.16E‐01

1.78E‐03 6.71E‐01

1.98E‐03 9.93E‐01

2.12E‐03 3.12E‐01

2.14E‐03 3.78E‐01

2.36E‐03 8.79E‐01

2.49E‐03 2.68E‐01

2.72E‐03 6.50E‐01

2.76E‐03 5.55E‐01

2.89E‐03 9.46E‐01

2.91E‐03 1.00E+00

2.92E‐03 1.01E‐01

2.97E‐03 2.02E+00

3.08E‐03 2.86E‐01

Page 8381
Acid_Gas_oil

3.55E‐03 9.20E‐01

3.57E‐03 1.55E+00

3.82E‐03 7.00E‐01

4.23E‐03 9.61E‐01

5.20E‐03 1.04E+00

5.41E‐03 1.01E‐01

1.54E‐02 2.62E‐01

1.77E‐02 1.01E+00

2.66E‐02 2.82E‐01

7.10E‐01

7.76E‐02 8.01E‐01

1.43E‐03

1.43E‐03

5.55E‐04 2.37E‐02 2.35E‐01 4.24E‐02

1.57E‐03 1.95E‐02 1.79E‐01 4.68E‐02

1.38E‐03 5.27E‐01 5.45E+00 6.09E‐01

Page 8382
Acid_Gas_oil

Sulfur Dioxide MW ‐ ERT Sulfur Dioxide ‐ ETTS Sulfur Dioxide MW ‐ ETTS Sulfur Dioxide ‐ Part II

lb/MW lb/MMBtu lb/MW lb/MMBtu

3.18E+00

9.96E+00

7.87E‐01

1.50E+01

8.86E+00

5.94E+00 6.41E‐01

6.36E+00

5.81E+00

1.12E+01

2.33E+00

9.90E+00

2.70E‐01

2.70E‐01

3.82E+00

2.79E+00

6.09E+00

5.77E+00

9.35E+00

3.04E‐01

7.12E+00 6.21E‐01

8.95E+00

3.45E+00

1.05E+01

1.05E+01

3.85E+00

3.91E+00

3.61E‐01

3.47E+00

8.01E+00

9.44E+00

3.83E+00

4.19E+00

1.05E+01

3.95E+00

6.33E+00

5.83E+00

9.97E+00

1.02E+01

1.38E+00

2.02E+01

3.92E+00

Page 8383
Acid_Gas_oil

9.31E+00

2.22E+01

7.06E+00

1.06E+01

9.41E+00

1.37E+00

3.90E+00

1.22E+01

3.30E+00

8.56E+00

4.20E‐01

4.29E‐01

6.29E+00

Page 8384
Acid_Gas_oil

Sulfur Dioxide MW ‐ Part II Sulfur Dioxide ‐ min Sulfur Dioxide MW ‐ min control_group_1

lb/MW lb/MMBtu lb/MW

2.85E‐02 4.25E‐01

9.81E‐01 9.96E+00

7.65E+00 7.87E‐01 7.65E+00 NOx control

4.02E‐02 4.15E‐01

1.64E‐01 1.48E+00

8.62E‐01 8.86E+00 PM control

6.74E+00 5.64E‐01 5.94E+00 PM control

6.53E‐01 6.36E+00 PM control

6.65E‐01 5.81E+00

9.86E‐01 1.12E+01

2.49E‐01 2.33E+00 NOx control

9.95E‐01 9.90E+00 PM control

2.17E‐02 2.70E‐01

2.17E‐02 2.70E‐01

3.94E‐01 3.82E+00

2.79E‐01 2.79E+00 NOx control

6.26E‐01 6.09E+00 PM control

6.07E‐01 5.77E+00

9.71E‐01 9.35E+00 PM control

2.14E‐02 3.04E‐01

6.53E+00 6.21E‐01 6.53E+00 PM control

9.10E‐01 8.95E+00 PM control

3.44E‐01 3.45E+00

1.04E+00 1.05E+01 PM control

1.04E+00 1.05E+01 PM control

3.66E‐01 3.85E+00

3.98E‐01 3.91E+00

2.54E‐02 3.61E‐01

3.16E‐01 3.47E+00

6.71E‐01 8.01E+00 PM control

9.93E‐01 9.44E+00 PM control

3.12E‐01 3.83E+00 PM control

3.78E‐01 4.19E+00

8.79E‐01 1.05E+01

2.68E‐01 3.95E+00

6.50E‐01 6.33E+00 PM control

5.55E‐01 5.83E+00

9.46E‐01 9.97E+00 PM control

1.00E+00 1.02E+01

1.01E‐01 1.38E+00

2.02E+00 2.02E+01

2.86E‐01 3.92E+00

Page 8385
Acid_Gas_oil

9.20E‐01 9.31E+00 PM control

1.55E+00 2.22E+01 PM control

7.00E‐01 7.06E+00 PM control

9.61E‐01 1.06E+01 PM control

1.04E+00 9.41E+00

1.01E‐01 1.37E+00

2.62E‐01 3.90E+00

1.01E+00 1.22E+01

2.82E‐01 3.30E+00

7.10E‐01 8.56E+00 PM control

7.76E‐02 8.01E‐01

2.37E‐02 2.35E‐01

1.95E‐02 1.79E‐01

5.27E‐01 5.45E+00 PM control

Page 8386
Acid_Gas_oil

control_type_1 install_date_1 control_group_2

Selective Catalytic Reduction 01‐Jun‐95 PM control

Multiple cyclone 01‐Oct‐76

Multiple cyclone 01‐Jun‐81

Electrostatic precipitator, cold side, w/o flue gas conditioning 01‐Nov‐60

Selective Noncatalytic Reduction 01‐Oct‐08 PM control

Electrostatic precipitator, cold side, w/o flue gas conditioning 01‐Jun‐71

Selective Noncatalytic Reduction 01‐Oct‐95 PM control

Electrostatic precipitator, cold side, w/o flue gas conditioning 01‐Jun‐72

Electrostatic precipitator, cold side, w/o flue gas conditioning 01‐Jun‐71

Multiple cyclone 01‐Dec‐80

Multiple cyclone 01‐Apr‐68

Electrostatic precipitator, cold side, w/o flue gas conditioning 01‐Jun‐07

Electrostatic precipitator, cold side, w/o flue gas conditioning 01‐May‐07

Multiple cyclone 01‐Mar‐58

Multiple cyclone 01‐Apr‐67

Electrostatic precipitator, cold side, w/o flue gas conditioning 01‐Dec‐53

Electrostatic precipitator, cold side, w/o flue gas conditioning 01‐Apr‐74

Multiple cyclone 01‐Nov‐74

Page 8387
Acid_Gas_oil

Multiple cyclone 01‐Nov‐77

Multiple cyclone 01‐Dec‐71

Multiple cyclone

Electrostatic precipitator, cold side, w/o flue gas conditioning 01‐Sep‐57

Multiple cyclone 01‐Dec‐57

Electrostatic precipitator, hot side, w/o flue gas conditioning 01‐Jun‐74

Page 8388
Acid_Gas_oil

control_type_2 install_date_2 control_group_3

Multiple cyclone 01‐Dec‐74

Electrostatic precipitator, hot side, w/o flue gas conditioning 01‐Aug‐54

Electrostatic precipitator, cold side, w/o flue gas conditioning 01‐Jun‐62

Page 8389
Acid_Gas_oil

control_type_3 install_date_3 control_group_4 control_type_4 install_date_4 control_group_5

Page 8391
Acid_Gas_oil

control_type_5 install_date_5 control_group_6 control_type_6 install_date_6 control_group_7

Page 8393
Acid_Gas_oil

control_type_7 install_date_7 control_group_8 control_type_8 install_date_8 control_group_9

Page 8395
Acid_Gas_oil

control_type_9 install_date_9 control_group_10 control_type_10 install_date_10 control_group_11

Page 8397
Acid_Gas_oil

control_type_11 install_date_11 control_group_12 control_type_12 install_date_12

Page 8399
East River Kahe

ORIS/Facility/Unit 2493 765

Test Averages 60 K1

1 1.5213E-04 9.5001E-04

2

3

4

5

6

7

8

9

10

11

12

13

14

15

16

17

18

19

20

21

22

23

24

25

26

27

28

29

30

31

32

33

34

35

ni = number test runs = 1 1

Total Number of sources = 7

n =Total # test runs = 7

1

N

i

i

n





N
6

This step is for QC only:

means 1.52E-04 9.50E-04

1.12E-03

Mean =

Pooled Variance = 2.2964E-07

m= number future runs = 1

Term1 1.1429

Term2 2.6244E-07

Squared root Term2 0.000512293

NOTE: the pvalue for the t-statistic is calculated as: 2*alpha, where 1-alpha is desired confidence, so if 99% c

t-statistic

= quantile t-distribution with 

df degrees of freedom at 

.99 confidence level = 3.14

 2 2

1

1

1

n

i

i

s xX

n 

   

1 1

1 N ni

ij

i j

X x

n  

 

1 1

n m



2 1 1

s

n m

      

1

1

N

i

i

df n 

        

d f t

2 1 1

s

n m

      

1

1 ni

i ik

i k

x x

n 

 

2   1 1
UPL POOLED VARIANCE = 2.73E-03

2

,

1 1 Xt s df p n m

       
Eagle Valley Eagle Valley Harding Street Waiau

991 991 990 766

1 2 09 W7

1.1660E-03 1.1660E-03 1.3659E-03 1.4535E-03

1111

Emissions (lb/MW)
1.17E-03 1.17E-03 1.37E-03 1.45E-03

Skewness =

SE Skewness

Skewness Test

Kurtosis =

SE Kurtosis

Kurtosis Test

Number of test runs =

confidence is desired then alpha=0.01 and 2*alpha=2*(0.01)
Harding Street

990

10

1.6061E-03

1
1.61E-03

Distribution of Normal Tests Distribution of Log Tests

-1.60E+00 #DIV/0!

0.93 #DIV/0!

normal #DIV/0!

3.08E+00 #DIV/0!

1.85 #DIV/0!

normal #DIV/0!

7 0 REsult: normal
East River

ORIS/Facility/Unit 2493

Runs 60

1 1.5362E‐04 BDL

2 1.5362E‐04 BDL

3 1.4915E‐04 BDL

4

5

6

7

8

9

10

11

12

13

14

15

16

17

18

19

20

21

22

23

24

25

26

27

28

29

30

31

32

33

34

35

ni = number test runs = 3

Total Number of sources = 1

n =Total # test runs = 3

N   

1

N

i

i

n





N
2

This step is for QC only:

means 1.52E-04

1.52E-04

Mean =

Pooled Variance = 6.6737E-12

m= number future runs = 3

Term1 0.6667

Term2 4.4491E-12

Squared root Term2 2.1093E-06

NOTE: the pvalue for the t-statistic is calculated as: 2*alpha, where 1-alpha is desired confidence, so if 99% c

t-statistic

= quantile t-distribution with 

df degrees of freedom at 

.99 confidence level = 6.96

UPL POOLED VARIANCE = 0.000166823

1

1

N

i

i

df n 

        

d f t

 2 2

1

1

1

n

i

i

s xX

n 

   

1 1

1 N ni

ij

i j

X x

n  

 

1 1

n m



2 1 1

s

n m

      

d f t

2 1 1

s

n m

      

1

1 ni

i ik

i k

x x

n 

 

2

,

1 1 Xt s df p n m

       
MDL x 3 4.4745E-04

  n m
Emissions (lb/MW)
confidence is desired then alpha=0.01 and 2*alpha=2*(0.01)
2

,

1 1 Xt s df p n m

       
East River

ORIS/Facility/Unit 2493

Runs 60

1 1.0300E‐05 BDL

2 1.0300E‐05 BDL

3 1.0000E‐05 BDL

4

5

6

7

8

9

10

11

12

13

14

15

16

17

18

19

20

21

22

23

24

25

26

27

28

29

30

31

32

33

34

35

ni = number test runs = 3

Total Number of sources = 1

n =Total # test runs = 3

1

N

i

i

n





N
2

This step is for QC only:

means 1.02E-05

1.02E-05

Mean =

Pooled Variance = 3.0000E-14

m= number future runs = 3

Term1 0.6667

Term2 2.0000E-14

Squared root Term2 1.41421E-07

NOTE: the pvalue for the t-statistic is calculated as: 2*alpha, where 1-alpha is desired confidence, so if 99% 

t-statistic

= quantile t-distribution with 

df degrees of freedom at 

.99 confidence level = 6.96

UPL POOLED VARIANCE = 1.11849E-05

 2 2

1

1

1

n

i

i

s x X

n 

   

1 1

1 N ni

ij

i j

X x

n  

 

1 1

n m



s

2 1 1

n m

      

1

1

N

i

i

df n 

        

d f t

2 1 1

s

n m

      

1

1 ni

i ik

i k

x x

n 

 

2

,

1 1 Xt s df p n m

       
MDL x 3 3.0000E-05
Emissions (lb/MMBtu)
confidence is desired then alpha=0.01 and 2*alpha=2*(0.01)
Harding Street

ORIS/Facility/Unit 990

Runs 09

1 4.7659E‐08

2 1.4562E‐07

3 4.7180E‐08

4

5

6

7

8

9

10

11

12

13

14

15

16

17

18

19

20

21

22

23

24

25

26

27

28

29

30

31

32

33

34

35

ni = number test runs = 3

Total Number of sources = 1

n =Total # test runs = 3

1

N

i

i

n





N
2

This step is for QC only:

means 8.02E-08

8.02E-08

Mean =

Pooled Variance = 3.2144E-15

m= number future runs = 3

Term1 0.6667

Term2 2.1429E-15

Squared root Term2 4.62916E-08

NOTE: the pvalue for the t-statistic is calculated as: 2*alpha, where 1-alpha is desired confidence, so if 

t-statistic

= quantile t-distribution 

with df degrees of 

freedom at .99 

confidence level = 6.96

 2 2

1

1

1

n

i

i

s x X

n 

   

1 1

1 N ni

ij

i j

X x

n  

 

1 1

n m



2 1 1

s

n m

      

1

1

N

i

i

df n 

        

d f t

2 1 1

s

n m

      

1

1 ni

i ik

i k

x x

n 

 

1

i

i

n





  1 1
UPL POOLED VARIANCE = 4.0255E-07

2

,

1 1 Xt s df p n m

       
Emissions (lb/MMBtu)
99% confidence is desired then alpha=0.01 and 2*alpha=2*(0.01)
Harding Street

Mitchell Power

Station

ORIS/Facility/Unit 990 3181

Test Averages 09 003

1 1.1416E‐06 2.8774E‐06

2

3

4

5

6

7

8

9

10

11

12

13

14

15

16

17

18

19

20

21

22

23

24

25

26

27

28

29

30

31

32

33

34

35

ni = number test runs = 1 1

Total Number of sources = N 7
n =Total # test runs = 7

6

This step is for QC only:

means 1.14E-06 2.88E-06

6.16E-06

Mean =

Pooled Variance = 1.5422E-11

m= number future runs = 1

Term1 1.1429

Term2 1.7625E-11

Squared root Term2 4.19824E-06

NOTE: the pvalue for the t-statistic is calculated as: 2*alpha, where 1-alpha is desired confidence, so if 

 2 2

1

1

1

n

i

i

s x X

n 

   

1 1

1 N ni

ij

i j

X x

n  

 

1 1

n m



2 1 1

s

n m

      

1

1

N

i

i

df n 

        

2 1 1

s

n m

      

1

1 ni

i ik

i k

x x

n 

 

1

N

i

i

n




t-statistic

= quantile t-distribution 

with df degrees of 

freedom at .99 

confidence level = 3.14

UPL POOLED VARIANCE = 1.9352E-05

d f t

2

,

1 1 Xt s df p n m

       
Port Everglades Mitchell Power Station

Danskammer

Generating

Station

Danskammer

Generating

Station

Norwalk ‐ 

Norwalk Power

LLC

617 3181 2480 2480 548

PPE03 001 1 2 2

3.4404E‐06 5.1879E‐06 9.8269E‐06 9.9779E‐06 1.0655E‐05

1 111 1

Emissions (lb/MW)
3.44E-06 5.19E-06 9.83E-06 9.98E-06 1.07E-05

Distribution of 

Normal Tests

Skewness = 5.21E-02

SE Skewness 0.93

Skewness Test normal

Kurtosis = -2.25E+00

SE Kurtosis 1.85

Kurtosis Test normal

Number of test 

runs =

7

99% confidence is desired then alpha=0.01 and 2*alpha=2*(0.01)
Distribution of Log Tests

#DIV/0!

#DIV/0!

#DIV/0!

#DIV/0!

#DIV/0!

#DIV/0!

0

REsult: normal
Harding Street

ORIS/Facility/Unit 990

Runs 09

1 6.7882E‐07

2 2.0741E‐06

3 6.7200E‐07

4

5

6

7

8

9

10

11

12

13

14

15

16

17

18

19

20

21

22

23

24

25

26

27

28

29

30

31

32

33

34

35

ni = number test runs = 3

Total Number of sources = 1

n =Total # test runs = 3

1

N

i

i

n





N
2

This step is for QC only:

means 1.14E-06

1.14E-06

Mean =

Pooled Variance = 6.5210E-13

m= number future runs = 3

Term1 0.6667

Term2 4.3473E-13

Squared root Term2 6.59343E-07

NOTE: the pvalue for the t-statistic is calculated as: 2*alpha, where 1-alpha is desired confidence, so if 

t-statistic

= quantile t-distribution 

with df degrees of 

freedom at .99 

confidence level = 6.96

 2 2

1

1

1

n

i

i

s x X

n 

   

1 1

1 N ni

ij

i j

X x

n  

 

1 1

n m



2 1 1

s

n m

      

1

1

N

i

i

df n 

        

d f t

2 1 1

s

n m

      

1

1 ni

i ik

i k

x x

n 

 

1

i

i

n





  1 1
UPL POOLED VARIANCE = 5.7337E-06

2

,

1 1 Xt s df p n m

       
Emissions (lb/MW)
99% confidence is desired then alpha=0.01 and 2*alpha=2*(0.01)
Port Everglades Port Everglades

ORIS/Facility/Unit 617 617

Test Averages PPE04 PPE03

1 1.3693E‐07 2.3555E‐07

2

3

4

5

6

7

8

9

10

11

12

13

14

15

16

17

18

19

20

21

22

23

24

25

26

27

28

29

30

31

32

33

34

35

ni = number test runs = 1 1

Total Number of sources = 7

N

i n

N
n =Total # test runs = 7

6

This step is for QC only:

means 1.37E-07 2.36E-07

6.47E-07

Mean =

Pooled Variance = 1.4128E-13

m= number future runs = 1

Term1 1.1429

Term2 1.6146E-13

Squared root Term2 4.01824E-07

NOTE: the pvalue for the t-statistic is calculated as: 2*alpha, where 1-alpha is desired confidence, so if 

t-statistic

= quantile t-distribution 

with df degrees of 

freedom at .99 

confidence level = 3.14

 2 2

1

1

1

n

i

i

s x X

n 

   

1 1

1 N ni

ij

i j

X x

n  

 

1 1

n m



s

2 1 1

n m

      

1

1

N

i

i

df n 

        

d f t

2 1 1

s

n m

      

1

1 ni

i ik

i k

x x

n 

 

1

N

i

i

n




UPL POOLED VARIANCE = 1.9103E-06

d f

2

,

1 1 Xt s df p n m

       
Mitchell Power

Station Mitchell Power Station Waiau Honolulu Northport

3181 3181 766 764 2516

003 001 W7 H9 Unit2

5.4833E‐07 6.9486E‐07 7.8488E‐07 9.3131E‐07 1.2005E‐06

1 1 1 11

Emissions (lb/MMBtu)
5.48E-07 6.95E-07 7.85E-07 9.31E-07 1.20E-06

Distribution of 

Normal Tests

Skewness = -4.07E-02

SE Skewness 0.93

Skewness Test normal

Kurtosis = -7.89E-01

SE Kurtosis 1.85

Kurtosis Test normal

Number of test runs = 7

99% confidence is desired then alpha=0.01 and 2*alpha=2*(0.01)
#DIV/0! #DIV/0! #DIV/0! #DIV/0!

Distribution of Log Tests

#DIV/0!

#DIV/0!

#DIV/0!

#DIV/0!

#DIV/0!

#DIV/0!

0 REsult: normal
Port Everglades

ORIS/Facility/Unit 617

Runs PPE04

1 2.2650E‐07

2 9.0091E‐08

3 9.4214E‐08

4

5

6

7

8

9

10

11

12

13

14

15

16

17

18

19

20

21

22

23

24

25

26

27

28

29

30

31

32

33

34

35

ni = number test runs = 3

Total Number of sources = 1

n =Total # test runs = 3

1

N

i

i

n





N
2

This step is for QC only:

means 1.37E-07

1.37E-07

Mean =

Pooled Variance = 6.0204E-15

m= number future runs = 3

Term1 0.6667

Term2 4.0136E-15

Squared root Term2 6.33531E-08

NOTE: the pvalue for the t-statistic is calculated as: 2*alpha, where 1-alpha is desired confidence, so if 

t-statistic

= quantile t-distribution 

with df degrees of 

freedom at .99 

confidence level = 6.96

 2 2

1

1

1

n

i

i

s x X

n 

   

1 1

1 N ni

ij

i j

X x

n  

 

1 1

n m



s

2 1 1

n m

      

1

1

N

i

i

df n 

        

d f t

2 1 1

s

n m

      

1

1 ni

i ik

i k

x x

n 

 

1

i

i

n





  1 1
UPL POOLED VARIANCE = 5.7816E-07

2

,

1 1 Xt s df p n m

       
Emissions (lb/MMBtu)
99% confidence is desired then alpha=0.01 and 2*alpha=2*(0.01)
Port Everglades Port Everglades

ORIS/Facility/Unit 617 617

Test Averages PPE04 PPE03

1 1.3867E‐06 2.3853E‐06

2

3

4

5

6

7

8

9

10

11

12

13

14

15

16

17

18

19

20

21

22

23

24

25

26

27

28

29

30

31

32

33

34

35

ni = number test runs = 1 1

Total Number of sources = N 7
n =Total # test runs = 7

6

This step is for QC only:

means 1.39E-06 2.39E-06

7.23E-06

Mean =

Pooled Variance = 1.5416E-11

m= number future runs = 1

Term1 1.1429

Term2 1.7619E-11

Squared root Term2 4.19747E-06

NOTE: the pvalue for the t-statistic is calculated as: 2*alpha, where 1-alpha is desired confidence, so if 

 2 2

1

1

1

n

i

i

s x X

n 

   

1 1

1 N ni

ij

i j

X x

n  

 

1 1

n m



2 1 1

s

n m

      

1

1

N

i

i

df n 

        

2 1 1

s

n m

      

1

1 ni

i ik

i k

x x

n 

 

1

N

i

i

n




t-statistic

= quantile t-distribution 

with df degrees of 

freedom at .99 

confidence level = 3.14

UPL POOLED VARIANCE = 2.0418E-05

d f t

2

,

1 1 Xt s df p n m

       
Mitchell Power Station Waiau

Mitchell

Power Station Honolulu Northport

3181 766 3181 764 2516

003 W7 001 H9 Unit2

7.4773E‐06 7.8624E‐06 9.4753E‐06 1.0318E‐05 1.1685E‐05

1 111 1

Emissions (lb/MW)
7.48E-06 7.86E-06 9.48E-06 1.03E-05 1.17E-05

Distribution of 

Normal Tests

Skewness = -7.05E-01

SE Skewness 0.93

Skewness Test normal

Kurtosis = -1.03E+00

SE Kurtosis 1.85

Kurtosis Test normal

Number of test 

runs =

7

99% confidence is desired then alpha=0.01 and 2*alpha=2*(0.01)
Distribution of Log Tests

#DIV/0!

#DIV/0!

#DIV/0!

#DIV/0!

#DIV/0!

#DIV/0!

0

REsult: normal
Port Everglades

ORIS/Facility/Unit 617

Runs PPE04

1 2.0872E‐06

2 8.3019E‐07

3 8.6818E‐07

4

5

6

7

8

9

10

11

12

13

14

15

16

17

18

19

20

21

22

23

24

25

26

27

28

29

30

31

32

33

34

35

ni = number test runs = 3

Total Number of sources = 1

n =Total # test runs = 3

1

N

i

i

n





N
2

This step is for QC only:

means 1.26E-06

1.26E-06

Mean =

Pooled Variance = 5.1123E-13

m= number future runs = 3

Term1 0.6667

Term2 3.4082E-13

Squared root Term2 5.83799E-07

NOTE: the pvalue for the t-statistic is calculated as: 2*alpha, where 1-alpha is desired confidence, so if 

t-statistic

= quantile t-distribution 

with df degrees of 

freedom at .99 

confidence level = 6.96

 2 2

1

1

1

n

i

i

s x X

n 

   

1 1

1 N ni

ij

i j

X x

n  

 

1 1

n m



s

2 1 1

n m

      

1

1

N

i

i

df n 

        

d f t

2 1 1

s

n m

      

1

1 ni

i ik

i k

x x

n 

 

1

i

i

n





  1 1
UPL POOLED VARIANCE = 5.3277E-06

2

,

1 1 Xt s df p n m

       
Emissions (lb/MW)
99% confidence is desired then alpha=0.01 and 2*alpha=2*(0.01)
Port Everglades Port Everglades

ORIS/Facility/Unit 617 617

Test Averages PPE04 PPE03

1 5.2749E‐07 8.3343E‐07

2

3

4

5

6

7

8

9

10

11

12

13

14

15

16

17

18

19

20

21

22

23

24

25

26

27

28

29

30

31

32

33

34

35

ni = number test runs = 1 1

Total Number of sources = N 7
n =Total # test runs = 7

6

This step is for QC only:

means 5.27E-07 8.33E-07

1.46E-06

Mean =

Pooled Variance = 7.2088E-13

m= number future runs = 1

Term1 1.1429

Term2 8.2386E-13

Squared root Term2 9.07667E-07

NOTE: the pvalue for the t-statistic is calculated as: 2*alpha, where 1-alpha is desired confidence, so if 

 2 2

1

1

1

n

i

i

s x X

n 

   

1 1

1 N ni

ij

i j

X x

n  

 

1 1

n m



2 1 1

s

n m

      

1

1

N

i

i

df n 

        

2 1 1

s

n m

      

1

1 ni

i ik

i k

x x

n 

 

1

N

i

i

n




t-statistic

= quantile t-distribution 

with df degrees of 

freedom at .99 

confidence level = 3.14

UPL POOLED VARIANCE = 4.3093E-06

d f t

2

,

1 1 Xt s df p n m

       
Harding Street Eagle Valley Eagle Valley Mitchell Power Station

Mitchell

Power Station

990 991 991 3181 3181

09 1 2 003 001

8.3983E‐07 1.4861E‐06 1.4861E‐06 2.0313E‐06 2.9932E‐06

1 1 1 11

Emissions (lb/MMBtu)
8.40E-07 1.49E-06 1.49E-06 2.03E-06 2.99E-06

Distribution of 

Normal Tests

Skewness = 9.67E-01

SE Skewness 0.93

Skewness Test normal

Kurtosis = 6.38E-01

SE Kurtosis 1.85

Kurtosis Test normal

Number of test runs = 7

99% confidence is desired then alpha=0.01 and 2*alpha=2*(0.01)
Distribution of Log Tests

#DIV/0!

#DIV/0!

#DIV/0!

#DIV/0!

#DIV/0!

#DIV/0!

0 REsult: normal
Port Everglades

ORIS/Facility/Unit 617

Runs PPE04

1 3.4483E‐07

2 2.7928E‐07

3 9.5837E‐07

4

5

6

7

8

9

10

11

12

13

14

15

16

17

18

19

20

21

22

23

24

25

26

27

28

29

30

31

32

33

34

35

ni = number test runs = 3 0

Total Number of sources = 1

n =Total # test runs = 3

1

N

i

i

n





N
2

This step is for QC only:

means 5.27E-07 #DIV/0!

5.27E-07

Mean =

Pooled Variance = 1.4031E-13

m= number future runs = 3

Term1 0.6667

Term2 9.3543E-14

Squared root Term2 3.05847E-07

NOTE: the pvalue for the t-statistic is calculated as: 2*alpha, where 1-alpha is desired confidence, so if 

t-statistic

= quantile t-distribution 

with df degrees of 

freedom at .99 

confidence level = 6.964556734

 2 2

1

1

1

n

i

i

s x X

n 

   

1 1

1 N ni

ij

i j

X x

n  

 

1 1

n m



s

2 1 1

n m

      

1

1

N

i

i

df n 

        

d f t

2 1 1

s

n m

      

1

1 ni

i ik

i k

x x

n 

 

1

i

i

n





  1 1
UPL POOLED VARIANCE = 2.65758E-06

2

,

1 1 Xt s df p n m

       
0 0 0 00

Emissions (lb/MMBtu)
#DIV/0! #DIV/0! #DIV/0! #DIV/0! #DIV/0!

99% confidence is desired then alpha=0.01 and 2*alpha=2*(0.01)
Port Everglades Port Everglades

ORIS/Facility/Unit 617 617

Test Averages PPE04 PPE03

1 5.3417E‐06 8.4398E‐06

2

3

4

5

6

7

8

9

10

11

12

13

14

15

16

17

18

19

20

21

22

23

24

25

26

27

28

29

30

31

32

33

34

35

ni = number test runs = 1 1

Total Number of sources = N 7
n =Total # test runs = 7

6

This step is for QC only:

means 5.34E-06 8.44E-06

1.88E-05

Mean =

Pooled Variance = 1.4988E-10

m= number future runs = 1

Term1 1.1429

Term2 1.7129E-10

Squared root Term2 1.30879E-05

NOTE: the pvalue for the t-statistic is calculated as: 2*alpha, where 1-alpha is desired confidence, so if 

 2 2

1

1

1

n

i

i

s xX

n 

   

1 1

1 N ni

ij

i j

X x

n  

 

1 1

n m



2 1 1

s

n m

      

1

1

N

i

i

df n 

        

2 1 1

s

n m

      

1

1 ni

i ik

i k

x x

n 

 

1

N

i

i

n




t-statistic

= quantile t-distribution 

with df degrees of 

freedom at .99 

confidence level = 3.14

UPL POOLED VARIANCE = 5.9894E-05

d f t

2

,

1 1 Xt s df p n m

       
Harding Street Eagle Valley Eagle Valley

Mitchell

Power Station

Mitchell Power

Station

990 991 991 3181 3181

09 1 2 003 001

1.1962E‐05 1.8540E‐05 1.8540E‐05 2.7700E‐05 4.0817E‐05

1 111 1

Emissions (lb/MW)
1.20E-05 1.85E-05 1.85E-05 2.77E-05 4.08E-05

Distribution of 

Normal Tests

Skewness = 9.67E-01

SE Skewness 0.93

Skewness Test normal

Kurtosis = 6.01E-01

SE Kurtosis 1.85

Kurtosis Test normal

Number of test 

runs =

7

99% confidence is desired then alpha=0.01 and 2*alpha=2*(0.01)
#DIV/0! #DIV/0! #DIV/0! #DIV/0!

Distribution of Log Tests

#DIV/0!

#DIV/0!

#DIV/0!

#DIV/0!

#DIV/0!

#DIV/0!

0

REsult: normal
Port Everglades

ORIS/Facility/Unit 617

Runs PPE04

1 3.1776E‐06

2 2.5736E‐06

3 8.8314E‐06

4

5

6

7

8

9

10

11

12

13

14

15

16

17

18

19

20

21

22

23

24

25

26

27

28

29

30

31

32

33

34

35

ni = number test runs = 3

Total Number of sources = 1

n =Total # test runs = 3

1

N

i

i

n





N
2

This step is for QC only:

means 4.86E-06

4.86E-06

Mean =

Pooled Variance = 1.1915E-11

m= number future runs = 3

Term1 0.6667

Term2 7.9433E-12

Squared root Term2 2.81838E-06

NOTE: the pvalue for the t-statistic is calculated as: 2*alpha, where 1-alpha is desired confidence, so if 

t-statistic

= quantile t-distribution 

with df degrees of 

freedom at .99 

confidence level = 6.96

 2 2

1

1

1

n

i

i

s xX

n 

   

1 1

1 N ni

ij

i j

X x

n  

 

1 1

n m



2 1 1

s

n m

      

1

1

N

i

i

df n 

        

d f t

2 1 1

s

n m

      

1

1 ni

i ik

i k

x x

n 

 

1

i

i

n





  1 1
UPL POOLED VARIANCE = 2.4490E-05

2

,

1 1 Xt s df p n m

       
Emissions (lb/MW)
99% confidence is desired then alpha=0.01 and 2*alpha=2*(0.01)
Harding Street Eagle Valley

ORIS/Facility/Unit 990 991

Test Averages 09 1

1 7.8153E‐07 1.1888E‐06

2

3

4

5

6

7

8

9

10

11

12

13

14

15

16

17

18

19

20

21

22

23

24

25

26

27

28

29

30

31

32

33

34

35

ni = number test runs = 1 1

Total Number of sources = 7

N

i n

N
n =Total # test runs = 7

6

This step is for QC only:

means 7.82E-07 1.19E-06

2.39E-06

Mean =

Pooled Variance = 2.0968E-12

m= number future runs = 1

Term1 1.1429

Term2 2.3964E-12

Squared root Term2 1.54803E-06

NOTE: the pvalue for the t-statistic is calculated as: 2*alpha, where 1-alpha is desired confidence, so if 

t-statistic

= quantile t-distribution 

with df degrees of 

freedom at .99 

confidence level = 3.14

 2 2

1

1

1

n

i

i

s xX

n 

   

1 1

1 N ni

ij

i j

X x

n  

 

1 1

n m



s

2 1 1

n m

      

1

1

N

i

i

df n 

        

d f t

2 1 1

s

n m

      

1

1 ni

i ik

i k

x x

n 

 

1

N

i

i

n




UPL POOLED VARIANCE = 7.2536E-06

d f

2

,

1 1 Xt s df p n m

       
Eagle Valley Mitchell Power Station Harding Street Port Everglades

Port

Everglades

991 3181 990 617 617

2 003 10 PPE04 PPE03

1.1888E‐06 2.6068E‐06 2.8318E‐06 3.2625E‐06 4.8607E‐06

1 1 1 11

Emissions (lb/MMBtu)
1.19E-06 2.61E-06 2.83E-06 3.26E-06 4.86E-06

Distribution of 

Normal Tests

Skewness = 6.35E-01

SE Skewness 0.93

Skewness Test normal

Kurtosis = -2.22E-01

SE Kurtosis 1.85

Kurtosis Test normal

Number of test runs = 7

99% confidence is desired then alpha=0.01 and 2*alpha=2*(0.01)
Distribution of Log Tests

#DIV/0!

#DIV/0!

#DIV/0!

#DIV/0!

#DIV/0!

#DIV/0!

0 REsult: normal
Harding Street

ORIS/Facility/Unit 990

Runs 09

1 7.7663E‐07

2 1.0962E‐06

3 4.7180E‐07

4

5

6

7

8

9

10

11

12

13

14

15

16

17

18

19

20

21

22

23

24

25

26

27

28

29

30

31

32

33

34

35

ni = number test runs = 3

Total Number of sources = 1

n =Total # test runs = 3

1

N

i

i

n





N
2

This step is for QC only:

means 7.82E-07

7.82E-07

Mean =

Pooled Variance = 9.7475E-14

m= number future runs = 3

Term1 0.6667

Term2 6.4984E-14

Squared root Term2 2.54919E-07

NOTE: the pvalue for the t-statistic is calculated as: 2*alpha, where 1-alpha is desired confidence, so if 

t-statistic

= quantile t-distribution 

with df degrees of 

freedom at .99 

confidence level = 6.96

 2 2

1

1

1

n

i

i

s xX

n 

   

1 1

1 N ni

ij

i j

X x

n  

 

1 1

n m



s

2 1 1

n m

      

1

1

N

i

i

df n 

        

d f t

2 1 1

s

n m

      

1

1 ni

i ik

i k

x x

n 

 

1

i

i

n





  1 1
UPL POOLED VARIANCE = 2.5569E-06

2

,

1 1 Xt s df p n m

       
Emissions (lb/MMBtu)
99% confidence is desired then alpha=0.01 and 2*alpha=2*(0.01)
Harding Street Eagle Valley

ORIS/Facility/Unit 990 991

Test Averages 09 1

1 1.1132E‐05 1.4831E‐05

2

3

4

5

6

7

8

9

10

11

12

13

14

15

16

17

18

19

20

21

22

23

24

25

26

27

28

29

30

31

32

33

34

35

ni = number test runs = 1 1

Total Number of sources = N 7
n =Total # test runs = 7

6

This step is for QC only:

means 1.11E-05 1.48E-05

2.84E-05

Mean =

Pooled Variance = 2.1917E-10

m= number future runs = 1

Term1 1.1429

Term2 2.5048E-10

Squared root Term2 1.58266E-05

NOTE: the pvalue for the t-statistic is calculated as: 2*alpha, where 1-alpha is desired confidence, so if 

 2 2

1

1

1

n

i

i

s x X

n 

   

1 1

1 N ni

ij

i j

X x

n  

 

1 1

n m



2 1 1

s

n m

      

1

1

N

i

i

df n 

        

2 1 1

s

n m

      

1

1 ni

i ik

i k

x x

n 

 

1

N

i

i

n




t-statistic

= quantile t-distribution 

with df degrees of 

freedom at .99 

confidence level = 3.14

UPL POOLED VARIANCE = 7.8157E-05

d f t

2

,

1 1 Xt s df p n m

       
Eagle Valley Port Everglades

Mitchell

Power Station Harding Street Port Everglades

991 617 3181 990 617

2 PPE04 003 10 PPE03

1.4831E‐05 3.3038E‐05 3.5548E‐05 4.0334E‐05 4.9223E‐05

1 111 1

Emissions (lb/MW)
1.48E-05 3.30E-05 3.55E-05 4.03E-05 4.92E-05

Distribution of 

Normal Tests

Skewness = 6.98E-02

SE Skewness 0.93

Skewness Test normal

Kurtosis = -1.83E+00

SE Kurtosis 1.85

Kurtosis Test normal

Number of test 

runs =

7

99% confidence is desired then alpha=0.01 and 2*alpha=2*(0.01)
Distribution of Log Tests

#DIV/0!

#DIV/0!

#DIV/0!

#DIV/0!

#DIV/0!

#DIV/0!

0

REsult: normal
Harding Street

ORIS/Facility/Unit 990

Runs 09

1 1.1398E‐05

2 1.6088E‐05

3 6.9243E‐06

4

5

6

7

8

9

10

11

12

13

14

15

16

17

18

19

20

21

22

23

24

25

26

27

28

29

30

31

32

33

34

35

ni = number test runs = 3

Total Number of sources = 1

n =Total # test runs = 3

1

N

i

i

n





N
2

This step is for QC only:

means 1.15E-05

1.15E-05

Mean =

Pooled Variance = 2.0995E-11

m= number future runs = 3

Term1 0.6667

Term2 1.3997E-11

Squared root Term2 3.74125E-06

NOTE: the pvalue for the t-statistic is calculated as: 2*alpha, where 1-alpha is desired confidence, so if 

t-statistic

= quantile t-distribution 

with df degrees of 

freedom at .99 

confidence level = 6.96

 2 2

1

1

1

n

i

i

s x X

n 

   

1 1

1 N ni

ij

i j

X x

n  

 

1 1

n m



2 1 1

s

n m

      

1

1

N

i

i

df n 

        

d f t

2 1 1

s

n m

      

1

1 ni

i ik

i k

x x

n 

 

1

i

i

n





  1 1
UPL POOLED VARIANCE = 3.7526E-05

2

,

1 1 Xt s df p n m

       
Emissions (lb/MW)
99% confidence is desired then alpha=0.01 and 2*alpha=2*(0.01)
Harding Street Manatee

ORIS/Facility/Unit 990 6042

Test Averages 09 PMT02

1 1.8038E‐07 3.9828E‐07

2

3

4

5

6

7

8

9

10

11

12

13

14

15

16

17

18

19

20

21

22

23

24

25

26

27

28

29

30

31

32

33

34

35

ni = number test runs = 1 1

Total Number of sources = 7

N

i n

N
n =Total # test runs = 7

6

This step is for QC only:

means 1.80E-07 3.98E-07

5.03E-07

Mean =

Pooled Variance = 3.0738E-14

m= number future runs = 1

Term1 1.1429

Term2 3.5130E-14

Squared root Term2 1.87429E-07

NOTE: the pvalue for the t-statistic is calculated as: 2*alpha, where 1-alpha is desired confidence, so if 

t-statistic

= quantile t-distribution 

with df degrees of 

freedom at .99 

confidence level = 3.14

 2 2

1

1

1

n

i

i

s xX

n 

   

1 1

1 N ni

ij

i j

X x

n  

 

1 1

n m



s

2 1 1

n m

      

1

1

N

i

i

df n 

        

d f t

2 1 1

s

n m

      

1

1 ni

i ik

i k

x x

n 

 

1

N

i

i

n




UPL POOLED VARIANCE = 1.0922E-06

d f

2

,

1 1 Xt s df p n m

       
Harding Street William F Wyman Eagle Valley Eagle Valley

Mitchell Power

Station

990 1507 991 991 3181

10 1 1 2 003

4.7288E‐07 5.2559E‐07 6.2094E‐07 6.2094E‐07 7.0337E‐07

1 11 1 1

Emissions (lb/MMBtu)
4.73E-07 5.26E-07 6.21E-07 6.21E-07 7.03E-07

Distribution of Normal Tests

Skewness = -1.02E+00

SE Skewness 0.93

Skewness Test normal

Kurtosis = 1.01E+00

SE Kurtosis 1.85

Kurtosis Test normal

Number of test runs = 7

99% confidence is desired then alpha=0.01 and 2*alpha=2*(0.01)
Distribution of Log Tests

#DIV/0!

#DIV/0!

#DIV/0!

#DIV/0!

#DIV/0!

#DIV/0!

0 REsult: normal
Harding Street

ORIS/Facility/Unit 990

Runs 09

1 1.6180E‐07

2 1.8872E‐07

3 1.9064E‐07

4

5

6

7

8

9

10

11

12

13

14

15

16

17

18

19

20

21

22

23

24

25

26

27

28

29

30

31

32

33

34

35

ni = number test runs = 3

Total Number of sources = 1

n =Total # test runs = 3

1

N

i

i

n





N
2

This step is for QC only:

means 1.80E-07

1.80E-07

Mean =

Pooled Variance = 2.6003E-16

m= number future runs = 3

Term1 0.6667

Term2 1.7335E-16

Squared root Term2 1.31663E-08

NOTE: the pvalue for the t-statistic is calculated as: 2*alpha, where 1-alpha is desired confidence, so if 

t-statistic

= quantile t-distribution 

with df degrees of 

freedom at .99 

confidence level = 6.96

 2 2

1

1

1

n

i

i

s xX

n 

   

1 1

1 N ni

ij

i j

X x

n  

 

1 1

n m



s

2 1 1

n m

      

1

1

N

i

i

df n 

        

d f t

2 1 1

s

n m

      

1

1 ni

i ik

i k

x x

n 

 

1

i

i

n





  1 1
UPL POOLED VARIANCE = 2.7208E-07

2

,

1 1 Xt s df p n m

       
Emissions (lb/MMBtu)
99% confidence is desired then alpha=0.01 and 2*alpha=2*(0.01)
Harding Street Manatee

ORIS/Facility/Unit 990 6042

Test Averages 09 PMT02

1 2.5693E‐06 4.0341E‐06

2

3

4

5

6

7

8

9

10

11

12

13

14

15

16

17

18

19

20

21

22

23

24

25

26

27

28

29

30

31

32

33

34

35

ni = number test runs = 1 1

Total Number of sources = 7

n =Total # test runs = 7

1

N

i

i

n





N
6

This step is for QC only:

means 2.57E-06 4.03E-06

6.12E-06

Mean =

Pooled Variance = 4.1934E-12

m= number future runs = 1

Term1 1.1429

Term2 4.7924E-12

Squared root Term2 2.18916E-06

NOTE: the pvalue for the t-statistic is calculated as: 2*alpha, where 1-alpha is desired confidence, so if 

t-statistic

= quantile t-distribution 

with df degrees of 

freedom at .99 

confidence level = 3.14

 2 2

1

1

1

n

i

i

s xX

n 

   

1 1

1 N ni

ij

i j

X x

n  

 

1 1

n m



2 1 1

s

n m

      

1

1

N

i

i

df n 

        

d f t

2 1 1

s

n m

      

1

1 ni

i ik

i k

x x

n 

 

1

i

i

n




UPL POOLED VARIANCE = 1.3004E-05

2

,

1 1 Xt s df p n m

       
William F Wyman Harding Street Kahe Eagle Valley Eagle Valley

1507 990 765 991 991

1 10 K1 1 2

6.3434E‐06 6.7354E‐06 7.6945E‐06 7.7470E‐06 7.7470E‐06

1 111 1

Emissions (lb/MW)
6.34E-06 6.74E-06 7.69E-06 7.75E-06 7.75E-06

Distribution of 

Normal Tests

Skewness = -1.13E+00

SE Skewness 0.93

Skewness Test normal

Kurtosis = -1.21E-01

SE Kurtosis 1.85

Kurtosis Test normal

Number of test 

runs =

7

99% confidence is desired then alpha=0.01 and 2*alpha=2*(0.01)
Distribution of Log Tests

#DIV/0!

#DIV/0!

#DIV/0!

#DIV/0!

#DIV/0!

#DIV/0!

0

REsult: normal
Harding Street

ORIS/Facility/Unit 990

Runs 09

1 2.3045E‐06

2 2.6880E‐06

3 2.7153E‐06

4

5

6

7

8

9

10

11

12

13

14

15

16

17

18

19

20

21

22

23

24

25

26

27

28

29

30

31

32

33

34

35

ni = number test runs = 3

Total Number of sources = 1

n =Total # test runs = 3

1

N

i

i

n





N
2

This step is for QC only:

means 2.57E-06

2.57E-06

Mean =

Pooled Variance = 5.2752E-14

m= number future runs = 3

Term1 0.6667

Term2 3.5168E-14

Squared root Term2 1.87531E-07

NOTE: the pvalue for the t-statistic is calculated as: 2*alpha, where 1-alpha is desired confidence, so if 

t-statistic

= quantile t-distribution 

with df degrees of 

freedom at .99 

confidence level = 6.96

 2 2

1

1

1

n

i

i

s x X

n 

   

1 1

1 N ni

ij

i j

X x

n  

 

1 1

n m



2 1 1

s

n m

      

1

1

N

i

i

df n 

        

d f t

2 1 1

s

n m

      

1

1 ni

i ik

i k

x x

n 

 

1

i

i

n





  1 1
UPL POOLED VARIANCE = 3.8753E-06

2

,

1 1 Xt s df p n m

       
Emissions (lb/MW)
99% confidence is desired then alpha=0.01 and 2*alpha=2*(0.01)
East River Eagle Valley

ORIS/Facility/Unit 2493 991

Test Averages 60 1

1 1.0200E-05 9.3457E-05

2

3

4

5

6

7

8

9

10

11

12

13

14

15

16

17

18

19

20

21

22

23

24

25

26

27

28

29

30

31

32

33

34

35

ni = number test runs = 1 1

Total Number of sources = 7

n =Total # test runs = 7

1

N

i

i

n





N
6

This step is for QC only:

means 1.02E-05 9.35E-05

9.25E-05

Mean =

Pooled Variance = 1.6637E-09

m= number future runs = 1

Term1 1.1429

Term2 1.9014E-09

Squared root Term2 4.36052E-05

NOTE: the pvalue for the t-statistic is calculated as: 2*alpha, where 1-alpha is desired confidence, so if 99% c

t-statistic

= quantile t-distribution with 

df degrees of freedom at 

.99 confidence level = 3.14

 2 2

1

1

1

n

i

i

s x X

n 

   

1 1

1 N ni

ij

i j

X x

n  

 

1 1

n m



2 1 1

s

n m

      

1

1

N

i

i

df n 

        

d f t

2 1 1

s

n m

      

1

1 ni

i ik

i k

x x

n 

 

2   1 1
UPL POOLED VARIANCE = 2.2956E-04

2

,

1 1 Xt s df p n m

       
Eagle Valley Harding Street Kahe Harding Street

991 990 765 990

2 09 K1 10

9.3457E-05 9.5896E-05 9.6790E-05 1.1276E-04

1111

Emissions (lb/MMBtu)
9.35E-05 9.59E-05 9.68E-05 1.13E-04

Skewness =

SE Skewness

Skewness Test

Kurtosis =

SE Kurtosis

Kurtosis Test

Number of test runs =

confidence is desired then alpha=0.01 and 2*alpha=2*(0.01)
Waiau

766

W7

1.4510E-04

1

)
1.45E-04

Distribution of Normal 

Tests Distribution of Log Tests

-1.39E+00 #DIV/0!

0.93 #DIV/0!

normal #DIV/0!

3.66E+00 #DIV/0!

1.85 #DIV/0!

normal #DIV/0!

7 0 REsult: normal
Harding Street

Mitchell Power

Station

ORIS/Facility/Unit 990 3181

Test Averages 09 003

1 8.0152E‐08 2.1101E‐07

2

3

4

5

6

7

8

9

10

11

12

13

14

15

16

17

18

19

20

21

22

23

24

25

26

27

28

29

30

31

32

33

34

35

ni = number test runs = 1 1

Total Number of sources = N 7
n =Total # test runs = 7

6

This step is for QC only:

means 8.02E-08 2.11E-07

5.86E-07

Mean =

Pooled Variance = 1.8255E-13

m= number future runs = 1

Term1 1.1429

Term2 2.0863E-13

Squared root Term2 4.56759E-07

NOTE: the pvalue for the t-statistic is calculated as: 2*alpha, where 1-alpha is desired confidence, so if

t-statistic

= quantile t-distribution 

with df degrees of 

freedom at .99 

confidence level = 3.14

 2 2

1

1

1

n

i

i

s x X

n 

   

1 1

1 N ni

ij

i j

X x

n  

 

1 1

n m



2 1 1

s

n m

      

1

1

N

i

i

df n 

        

d f t

2 1 1

s

n m

      

1

1 ni

i ik

i k

x x

n 

 

1

N

i

i

n




UPL POOLED VARIANCE = 2.0215E-06

d f

2

,

1 1 Xt s df p n m

       
Port Everglades Mitchell Power Station

Danskammer

Generating

Station

Danskammer

Generating Station

Norwalk ‐ 

Norwalk

Power LLC

617 3181 2480 2480 548

PPE03 001 1 2 2

3.3974E‐07 3.8045E‐07 9.8722E‐07 1.0362E‐06 1.0679E‐06

1 1 1 11

Emissions (lb/MMBtu)
3.40E-07 3.80E-07 9.87E-07 1.04E-06 1.07E-06

Distribution of 

Normal Tests

Skewness = 1.84E-01

SE Skewness 0.93

Skewness Test normal

Kurtosis = -2.44E+00

SE Kurtosis 1.85

Kurtosis Test normal

Number of test runs = 7

f 99% confidence is desired then alpha=0.01 and 2*alpha=2*(0.01)
Distribution of Log Tests

#DIV/0!

#DIV/0!

#DIV/0!

#DIV/0!

#DIV/0!

#DIV/0!

0 REsult: normal
Harding Street Mitchell Power Station

ORIS/Facility/Unit 990 3181

Test Averages 09 003

1 3.023332E-07 9.591349E-07

2

3

4

5

6

7

8

9

10

11

12

13

14

15

16

17

18

19

20

21

22

23

24

25

26

27

28

29

30

31

32

33

34

35

ni = number test runs = 1 1

Total Number of sources = 7

n =Total # test runs = 7

1

N

i

i

n





N
6

This step is for QC only:

means 3.02E-07 9.59E-07

1.11E-06

Mean =

Pooled Variance = 1.6460E-13

m= number future runs = 1

Term1 1.1429

Term2 1.8811E-13

Squared root Term2 4.33721E-07

NOTE: the pvalue for the t-statistic is calculated as: 2*alpha, where 1-alpha is desired confidence, so if 99

t-statistic

= quantile t-distribution 

with df degrees of 

freedom at .99 

confidence level = 3.14

 2 2

1

1

1

n

i

i

s x X

n 

   

1 1

1 N ni

ij

i j

X x

n  

 

1 1

n m



s

2 1 1

n m

      

1

1

N

i

i

df n 

        

d f t

2 1 1

s

n m

      

1

1 ni

i ik

i k

x x

n 

 

  1 1
UPL POOLED VARIANCE = 2.4682E-06

2

,

1 1 Xt s df p n m

       
Port Everglades Mitchell Power Station Harding Street Eagle Valley Eagle Valley

617 3181 990 991 991

PPE04 001 10 1 2

9.997362E-07 1.214230E-06 1.397323E-06 1.431789E-06 1.431789E-06

1 1 111

Emissions (lb/MW)
1.00E-06 1.21E-06 1.40E-06 1.43E-06 1.43E-06

Distribution of 

Normal Tests

Skewness = -1.49E+00

SE Skewness 0.93

Skewness Test normal

Kurtosis = 2.29E+00

SE Kurtosis 1.85

Kurtosis Test normal

Number of test 

runs =

7

9% confidence is desired then alpha=0.01 and 2*alpha=2*(0.01)
#DIV/0! #DIV/0! #DIV/0! #DIV/0!

Distribution of Log Tests

#DIV/0!

#DIV/0!

#DIV/0!

#DIV/0!

#DIV/0!

#DIV/0!

0

REsult: normal
Harding Street

ORIS/Facility/Unit 990

Runs 09

1 2.3746E-07

2 2.3081E-07

3 4.6631E-07

4

5

6

7

8

9

10

11

12

13

14

15

16

17

18

19

20

21

22

23

24

25

26

27

28

29

30

31

32

33

34

35

ni = number test runs = 3

Total Number of sources = 1

n =Total # test runs = 3

1

N

i

i

n





N
2

This step is for QC only:

means 3.12E-07

3.12E-07

Mean =

Pooled Variance = 1.7979E-14

m= number future runs = 3

Term1 0.6667

Term2 1.1986E-14

Squared root Term2 1.09481E-07

NOTE: the pvalue for the t-statistic is calculated as: 2*alpha, where 1-alpha is desired confidence, so if 

t-statistic

= quantile t-distribution 

with df degrees of 

freedom at .99 

confidence level = 6.96

UPL POOLED VARIANCE = 1.0740E-06

 2 2

1

1

1

n

i

i

s x X

n 

   

1 1

1 N ni

ij

i j

X x

n  

 

1 1

n m



s

2 1 1

n m

      

1

1

N

i

i

df n 

        

d f t

2 1 1

s

n m

      

1

1 ni

i ik

i k

x x

n 

 

2 1 1 X df p t s        
2

,

1 1 Xt s df p n m

       
Emissions (lb/MW)
99% confidence is desired then alpha=0.01 and 2*alpha=2*(0.01)
Port Everglades Port Everglades

ORIS/Facility/Unit 617 617

Test Averages PPE03 PPE04

1 1.6383E-07 2.0653E-07

2

3

4

5

6

7

8

9

10

11

12

13

14

15

16

17

18

19

20

21

22

23

24

25

26

27

28

29

30

31

32

33

34

35

ni = number test runs = 1 1

Total Number of sources = 7

n =Total # test runs = 7

1

N

i

i

n





N
6

This step is for QC only:

means 1.64E-07 2.07E-07

2.70E-07

Mean =

Pooled Variance = 6.4910E-15

m= number future runs = 1

Term1 1.1429

Term2 7.4183E-15

Squared root Term2 8.61294E-08

NOTE: the pvalue for the t-statistic is calculated as: 2*alpha, where 1-alpha is desired confidence, so if 

t-statistic

= quantile t-distribution 

with df degrees of 

freedom at .99 

confidence level = 3.14

 2 2

1

1

1

n

i

i

s x X

n 

   

1 1

1 N ni

ij

i j

X x

n  

 

1 1

n m



s

2 1 1

n m

      

1

1

N

i

i

df n 

        

d f t

2 1 1

s

n m

      

1

1 ni

i ik

i k

x x

n 

 

2   1 1
UPL POOLED VARIANCE = 5.4091E-07

2

,

1 1 Xt s df p n m

       
Harding Street Mitchell Power Station Montville Station Mitchell Power Station Middletown

990 3181 546 3181 562

09 001 5 003 2

2.1801E-07 2.5163E-07 3.2441E-07 3.5594E-07 3.7129E-07

1 1 1 11

Emissions (lb/MMBtu)
2.18E-07 2.52E-07 3.24E-07 3.56E-07 3.71E-07

Distribution of 

Normal Tests

Skewness = 9.30E-02

SE Skewness 0.93

Skewness Test normal

Kurtosis = -1.87E+00

SE Kurtosis 1.85

Kurtosis Test normal

Number of test runs = 7

99% confidence is desired then alpha=0.01 and 2*alpha=2*(0.01)
Port Everglades

ORIS/Facility/Unit 617

Runs PPE03

1 1.6267E‐07

2 1.6469E‐07

3 1.6412E‐07

4

5

6

7

8

9

10

11

12

13

14

15

16

17

18

19

20

21

22

23

24

25

26

27

28

29

30

31

32

33

34

35

ni = number test runs = 3 0

Total Number of sources = 1

n =Total # test runs = 3

1

N

i

i

n





N
2

This step is for QC only:

means 1.64E-07 #DIV/0!

1.64E-07

Mean =

Pooled Variance = 1.0863E-18

m= number future runs = 3

Term1 0.6667

Term2 7.2423E-19

Squared root Term2 8.51016E-10

NOTE: the pvalue for the t-statistic is calculated as: 2*alpha, where 1-alpha is desired confidence, so if 

t-statistic

= quantile t-distribution 

with df degrees of 

freedom at .99 

confidence level = 6.96

UPL POOLED VARIANCE = 1.6975E-07

 2 2

1

1

1

n

i

i

s x X

n 

   

1 1

1 N ni

ij

i j

X x

n  

 

1 1

n m



s

2 1 1

n m

      

1

1

N

i

i

df n 

        

d f t

2 1 1

s

n m

      

1

1 ni

i ik

i k

x x

n 

 

2 1 1 X df p t s        
2

,

1 1 Xt s df p n m

       
0 0 0 00

Emissions (lb/MMBtu)
#DIV/0! #DIV/0! #DIV/0! #DIV/0! #DIV/0!

99% confidence is desired then alpha=0.01 and 2*alpha=2*(0.01)
Port Everglades Port Everglades

ORIS/Facility/Unit 617 617

Test Averages PPE03 PPE04

1 1.6590E‐06 2.0914E‐06

2

3

4

5

6

7

8

9

10

11

12

13

14

15

16

17

18

19

20

21

22

23

24

25

26

27

28

29

30

31

32

33

34

35

ni = number test runs = 1 1

Total Number of sources = N 7
n =Total # test runs = 7

6

This step is for QC only:

means 1.66E-06 2.09E-06

3.23E-06

Mean =

Pooled Variance = 1.1820E-12

m= number future runs = 1

Term1 1.1429

Term2 1.3508E-12

Squared root Term2 1.16225E-06

NOTE: the pvalue for the t-statistic is calculated as: 2*alpha, where 1-alpha is desired confidence, so if 

 2 2

1

1

1

n

i

i

s x X

n 

   

1 1

1 N ni

ij

i j

X x

n  

 

1 1

n m



s

2 1 1

n m

      

1

1

N

i

i

df n 

        

2 1 1

s

n m

      

1

1 ni

i ik

i k

x x

n 

 

1

N

i

i

n




t-statistic

= quantile t-distribution 

with df degrees of 

freedom at .99 

confidence level = 3.14

UPL POOLED VARIANCE = 6.8826E-06

d f t

2

,

1 1 Xt s df p n m

       
Mitchell Power Station Ravenswood Harding Street Ravenswood

Mitchell Power

Station

3181 2500 990 2500 3181

001 20 09 30 003

3.1052E‐06 3.4313E‐06 3.4850E‐06 3.9850E‐06 4.8537E‐06

1 111 1

Emissions (lb/MW)
3.11E-06 3.43E-06 3.48E-06 3.99E-06 4.85E-06

Distribution of 

Normal Tests

Skewness = -1.13E-01

SE Skewness 0.93

Skewness Test normal

Kurtosis = -3.72E-01

SE Kurtosis 1.85

Kurtosis Test normal

Number of test 

runs =

7

99% confidence is desired then alpha=0.01 and 2*alpha=2*(0.01)
Port Everglades

ORIS/Facility/Unit 617

Runs PPE03

1 1.4880E‐06

2 1.5065E‐06

3 1.5014E‐06

4

5

6

7

8

9

10

11

12

13

14

15

16

17

18

19

20

21

22

23

24

25

26

27

28

29

30

31

32

33

34

35

ni = number test runs = 3

Total Number of sources = 1

n =Total # test runs = 3

1

N

i

i

n





N
2

This step is for QC only:

means 1.50E-06

1.50E-06

Mean =

Pooled Variance = 9.0906E-17

m= number future runs = 3

Term1 0.6667

Term2 6.0604E-17

Squared root Term2 7.78486E-09

NOTE: the pvalue for the t-statistic is calculated as: 2*alpha, where 1-alpha is desired confidence, so if 

t-statistic

= quantile t-distribution 

with df degrees of 

freedom at .99 

confidence level = 6.96

 2 2

1

1

1

n

i

i

s xX

n 

   

1 1

1 N ni

ij

i j

X x

n  

 

1 1

n m



s

2 1 1

n m

      

1

1

N

i

i

df n 

        

d f t

2 1 1

s

n m

      

1

1 ni

i ik

i k

x x

n 

 

1

i

i

n





  1 1
UPL POOLED VARIANCE = 1.5529E-06

2

,

1 1 Xt s df p n m

       
Emissions (lb/MW)
99% confidence is desired then alpha=0.01 and 2*alpha=2*(0.01)
Harding Street

Mitchell Power

Station

ORIS/Facility/Unit 990 3181

Test Averages 09 003

1 1.6033E‐08 2.1101E‐08

2

3

4

5

6

7

8

9

10

11

12

13

14

15

16

17

18

19

20

21

22

23

24

25

26

27

28

29

30

31

32

33

34

35

ni = number test runs = 1 1

Total Number of sources = 7

N

i n

N
n =Total # test runs = 7

6

This step is for QC only:

means 1.60E-08 2.11E-08

2.72E-08

Mean =

Pooled Variance = 7.8580E-17

m= number future runs = 1

Term1 1.1429

Term2 8.9806E-17

Squared root Term2 9.47659E-09

NOTE: the pvalue for the t-statistic is calculated as: 2*alpha, where 1-alpha is desired confidence, so if 

t-statistic

= quantile t-distribution 

with df degrees of 

freedom at .99 

confidence level = 3.14

 2 2

1

1

1

n

i

i

s x X

n 

   

1 1

1 N ni

ij

i j

X x

n  

 

1 1

n m



2 1 1

s

n m

      

1

1

N

i

i

df n 

        

d f t

2 1 1

s

n m

      

1

1 ni

i ik

i k

x x

n 

 

1

N

i

i

n




UPL POOLED VARIANCE = 5.6981E-08

d f

2

,

1 1 Xt s df p n m

       
Jefferies Mitchell Power Station Port Everglades Harding Street

Suwannee

River Plant

3319 3181 617 990 638

J2 001 PPE03 10 Suw_Cfg_2

2.1469E‐08 2.6713E‐08 2.8409E‐08 3.4656E‐08 4.2014E‐08

1 1 1 11

Emissions (lb/MMBtu)
2.15E-08 2.67E-08 2.84E-08 3.47E-08 4.20E-08

Distribution of 

Normal Tests

Skewness = 6.23E-01

SE Skewness 0.93

Skewness Test normal

Kurtosis = -1.65E-01

SE Kurtosis 1.85

Kurtosis Test normal

Number of test runs = 7

99% confidence is desired then alpha=0.01 and 2*alpha=2*(0.01)
Distribution of Log Tests

#DIV/0!

#DIV/0!

#DIV/0!

#DIV/0!

#DIV/0!

#DIV/0!

0 REsult: normal
Harding Street

ORIS/Facility/Unit 990

Runs 09

1 1.6180E‐08 DDL

2 1.5886E‐08 DDL

3

4

5

6

7

8

9

10

11

12

13

14

15

16

17

18

19

20

21

22

23

24

25

26

27

28

29

30

31

32

33

34

35

ni = number test runs = 2

Total Number of sources = 1

n =Total # test runs = 2

1

N

i

i

n





N
1

This step is for QC only:

means 1.60E-08

1.60E-08

Mean =

Pooled Variance = 4.3033E-20

m= number future runs = 3

Term1 0.8333

Term2 3.5861E-20

Squared root Term2 1.8937E-10

NOTE: the pvalue for the t-statistic is calculated as: 2*alpha, where 1-alpha is desired confidence, so if 

t-statistic

= quantile t-distribution 

with df degrees of 

freedom at .99 

confidence level = 31.82

 2 2

1

1

1

n

i

i

s x X

n 

   

1 1

1 N ni

ij

i j

X x

n  

 

1 1

n m



2 1 1

s

n m

      

1

1

N

i

i

df n 

        

d f t

2 1 1

s

n m

      

1

1 ni

i ik

i k

x x

n 

 

1

i

i

n





2 1 1 X df p t s        
UPL POOLED VARIANCE = 2.2059E-08

MDL x 3 4.7659E-08

2

,

1 1 X df p t s

n m

       
Emissions (lb/MMBtu)
99% confidence is desired then alpha=0.01 and 2*alpha=2*(0.01)
Harding Street

Mitchell Power

Station

ORIS/Facility/Unit 990 3181

Test Averages 09 003

1 2.2836E‐07 2.5080E‐07

2

3

4

5

6

7

8

9

10

11

12

13

14

15

16

17

18

19

20

21

22

23

24

25

26

27

28

29

30

31

32

33

34

35

ni = number test runs = 1 1

Total Number of sources = 7

N

i n

N
n =Total # test runs = 7

6

This step is for QC only:

means 2.28E-07 2.51E-07

3.29E-07

Mean =

Pooled Variance = 7.8930E-15

m= number future runs = 1

Term1 1.1429

Term2 9.0206E-15

Squared root Term2 9.4977E-08

NOTE: the pvalue for the t-statistic is calculated as: 2*alpha, where 1-alpha is desired confidence, so if 

t-statistic

= quantile t-distribution 

with df degrees of 

freedom at .99 

confidence level = 3.14

 2 2

1

1

1

n

i

i

s xX

n 

   

1 1

1 N ni

ij

i j

X x

n  

 

1 1

n m



2 1 1

s

n m

      

1

1

N

i

i

df n 

        

d f t

2 1 1

s

n m

      

1

1 ni

i ik

i k

x x

n 

 

1

N

i

i

n




UPL POOLED VARIANCE = 6.2782E-07

d f

2

,

1 1 Xt s df p n m

       
Jefferies Mitchell Power Station

Port

Everglades Harding Street

Suwannee

River Plant

3319 3181 617 990 638

J2 001 PPE03 10 Suw_Cfg_2

2.8769E‐07 2.8774E‐07 3.6427E‐07 4.3000E‐07 4.5652E‐07

1 111 1

Emissions (lb/MW)
2.88E-07 2.88E-07 3.64E-07 4.30E-07 4.57E-07

Distribution of 

Normal Tests

Skewness = 4.86E-01

SE Skewness 0.93

Skewness Test normal

Kurtosis = -1.55E+00

SE Kurtosis 1.85

Kurtosis Test normal

Number of test 

runs =

7

99% confidence is desired then alpha=0.01 and 2*alpha=2*(0.01)
Harding Street

ORIS/Facility/Unit 990

Runs 09

1 2.3045E‐07 DDL

2 2.2627E‐07 DDL

3

4

5

6

7

8

9

10

11

12

13

14

15

16

17

18

19

20

21

22

23

24

25

26

27

28

29

30

31

32

33

34

35

ni = number test runs = 2

Total Number of sources = 1

n =Total # test runs = 2

1

N

i

i

n





N
1

This step is for QC only:

means 2.28E-07

2.28E-07

Mean =

Pooled Variance = 8.7302E-18

m= number future runs = 3

Term1 0.8333

Term2 7.2751E-18

Squared root Term2 2.69725E-09

NOTE: the pvalue for the t-statistic is calculated as: 2*alpha, where 1-alpha is desired confidence, so if 

t-statistic

= quantile t-distribution 

with df degrees of 

freedom at .99 

confidence level = 31.82

 2 2

1

1

1

n

i

i

s x X

n 

   

1 1

1 N ni

ij

i j

X x

n  

 

1 1

n m



s

2 1 1

n m

      

1

1

N

i

i

df n 

        

d f t

2 1 1

s

n m

      

1

1 ni

i ik

i k

x x

n 

 

1

i

i

n





2

,

1 1 Xt s df p n m

       
UPL POOLED VARIANCE = 3.1419E-07

MDL x 3 6.7882E-07

X tdf p, s

n m

     
Emissions (lb/MW)
99% confidence is desired then alpha=0.01 and 2*alpha=2*(0.01)
Port Everglades

Mitchell Power

Station

ORIS/Facility/Unit 617 3181

Test Averages PPE03 003

1 1.4205E‐08 3.9047E‐08

2

3

4

5

6

7

8

9

10

11

12

13

14

15

16

17

18

19

20

21

22

23

24

25

26

27

28

29

30

31

32

33

34

35

ni = number test runs = 1 1

Total Number of sources = 7

N

i n

N
n =Total # test runs = 7

6

This step is for QC only:

means 1.42E-08 3.90E-08

4.40E-08

Mean =

Pooled Variance = 2.1256E-16

m= number future runs = 1

Term1 1.1429

Term2 2.4292E-16

Squared root Term2 1.5586E-08

NOTE: the pvalue for the t-statistic is calculated as: 2*alpha, where 1-alpha is desired confidence, so if 

t-statistic

= quantile t-distribution 

with df degrees of 

freedom at .99 

confidence level = 3.14

 2 2

1

1

1

n

i

i

s x X

n 

   

1 1

1 N ni

ij

i j

X x

n  

 

1 1

n m



2 1 1

s

n m

      

1

1

N

i

i

df n 

        

d f t

2 1 1

s

n m

      

1

1 ni

i ik

i k

x x

n 

 

1

N

i

i

n




UPL POOLED VARIANCE = 9.2940E-08

d f

2

,

1 1 Xt s df p n m

       
Montville Station Manatee Middletown Eagle Valley Eagle Valley

546 6042 562 991 991

5 PMT02 2 1 2

4.2553E‐08 4.7800E‐08 5.3287E‐08 5.5408E‐08 5.5408E‐08

1 1 1 11

Emissions (lb/MMBtu)
4.26E-08 4.78E-08 5.33E-08 5.54E-08 5.54E-08

Distribution of 

Normal Tests

Skewness = -1.70E+00

SE Skewness 0.93

Skewness Test normal

Kurtosis = 3.14E+00

SE Kurtosis 1.85

Kurtosis Test normal

Number of test runs = 7

99% confidence is desired then alpha=0.01 and 2*alpha=2*(0.01)
Port Everglades

ORIS/Facility/Unit 617

Runs PPE03

1 1.4321E‐08 BDL

2 1.4145E‐08 BDL

3 1.4149E‐08 BDL

4

5

6

7

8

9

10

11

12

13

14

15

16

17

18

19

20

21

22

23

24

25

26

27

28

29

30

31

32

33

34

35

ni = number test runs = 3

Total Number of sources = 1

n =Total # test runs = 3

1

N

i

i

n





N
2

This step is for QC only:

means 1.42E-08

1.42E-08

Mean =

Pooled Variance = 1.0076E-20

m= number future runs = 3

Term1 0.6667

Term2 6.7173E-21

Squared root Term2 8.19589E-11

NOTE: the pvalue for the t-statistic is calculated as: 2*alpha, where 1-alpha is desired confidence, so if 

t-statistic

= quantile t-distribution 

with df degrees of 

freedom at .99 

confidence level = 6.96

 2 2

1

1

1

n

i

i

s x X

n 

   

1 1

1 N ni

ij

i j

X x

n  

 

1 1

n m



s

2 1 1

n m

      

1

1

N

i

i

df n 

        

d f t

2 1 1

s

n m

      

1

1 ni

i ik

i k

x x

n 

 

1

i

i

n





2

,

1 1 Xt s df p n m

       
UPL POOLED VARIANCE = 1.4776E-08

MDL x 3 4.2446E-08

2

,

1 1 X df p t s

n m

       
Emissions (lb/MMBtu)
99% confidence is desired then alpha=0.01 and 2*alpha=2*(0.01)
Port Everglades Manatee

ORIS/Facility/Unit 617 6042

Test Averages PPE03 PMT02

1 1.4385E‐07 4.8415E‐07

2

3

4

5

6

7

8

9

10

11

12

13

14

15

16

17

18

19

20

21

22

23

24

25

26

27

28

29

30

31

32

33

34

35

ni = number test runs = 1 1

Total Number of sources = N 7
n =Total # test runs = 7

6

This step is for QC only:

means 1.44E-07 4.84E-07

4.87E-07

Mean =

Pooled Variance = 2.5536E-14

m= number future runs = 1

Term1 1.1429

Term2 2.9184E-14

Squared root Term2 1.70833E-07

NOTE: the pvalue for the t-statistic is calculated as: 2*alpha, where 1-alpha is desired confidence, so if 

 2 2

1

1

1

n

i

i

s x X

n 

   

1 1

1 N ni

ij

i j

X x

n  

 

1 1

n m



2 1 1

s

n m

      

1

1

N

i

i

df n 

        

2 1 1

s

n m

      

1

1 ni

i ik

i k

x x

n 

 

1

N

i

i

n




t-statistic

= quantile t-distribution 

with df degrees of 

freedom at .99 

confidence level = 3.142668403

UPL POOLED VARIANCE = 1.02402E-06

d f t

2

,

1 1 Xt s df p n m

       
Middletown Montville Station

Mitchell

Power Station Northport Manatee

562 546 3181 2516 6042

2 5 003 Unit2 PMT01

5.0016E‐07 5.2272E‐07 5.3245E‐07 6.1113E‐07 6.1557E‐07

1 111 1

Emissions (lb/MW)
5.00E-07 5.23E-07 5.32E-07 6.11E-07 6.16E-07

Distribution of 

Normal Tests

Skewness = -2.08E+00

SE Skewness 0.93

Skewness Test normal

Kurtosis = 4.91E+00

SE Kurtosis 1.85

Kurtosis Test non-normal

Number of test 

runs =

7

99% confidence is desired then alpha=0.01 and 2*alpha=2*(0.01)
Port Everglades

ORIS/Facility/Unit 617

Runs PPE03

1 1.31001E‐07 BDL

2 1.29395E‐07 BDL

3 1.29428E‐07 BDL

4

5

6

7

8

9

10

11

12

13

14

15

16

17

18

19

20

21

22

23

24

25

26

27

28

29

30

31

32

33

34

35

ni = number test runs = 3

Total Number of sources = 1

n =Total # test runs = 3

1

N

i

i

n





N
2

This step is for QC only:

means 1.30E-07

1.30E-07

Mean =

Pooled Variance = 8.4316E-19

m= number future runs = 3

Term1 0.6667

Term2 5.6211E-19

Squared root Term2 7.49737E-10

NOTE: the pvalue for the t-statistic is calculated as: 2*alpha, where 1-alpha is desired confidence, so if 

t-statistic

= quantile t-distribution 

with df degrees of 

freedom at .99 

confidence level = 6.96

 2 2

1

1

1

n

i

i

s x X

n 

   

1 1

1 N ni

ij

i j

X x

n  

 

1 1

n m



s

2 1 1

n m

      

1

1

N

i

i

df n 

        

d f t

2 1 1

s

n m

      

1

1 ni

i ik

i k

x x

n 

 

1

i

i

n





2

,

1 1 Xt s df p n m

       
UPL POOLED VARIANCE = 1.3516E-07

MDL x 3 3.8828E-07

2

,

1 1 X df p t s

n m

       
Emissions (lb/MW)
99% confidence is desired then alpha=0.01 and 2*alpha=2*(0.01)
Port Everglades Harding Street

ORIS/Facility/Unit 617 990

Test Averages PPE04 09

1 4.3092E‐07 4.8310E‐07

2

3

4

5

6

7

8

9

10

11

12

13

14

15

16

17

18

19

20

21

22

23

24

25

26

27

28

29

30

31

32

33

34

35

ni = number test runs = 1 1

Total Number of sources = 7

n =Total # test runs = 7

1

N

i

i

n





N
6

This step is for QC only:

means 4.31E-07 4.83E-07

7.87E-07

Mean =

Pooled Variance = 5.4001E-14

m= number future runs = 1

Term1 1.1429

Term2 6.1716E-14

Squared root Term2 2.48427E-07

NOTE: the pvalue for the t-statistic is calculated as: 2*alpha, where 1-alpha is desired confidence, so if 

t-statistic

= quantile t-distribution 

with df degrees of 

freedom at .99 

confidence level = 3.14

 2 2

1

1

1

n

i

i

s xX

n 

   

1 1

1 N ni

ij

i j

X x

n  

 

1 1

n m



2 1 1

s

n m

      

1

1

N

i

i

df n 

        

d f t

2 1 1

s

n m

      

1

1 ni

i ik

i k

x x

n 

 

1

i

i

n




UPL POOLED VARIANCE = 1.5677E-06

2

,

1 1 Xt s df p n m

       
Waiau Port Everglades Northport Eagle Valley Eagle Valley

766 617 2516 991 991

W6 PPE03 Unit2 1 2

8.5221E‐07 8.6871E‐07 8.9322E‐07 9.9028E‐07 9.9028E‐07

1 1 1 11

Emissions (lb/MMBtu)
8.52E-07 8.69E-07 8.93E-07 9.90E-07 9.90E-07

Distribution of 

Normal Tests

Skewness = -1.01E+00

SE Skewness 0.93

Skewness Test normal

Kurtosis = -8.87E-01

SE Kurtosis 1.85

Kurtosis Test normal

Number of test runs = 7

99% confidence is desired then alpha=0.01 and 2*alpha=2*(0.01)
Port Everglades

ORIS/Facility/Unit 617

Runs PPE04

1 5.8889E‐07

2 4.0664E‐07

3 2.9721E‐07

4

5

6

7

8

9

10

11

12

13

14

15

16

17

18

19

20

21

22

23

24

25

26

27

28

29

30

31

32

33

34

35

ni = number test runs = 3

Total Number of sources = 1

n =Total # test runs = 3

1

N

i

i

n





N
2

This step is for QC only:

means 4.31E-07

4.31E-07

Mean =

Pooled Variance = 2.1711E-14

m= number future runs = 3

Term1 0.6667

Term2 1.4474E-14

Squared root Term2 1.20308E-07

NOTE: the pvalue for the t-statistic is calculated as: 2*alpha, where 1-alpha is desired confidence, so if 

t-statistic

= quantile t-distribution 

with df degrees of 

freedom at .99 

confidence level = 6.96

 2 2

1

1

1

n

i

i

s xX

n 

   

1 1

1 N ni

ij

i j

X x

n  

 

1 1

n m



s

2 1 1

n m

      

1

1

N

i

i

df n 

        

d f t

2 1 1

s

n m

      

1

1 ni

i ik

i k

x x

n 

 

1

i

i

n





  1 1
UPL POOLED VARIANCE = 1.2688E-06

2

,

1 1 Xt s df p n m

       
Emissions (lb/MMBtu)
99% confidence is desired then alpha=0.01 and 2*alpha=2*(0.01)
Port Everglades Harding Street

ORIS/Facility/Unit 617 990

Test Averages PPE04 09

1 4.3637E‐06 6.8809E‐06

2

3

4

5

6

7

8

9

10

11

12

13

14

15

16

17

18

19

20

21

22

23

24

25

26

27

28

29

30

31

32

33

34

35

ni = number test runs = 1 1

Total Number of sources = 7

n =Total # test runs = 7

1

N

i

i

n





N
6

This step is for QC only:

means 4.36E-06 6.88E-06

8.97E-06

Mean =

Pooled Variance = 8.1267E-12

m= number future runs = 1

Term1 1.1429

Term2 9.2877E-12

Squared root Term2 3.04757E-06

NOTE: the pvalue for the t-statistic is calculated as: 2*alpha, where 1-alpha is desired confidence, so if 

t-statistic

= quantile t-distribution 

with df degrees of 

freedom at .99 

confidence level = 3.14

 2 2

1

1

1

n

i

i

s x X

n 

   

1 1

1 N ni

ij

i j

X x

n  

 

1 1

n m



2 1 1

s

n m

      

1

1

N

i

i

df n 

        

d f t

2 1 1

s

n m

      

1

1 ni

i ik

i k

x x

n 

 

1

i

i

n




UPL POOLED VARIANCE = 1.8550E-05

2

,

1 1 Xt s df p n m

       
Northport Port Everglades Waiau Eagle Valley Eagle Valley

2516 617 766 991 991

Unit2 PPE03 W6 1 2

8.6940E‐06 8.7970E‐06 9.3654E‐06 1.2355E‐05 1.2355E‐05

1 111 1

Emissions (lb/MW)
8.69E-06 8.80E-06 9.37E-06 1.24E-05 1.24E-05

Distribution of 

Normal Tests

Skewness = -2.99E-01

SE Skewness 0.93

Skewness Test normal

Kurtosis = -2.26E-01

SE Kurtosis 1.85

Kurtosis Test normal

Number of test 

runs =

7

99% confidence is desired then alpha=0.01 and 2*alpha=2*(0.01)
Port Everglades

ORIS/Facility/Unit 617

Runs PPE04

1 5.4267E‐06

2 3.7472E‐06

3 2.7388E‐06

4

5

6

7

8

9

10

11

12

13

14

15

16

17

18

19

20

21

22

23

24

25

26

27

28

29

30

31

32

33

34

35

ni = number test runs = 3

Total Number of sources = 1

n =Total # test runs = 3

1

N

i

i

n





N
2

This step is for QC only:

means 3.97E-06

3.97E-06

Mean =

Pooled Variance = 1.8436E-12

m= number future runs = 3

Term1 0.6667

Term2 1.2291E-12

Squared root Term2 1.10864E-06

NOTE: the pvalue for the t-statistic is calculated as: 2*alpha, where 1-alpha is desired confidence, so if 

t-statistic

= quantile t-distribution 

with df degrees of 

freedom at .99 

confidence level = 6.96

 2 2

1

1

1

n

i

i

s x X

n 

   

1 1

1 N ni

ij

i j

X x

n  

 

1 1

n m



s

2 1 1

n m

      

1

1

N

i

i

df n 

        

d f t

2 1 1

s

n m

      

1

1 ni

i ik

i k

x x

n 

 

1

i

i

n





  1 1
UPL POOLED VARIANCE = 1.1692E-05

2

,

1 1 Xt s df p n m

       
Emissions (lb/MW)
99% confidence is desired then alpha=0.01 and 2*alpha=2*(0.01)
Harding Street

ORIS/Facility/Unit 990

Runs 09

1 1.61798E-08

2 1.57267E-08

3 3.17728E-08

4

5

6

7

8

9

10

11

12

13

14

15

16

17

18

19

20

21

22

23

24

25

26

27

28

29

30

31

32

33

34

35

ni = number test runs = 3

Total Number of sources = 1

n =Total # test runs = 3

1

N

i

i

n





N
2

This step is for QC only:

means 2.12E-08

2.12E-08

Mean =

Pooled Variance = 8.3471E-17

m= number future runs = 3

Term1 0.6667

Term2 5.5648E-17

Squared root Term2 7.45973E-09

NOTE: the pvalue for the t-statistic is calculated as: 2*alpha, where 1-alpha is desired confidence, so if 99% 

t-statistic

= quantile t-distribution with 

df degrees of freedom at 

.99 confidence level = 6.96

UPL POOLED VARIANCE = 7.3180E-08

 2 2

1

1

1

n

i

i

s x X

n 

   

1 1

1 N ni

ij

i j

X x

n  

 

1 1

n m



s

2 1 1

n m

      

1

1

N

i

i

df n 

        

d f t

2 1 1

s

n m

      

1

1 ni

i ik

i k

x x

n 

 

2

,

1 1 Xt s df p n m

       
Emissions (lb/MMBtu)
confidence is desired then alpha=0.01 and 2*alpha=2*(0.01)
Harding Street Port Everglades

ORIS/Facility/Unit 990 617

Test Averages 09 PPE04

1 6.970336E-06 8.610409E-06

2

3

4

5

6

7

8

9

10

11

12

13

14

15

16

17

18

19

20

21

22

23

24

25

26

27

28

29

30

31

32

33

34

35

ni = number test runs = 1 1

Total Number of sources = 7

n =Total # test runs = 7

1

N

i

i

n





N
6

This step is for QC only:

means 6.97E-06 8.61E-06

1.09E-05

Mean =

Pooled Variance = 9.1569E-12

m= number future runs = 1

Term1 1.1429

Term2 1.0465E-11

Squared root Term2 3.23497E-06

NOTE: the pvalue for the t-statistic is calculated as: 2*alpha, where 1-alpha is desired confidence, so if 99% c

t-statistic

= quantile t-distribution with 

df degrees of freedom at 

.99 confidence level = 3.14

 2 2

1

1

1

n

i

i

s x X

n 

   

1 1

1 N ni

ij

i j

X x

n  

 

1 1

n m



s

2 1 1

n m

      

1

1

N

i

i

df n 

        

d f t

2 1 1

s

n m

      

1

1 ni

i ik

i k

x x

n 

 

2   1 1
UPL POOLED VARIANCE = 2.1072E-05

2

,

1 1 Xt s df p n m

       
Mitchell Power Station Port Everglades Eagle Valley Eagle Valley

3181 617 991 991

003 PPE03 1 2

8.644071E-06 1.092772E-05 1.279912E-05 1.279912E-05

1111

Emissions (lb/MMBtu)
8.64E-06 1.09E-05 1.28E-05 1.28E-05

Skewness =

SE Skewness

Skewness Test

Kurtosis =

SE Kurtosis

Kurtosis Test

Number of test runs =

confidence is desired then alpha=0.01 and 2*alpha=2*(0.01)
Mitchell Power Station

3181

001

1.558550E-05

1

)
1.56E-05

Distribution of Normal 

Tests Distribution of Log Tests

2.66E-01 #DIV/0!

0.93 #DIV/0!

normal #DIV/0!

-9.52E-01 #DIV/0!

1.85 #DIV/0!

normal #DIV/0!

7 0 REsult: normal
Harding Street

ORIS/Facility/Unit 990

Runs 09

1 7.2809E‐07

2 8.8646E‐07

3 4.7495E‐07

4

5

6

7

8

9

10

11

12

13

14

15

16

17

18

19

20

21

22

23

24

25

26

27

28

29

30

31

32

33

34

35

ni = number test runs = 3

Total Number of sources = 1

n =Total # test runs = 3

1

N

i

i

n





N
2

This step is for QC only:

means 6.96E-07

6.96E-07

Mean =

Pooled Variance = 4.3085E-14

m= number future runs = 3

Term1 0.6667

Term2 2.8723E-14

Squared root Term2 1.6948E-07

NOTE: the pvalue for the t-statistic is calculated as: 2*alpha, where 1-alpha is desired confidence, so if 99% c

t-statistic

= quantile t-distribution with 

df degrees of freedom at 

.99 confidence level = 6.96

UPL POOLED VARIANCE = 1.8769E-06

 2 2

1

1

1

n

i

i

s x X

n 

   

1 1

1 N ni

ij

i j

X x

n  

 

1 1

n m



s

2 1 1

n m

      

1

1

N

i

i

df n 

        

d f t

2 1 1

s

n m

      

1

1 ni

i ik

i k

x x

n 

 

2 1 1 X df p t s        
2

,

1 1 Xt s df p n m

       
Emissions (lb/MMBtu)
confidence is desired then alpha=0.01 and 2*alpha=2*(0.01)
Port Everglades Harding Street

ORIS/Facility/Unit 617 990

Test Averages PPE04 09

1 8.719401E-05 9.928020E-05

2

3

4

5

6

7

8

9

10

11

12

13

14

15

16

17

18

19

20

21

22

23

24

25

26

27

28

29

30

31

32

33

34

35

ni = number test runs = 1 1

Total Number of sources = 7

n =Total # test runs = 7

1

N

i

i

n





N
6

This step is for QC only:

means 8.72E-05 9.93E-05

1.35E-04

Mean =

Pooled Variance = 1.9460E-09

m= number future runs = 1

Term1 1.1429

Term2 2.2240E-09

Squared root Term2 4.71593E-05

NOTE: the pvalue for the t-statistic is calculated as: 2*alpha, where 1-alpha is desired confidence, so if 99% c

t-statistic

= quantile t-distribution with 

df degrees of freedom at 

.99 confidence level = 3.14

UPL POOLED VARIANCE = 0.000283478

 2 2

1

1

1

n

i

i

s xX

n 

   

1 1

1 N ni

ij

i j

X x

n  

 

1 1

n m



s

2 1 1

n m

      

1

1

N

i

i

df n 

        

d f t

2 1 1

s

n m

      

1

1 ni

i ik

i k

x x

n 

 

2

,

1 1 Xt s df p

       
2

,

1 1 Xt s df p n m

       
Port Everglades Mitchell Power Station Eagle Valley Eagle Valley

617 3181 991 991

PPE03 003 1 2

1.106604E-04 1.178737E-04 1.596842E-04 1.596842E-04

1111

Emissions (lb/MW)
1.11E-04 1.18E-04 1.60E-04 1.60E-04

Skewness =

SE Skewness

Skewness Test

Kurtosis =

SE Kurtosis

Kurtosis Test

Number of test runs =

confidence is desired then alpha=0.01 and 2*alpha=2*(0.01)
Mitchell Power Station

3181

001

2.125296E-04

1
2.13E-04

Distribution of Normal 

Tests Distribution of Log Tests

8.49E-01 #DIV/0!

0.93 #DIV/0!

normal #DIV/0!

-5.62E-04 #DIV/0!

1.85 #DIV/0!

normal #DIV/0!

7 0 REsult: normal
Port Everglades

ORIS/Facility/Unit 617

Runs PPE04

1 9.5347E‐05

2 1.2541E‐04

3 4.0830E‐05

4

5

6

7

8

9

10

11

12

13

14

15

16

17

18

19

20

21

22

23

24

25

26

27

28

29

30

31

32

33

34

35

ni = number test runs = 3

Total Number of sources = 1

n =Total # test runs = 3

N  

1

N

i

i

n





N

1

N

i

i

n





N
2

This step is for QC only:

means 8.72E-05

8.72E-05

Mean =

Pooled Variance = 1.8381E-09

m= number future runs = 3

Term1 0.6667

Term2 1.2254E-09

Squared root Term2 3.50054E-05

NOTE: the pvalue for the t-statistic is calculated as: 2*alpha, where 1-alpha is desired confidence, so if 99% c

t-statistic

= quantile t-distribution with 

df degrees of freedom at 

.99 confidence level = 6.96

UPL POOLED VARIANCE = 0.000330991

1

1

N

i

i

df n 

        

d f t

 2 2

1

1

1

n

i

i

s x X

n 

   

1 1

1 N ni

ij

i j

X x

n  

 

1 1

n m



s

2 1 1

n m

      

1

1

N

i

i

df n 

        

d f t

2 1 1

s

n m

      

1

1 ni

i ik

i k

x x

n 

 

2 1 1 X df p t s        
2

,

1 1 Xt s df p n m

       
Emissions (lb/MW)
confidence is desired then alpha=0.01 and 2*alpha=2*(0.01)
2

,

1 1 Xt s df p n m

       
Metallic_oil

primary_fuel ORIS code Plant Name physical_state Unit Number

oil 617 Port Everglades FL PPE04

oil 990 Harding Street IN 09

oil 617 Port Everglades FL PPE03

oil 3181 Mitchell Power Station PA 003

oil 991 Eagle Valley IN 1

oil 991 Eagle Valley IN 2

oil 3181 Mitchell Power Station PA 001

oil 548 Norwalk ‐ Norwalk Power LLC CT 2

oil 990 Harding Street IN 10

oil 562 Middletown CT 2

oil 546 Montville Station CT 5

oil 2480 Danskammer Generating Station NY 1

oil 2480 Danskammer Generating Station NY 2

oil 638 Suwannee River Plant FL Suw_Cfg_1

oil 1642 West Springfield MA Unit 3

oil 638 Suwannee River Plant FL Suw_Cfg_2

oil 2516 Northport NY Unit2

oil 676 C D McIntosh Jr FL Unit 2

oil 8054 Gerald Andrus MS 001

oil 2516 Northport NY Unit3

oil 2050 Baxter Wilson MS 001

oil 6043 Martin FL PMR02

oil 766 Waiau HI W6

oil 621 Turkey Point FL PTF02

oil 638 Suwannee River Plant FL Suw_Cfg_3

oil 3148 PPL Martins Creek PA U3

oil 6042 Manatee FL PMT02

oil 6043 Martin FL PMR01

oil 621 Turkey Point FL PTF01

oil 765 Kahe HI K3

oil 3148 PPL Martins Creek PA U4

oil 766 Waiau HI W7

oil 764 Honolulu HI H9

oil 3159 Cromby Generating Station PA Unit 2

oil 2517 Port Jefferson NY Unit4

oil 6042 Manatee FL PMT01

oil 3319 Jefferies SC J2

oil 764 Honolulu HI H8

oil 2493 East River NY 60

oil 3804 Possum Point VA Unit 5

oil 765 Kahe HI K1

oil 2411 PSEG Sewaren Generating Station NJ SEWU1E1PT1OS0

Page 1690
Metallic_oil

oil 2411 PSEG Sewaren Generating Station NJ SEWU4E4PT4OS0

oil 1507 William F Wyman ME 1

oil 715 McManus GA Unit 1

oil 667 Northside Generating Station FL 3

oil 1507 William F Wyman ME 2

oil 2411 PSEG Sewaren Generating Station NJ SEWU3E3PT3OS0

oil 1682 Cleary‐Flood Generating Station MA 8

oil 1564 Vienna Generating Station MD Unit 8

oil 8906 Astoria Generating Station NY A‐S0003

oil 3809 Yorktown VA Unit 3

oil 2378 BL England NJ 3

oil 617 Port Everglades FL PPE02

oil 619 Riviera FL PRV03

oil 619 Riviera FL PRV04

oil 2594 Oswego Harbor Power NY 6

oil 2594 Oswego Harbor Power NY 5

oil 609 Cape Canaveral FL PCC01

oil 617 Port Everglades FL PPE01

oil 609 Cape Canaveral FL PCC02

oil 2500 Ravenswood NY 20

oil 2500 Ravenswood NY 30

oil 8002 Newington Station NH nt1

oil 3161 Eddystone Generating Station PA Unit 4

oil 3161 Eddystone Generating Station PA Unit 3

Page 1691
Metallic_oil

Unit Type Boiler_type Boiler_count Total_Capacity_MWe

MW

Conventional Boiler Wall firing ‐ front firing 1 395

Conventional Boiler Concentric firing 1 37

Conventional Boiler Wall firing ‐ front firing 1 395

Conventional Boiler Vertical firing 1 44

Conventional Boiler Concentric firing 1 42

Conventional Boiler Concentric firing 1 42

Conventional Boiler Vertical firing 1 44

Conventional Boiler Tangential firing 1 178

Conventional Boiler Concentric firing 1 37

Conventional Boiler Wall firing ‐ front firing 1 125

Conventional Boiler Tangential firing 1 81

Conventional Boiler Tangential firing 1 65

Conventional Boiler Tangential firing 1 68

Conventional Boiler Tangential firing 1 31

Conventional Boiler Tangential firing 1 104

Conventional Boiler Wall firing ‐ front firing 1 31

Conventional Boiler Tangential firing 1 375

Conventional Boiler Wall firing ‐ front firing 1 115

Conventional Boiler Wall firing ‐ unspecified 1 737

Conventional Boiler Tangential firing 1 375

Conventional Boiler Tangential firing 1 408

Conventional Boiler Wall firing ‐ front firing 1 859

Conventional Boiler Wall firing ‐ front firing 1 58

Conventional Boiler Wall firing ‐ front firing 1 407

Conventional Boiler Wall firing ‐ front firing 1 75

Conventional Boiler Tangential firing 1 884

Conventional Boiler Wall firing ‐ front firing 1 854

Conventional Boiler Wall firing ‐ front firing 1 859

Conventional Boiler Wall firing ‐ front firing 1 421

Conventional Boiler Tangential firing 1 92

Conventional Boiler Tangential firing 1 812

Conventional Boiler Tangential firing 1 92

Conventional Boiler Wall firing ‐ front firing 1 57

Conventional Boiler Tangential firing 1 223

Conventional Boiler Tangential firing 1 190

Conventional Boiler Wall firing ‐ front firing 1 841

Conventional Boiler Wall firing ‐ rear firing 1 44

Conventional Boiler Wall firing ‐ front firing 1 56

Conventional Boiler Wall firing ‐ opposed firing 1 129

Conventional Boiler Tangential firing 1 840

Conventional Boiler Wall firing ‐ front firing 1 92

Conventional Boiler Tangential firing 1 104

Page 1704
Metallic_oil

Conventional Boiler Tangential firing 1 124

Conventional Boiler Wall firing ‐ front firing 1 52

Conventional Boiler Wall firing ‐ front firing 1 45

Conventional Boiler Wall firing ‐ front firing 1 538

Conventional Boiler Wall firing ‐ front firing 1 53

Conventional Boiler Tangential firing 1 109

Conventional Boiler Wall firing ‐ front firing 1 28

Conventional Boiler Tangential firing 1 162

Conventional Boiler Tangential firing 1 388

Conventional Boiler Tangential firing 1 843

Conventional Boiler Tangential firing 1 177

Conventional Boiler Wall firing ‐ front firing 1 226

Conventional Boiler Wall firing ‐ front firing 1 289

Conventional Boiler Wall firing ‐ front firing 1 289

Conventional Boiler Wall firing ‐ front firing 1 867

Conventional Boiler Wall firing ‐ front firing 1 871

Conventional Boiler Wall firing ‐ front firing 1 397

Conventional Boiler Wall firing ‐ front firing 1 226

Conventional Boiler Wall firing ‐ front firing 1 375

Conventional Boiler Tangential firing 1 366

Conventional Boiler Tangential firing 1 979

Conventional Boiler Tangential firing 1 421

Conventional Boiler Tangential firing 1 395

Conventional Boiler Tangential firing 1 395

Page 1705
Metallic_oil

Total_max_heat_input Unit_heat_rate Fuel types

MMBtu/hr MMBtu/MWh

4000 10.13 No.6 Fuel Oil (residual or bunker C)

527 14.24 No.2 Fuel Oil (distillate)

4000 10.13 No.6 Fuel Oil (residual or bunker C)

600 13.64 No.6 Fuel Oil (residual or bunker C)

524 12.48 No.2 Fuel Oil (distillate)

524 12.48 No.2 Fuel Oil (distillate)

600 13.64 No.6 Fuel Oil (residual or bunker C)

1776 9.98 No.6 Fuel Oil (residual or bunker C)

527 14.24 No.2 Fuel Oil (distillate)

1173 9.39 No.6 Fuel Oil (residual or bunker C)

995 12.28 No.6 Fuel Oil (residual or bunker C)

650 9.95

650 9.63 No.6 Fuel Oil (residual or bunker C)

315 10.16 No.6 Fuel Oil (residual or bunker C)

1150 11.06 No.6 Fuel Oil (residual or bunker C)

353 11.39 No.6 Fuel Oil (residual or bunker C)

3650 9.73 No.6 Fuel Oil (residual or bunker C)

1185 10.33 No.6 Fuel Oil (residual or bunker C)

6650 9.02 No.6 Fuel Oil (residual or bunker C)

3650 9.73 No.6 Fuel Oil (residual or bunker C)

4900 12.01 No.6 Fuel Oil (residual or bunker C)

9040 10.52 No.6 Fuel Oil (residual or bunker C)

637 10.99 No.6 Fuel Oil (residual or bunker C)

4000 9.83 No.6 Fuel Oil (residual or bunker C)

761 10.15 No.6 Fuel Oil (residual or bunker C)

7721 8.74 No.6 Fuel Oil (residual or bunker C)

8650 10.13 No.6 Fuel Oil (residual or bunker C)

9040 10.52 No.6 Fuel Oil (residual or bunker C)

4000 9.50 No.6 Fuel Oil (residual or bunker C)

892 9.70 No.6 Fuel Oil (residual or bunker C)

7721 9.51 No.6 Fuel Oil (residual or bunker C)

922 10.02 No.6 Fuel Oil (residual or bunker C)

632 11.08 No.6 Fuel Oil (residual or bunker C)

2300 10.31 No.6 Fuel Oil (residual or bunker C)

1850 9.74 No.6 Fuel Oil (residual or bunker C)

8650 10.29 No.6 Fuel Oil (residual or bunker C)

514 11.68 No.6 Fuel Oil (residual or bunker C)

589 10.52 No.6 Fuel Oil (residual or bunker C)

1930 14.91 No.6 Fuel Oil (residual or bunker C)

8471 10.08 No.6 Fuel Oil (residual or bunker C)

903 9.82 No.6 Fuel Oil (residual or bunker C)

1550 14.90 No.6 Fuel Oil (residual or bunker C)

Page 1718
Metallic_oil

1700 13.71 No.6 Fuel Oil (residual or bunker C)

630 12.07 No.6 Fuel Oil (residual or bunker C)

450 10.00

4857 9.03 No.6 Fuel Oil (residual or bunker C)

630 11.93 No.6 Fuel Oil (residual or bunker C)

1600 14.71 No.6 Fuel Oil (residual or bunker C)

335 11.96 Note 1: separate samples were taken for No. 6 and No. 2 oil

2317 14.35 No.6 Fuel Oil (residual or bunker C)

4074 10.49 No.6 Fuel Oil (residual or bunker C)

8883 10.54 No.6 Fuel Oil (residual or bunker C)

1720 9.72 oil ‐ residual or bunker

2300 10.18 oil ‐ residual or bunker

3260 11.28 oil ‐ residual or bunker

3260 11.28 oil ‐ residual or bunker

7840 9.04 oil ‐ residual or bunker

7840 9.00 oil ‐ residual or bunker

4000 10.08 oil ‐ residual or bunker

2300 10.18 oil ‐ residual or bunker

4000 10.67 oil ‐ residual or bunker

3357 9.17 No.6 Fuel Oil (residual or bunker C),  other‐‐natural gas

9702 9.91 No.6 Fuel Oil (residual or bunker C),  other‐‐natural gas

4350 10.33 No.6 Fuel Oil (residual or bunker C),  other‐‐Natural Gas

4546 11.51 No.6 Fuel Oil (residual or bunker C),  other‐‐Natural Gas

4546 11.51 No.6 Fuel Oil (residual or bunker C),  other‐‐Natural Gas

Page 1719
Metallic_oil

Antimony_Fuel_lb/MMBtu Antimony ‐ ERT Antimony MW ‐ ERT Antimony ‐ Part II

lb/MMBtu lb/MMBtu lb/MW lb/MMBtu

5.47E‐05 9.87E‐08 1.00E‐06

2.12E‐08 3.02E‐07

7.73E‐05 3.35E‐07 3.39E‐06

2.62E‐05 7.03E‐08 9.59E‐07

1.54E‐04 1.15E‐07 1.43E‐06

1.54E‐04 1.15E‐07 1.43E‐06

2.62E‐05 8.90E‐08 1.21E‐06

2.55E‐02 1.06E‐06 1.06E‐05

9.81E‐08 1.40E‐06

5.42E‐05 2.97E‐06 2.79E‐05

6.00E‐05 3.80E‐06 4.67E‐05

1.32E‐06 1.31E‐05

1.50E‐06 1.45E‐05

1.42E‐05 1.67E‐05 1.70E‐04

8.94E‐06 9.89E‐05

5.54E‐07 3.08E‐05 3.51E‐04

5.81E‐05 1.76E‐05 1.71E‐04

1.87E‐05 1.69E‐06 1.74E‐05

2.84E‐04 9.82E‐05 8.86E‐04

7.85E‐05 2.89E‐05 2.82E‐04

3.14E‐04 5.58E‐05 6.70E‐04

8.11E‐05 3.81E‐05 4.01E‐04

1.02E‐03 4.79E‐07 5.26E‐06

9.84E‐05 3.81E‐05 3.74E‐04

8.06E‐05 8.18E‐04

1.49E‐04 9.38E‐05 8.20E‐04

4.41E‐05 1.88E‐05 1.90E‐04

7.21E‐05 4.56E‐05 4.79E‐04

1.44E‐04 4.36E‐05 4.14E‐04

8.00E‐07 7.75E‐06

1.75E‐04 9.40E‐05 8.94E‐04

1.06E‐03 5.02E‐07 5.03E‐06

4.17E‐07 4.62E‐06

8.19E‐05 8.48E‐05 8.75E‐04

8.92E‐05 1.63E‐04 1.59E‐03

5.74E‐05 2.75E‐05 2.83E‐04

3.09E‐05 7.93E‐05 9.26E‐04

7.56E‐07 7.95E‐06

1.03E‐04 9.91E‐05 1.48E‐03

4.29E‐05 4.32E‐04

1.47E‐06 1.45E‐05

1.18E‐04 7.14E‐05 1.06E‐03

Page 1732
Metallic_oil

1.01E‐04 7.25E‐05 9.94E‐04

1.81E‐04 1.38E‐04 1.66E‐03

1.58E‐05 1.58E‐04

1.09E‐05 2.95E‐05 2.66E‐04

1.82E‐04 1.51E‐04 1.81E‐03

1.06E‐04 7.43E‐05 1.09E‐03

3.77E‐05 5.41E‐04

1.60E‐04 3.56E‐04 3.74E‐03

7.70E‐05 8.11E‐04

3.73E‐05 3.43E‐04

3.00E‐05 2.98E‐04

1.11E‐03 7.39E‐07 7.64E‐06

8.13E‐05 1.81E‐05 2.08E‐04

8.13E‐05 1.81E‐05 2.08E‐04

Page 1733
Metallic_oil

Antimony MW ‐ Part II Antimony ‐ min Antimony MW ‐ min Arsenic_Fuel_lb/MMBtu

lb/MW lb/MMBtu lb/MW lb/MMBtu

9.87E‐08 1.00E‐06 2.83E‐06

2.12E‐08 3.02E‐07 2.09E‐05

3.35E‐07 3.39E‐06 4.47E‐06

7.03E‐08 9.59E‐07 2.62E‐05

1.15E‐07 1.43E‐06 2.05E‐05

1.15E‐07 1.43E‐06 2.05E‐05

8.90E‐08 1.21E‐06 2.62E‐05

1.06E‐06 1.06E‐05 2.70E‐05

9.81E‐08 1.40E‐06 2.09E‐05

2.97E‐06 2.79E‐05 2.66E‐05

3.80E‐06 4.67E‐05 2.68E‐05

1.32E‐06 1.31E‐05

1.50E‐06 1.45E‐05

1.67E‐05 1.70E‐04 2.95E‐05

8.94E‐06 9.89E‐05 2.79E‐05

3.08E‐05 3.51E‐04 7.90E‐04

1.76E‐05 1.71E‐04 5.15E‐05

1.69E‐06 1.74E‐05 4.28E‐05

9.82E‐05 8.86E‐04 9.51E‐05

2.89E‐05 2.82E‐04 5.16E‐05

5.58E‐05 6.70E‐04 1.06E‐04

3.81E‐05 4.01E‐04 4.81E‐06

4.79E‐07 5.26E‐06 1.02E‐04

3.81E‐05 3.74E‐04 5.14E‐06

8.06E‐05 8.18E‐04

9.38E‐05 8.20E‐04 5.80E‐05

1.88E‐05 1.90E‐04 3.30E‐06

4.56E‐05 4.79E‐04 4.27E‐06

4.36E‐05 4.14E‐04 4.83E‐06

8.00E‐07 7.75E‐06

9.40E‐05 8.94E‐04 5.80E‐05

5.02E‐07 5.03E‐06 1.06E‐04

4.17E‐07 4.62E‐06

8.48E‐05 8.75E‐04 5.46E‐05

1.63E‐04 1.59E‐03 5.21E‐05

2.75E‐05 2.83E‐04 3.83E‐06

7.93E‐05 9.26E‐04 5.20E‐05

7.56E‐07 7.95E‐06

9.91E‐05 1.48E‐03 1.01E‐04

4.29E‐05 4.32E‐04 2.75E‐05

1.47E‐06 1.45E‐05

7.14E‐05 1.06E‐03 7.11E‐05

Page 1746
Metallic_oil

7.25E‐05 9.94E‐04 1.01E‐04

1.38E‐04 1.66E‐03 9.59E‐06

1.58E‐05 1.58E‐04

2.95E‐05 2.66E‐04 5.43E‐06

1.51E‐04 1.81E‐03 9.47E‐06

7.43E‐05 1.09E‐03 4.09E‐05

3.77E‐05 5.41E‐04 1.09E‐04

3.56E‐04 3.74E‐03 1.06E‐04

7.70E‐05 8.11E‐04 2.75E‐05

3.73E‐05 3.43E‐04

3.00E‐05 2.98E‐04

7.39E‐07 7.64E‐06 5.68E‐04

1.81E‐05 2.08E‐04 5.42E‐05

1.81E‐05 2.08E‐04 5.42E‐05

Page 1747
Metallic_oil

Arsenic ‐ ERT Arsenic MW ‐ ERT Arsenic ‐ Part II Arsenic MW ‐ Part II Arsenic ‐ min

lb/MMBtu lb/MW lb/MMBtu lb/MW lb/MMBtu

2.07E‐07 2.09E‐06 2.07E‐07

2.18E‐07 3.11E‐06 2.18E‐07

1.64E‐07 1.66E‐06 1.64E‐07

3.56E‐07 4.85E‐06 3.56E‐07

1.10E‐06 1.38E‐05 1.10E‐06

1.10E‐06 1.38E‐05 1.10E‐06

2.52E‐07 3.43E‐06 2.52E‐07

7.25E‐07 7.24E‐06 7.25E‐07

1.11E‐06 1.59E‐05 1.11E‐06

3.71E‐07 3.48E‐06 3.71E‐07

3.24E‐07 3.99E‐06 3.24E‐07

1.17E‐06 1.16E‐05 1.17E‐06

1.42E‐06 1.37E‐05 1.42E‐06

5.21E‐07 5.29E‐06 5.21E‐07

1.27E‐06 1.40E‐05 1.27E‐06

1.56E‐06 1.78E‐05 1.56E‐06

7.42E‐07 7.22E‐06 7.42E‐07

7.37E‐07 7.61E‐06 7.37E‐07

3.94E‐06 3.55E‐05 3.94E‐06

8.37E‐07 8.14E‐06 8.37E‐07

2.32E‐06 2.79E‐05 2.32E‐06

2.52E‐06 2.65E‐05 2.52E‐06

2.79E‐06 3.06E‐05 2.79E‐06

2.09E‐06 2.05E‐05 2.09E‐06

2.77E‐06 2.81E‐05 2.77E‐06

2.00E‐06 1.75E‐05 2.00E‐06

1.64E‐06 1.66E‐05 1.64E‐06

2.72E‐06 2.86E‐05 2.72E‐06

2.83E‐06 2.69E‐05 2.83E‐06

4.58E‐06 4.44E‐05 4.58E‐06

1.86E‐06 1.77E‐05 1.86E‐06

3.90E‐06 3.90E‐05 3.90E‐06

3.85E‐06 4.26E‐05 3.85E‐06

3.96E‐06 4.08E‐05 3.96E‐06

2.62E‐06 2.55E‐05 2.62E‐06

2.41E‐06 2.48E‐05 2.41E‐06

7.03E‐06 8.22E‐05 7.03E‐06

2.61E‐06 2.75E‐05 2.61E‐06

2.27E‐06 3.39E‐05 2.27E‐06

2.63E‐06 2.65E‐05 2.63E‐06

6.20E‐06 6.08E‐05 6.20E‐06

2.00E‐06 2.98E‐05 2.00E‐06

Page 1760
Metallic_oil

1.94E‐06 2.66E‐05 1.94E‐06

3.00E‐06 3.62E‐05 3.00E‐06

2.66E‐06 2.66E‐05 2.66E‐06

4.25E‐06 3.83E‐05 4.25E‐06

3.36E‐06 4.01E‐05 3.36E‐06

3.75E‐06 5.52E‐05 3.75E‐06

3.29E‐06 3.94E‐05 3.29E‐06

4.42E‐06 6.34E‐05 4.42E‐06

4.77E‐06 5.00E‐05 4.77E‐06

1.00E‐05 1.06E‐04 1.00E‐05

2.78E‐06 2.70E‐05 2.78E‐06

4.25E‐07 3.90E‐06 4.25E‐07

4.88E‐07 4.84E‐06 4.88E‐07

5.69E‐07 5.88E‐06 5.69E‐07

5.46E‐07 6.29E‐06 5.46E‐07

5.46E‐07 6.29E‐06 5.46E‐07

Page 1761
Metallic_oil

Arsenic MW ‐ min Beryllium_Fuel_lb/MMBtu Beryllium ‐ ERT Beryllium MW ‐ ERT

lb/MW lb/MMBtu lb/MMBtu lb/MW

2.09E‐06 4.40E‐07 1.31E‐07 1.32E‐06

3.11E‐06 2.09E‐05 1.60E‐08 2.28E‐07

1.66E‐06 4.12E‐07 2.84E‐08 2.88E‐07

4.85E‐06 2.62E‐05 2.11E‐08 2.88E‐07

1.38E‐05 2.05E‐05 4.36E‐08 5.44E‐07

1.38E‐05 2.05E‐05 4.36E‐08 5.44E‐07

3.43E‐06 2.62E‐05 2.67E‐08 3.64E‐07

7.24E‐06 5.40E‐05 6.08E‐08 6.07E‐07

1.59E‐05 2.09E‐05 3.47E‐08 4.94E‐07

3.48E‐06 2.66E‐05 7.34E‐08 6.89E‐07

3.99E‐06 2.68E‐05 5.09E‐08 6.25E‐07

1.16E‐05 2.48E‐07 2.47E‐06

1.37E‐05 3.47E‐07 3.34E‐06

5.29E‐06 1.42E‐05 4.49E‐08 4.57E‐07

1.40E‐05 5.22E‐05 1.98E‐07 2.18E‐06

1.78E‐05 5.54E‐07 4.20E‐08 4.78E‐07

7.22E‐06 5.15E‐05 5.12E‐08 4.98E‐07

7.61E‐06 5.34E‐06 1.59E‐07 1.65E‐06

3.55E‐05 5.39E‐05 2.43E‐07 2.20E‐06

8.14E‐06 5.16E‐05 6.90E‐08 6.72E‐07

2.79E‐05 5.23E‐05 2.46E‐07 2.95E‐06

2.65E‐05 5.77E‐07 2.16E‐07 2.28E‐06

3.06E‐05 5.11E‐05 1.58E‐07 1.74E‐06

2.05E‐05 4.37E‐07 1.13E‐07 1.11E‐06

2.81E‐05 1.01E‐07 1.03E‐06

1.75E‐05 2.51E‐05 6.49E‐08 5.67E‐07

1.66E‐05 4.49E‐07 4.25E‐08 4.30E‐07

2.86E‐05 4.92E‐07 2.75E‐07 2.89E‐06

2.69E‐05 4.34E‐07 1.67E‐07 1.59E‐06

4.44E‐05 8.44E‐08 8.18E‐07

1.77E‐05 2.51E‐05 7.00E‐08 6.65E‐07

3.90E‐05 5.32E‐05 3.12E‐07 3.12E‐06

4.26E‐05 5.22E‐07 5.78E‐06

4.08E‐05 2.73E‐05 4.09E‐07 4.22E‐06

2.55E‐05 5.21E‐05 2.00E‐07 1.94E‐06

2.48E‐05 4.49E‐07 5.54E‐08 5.70E‐07

8.22E‐05 5.20E‐06 2.15E‐08 2.51E‐07

2.75E‐05 2.40E‐07 2.52E‐06

3.39E‐05 1.03E‐05 4.79E‐07 7.14E‐06

2.65E‐05 2.75E‐04 2.31E‐07 2.33E‐06

6.08E‐05 1.18E‐07 1.16E‐06

2.98E‐05 1.00E‐05 6.37E‐07 9.49E‐06

Page 1774
Metallic_oil

2.66E‐05 1.01E‐05 4.83E‐07 6.62E‐06

3.62E‐05 7.38E‐07 4.50E‐07 5.43E‐06

2.66E‐05 3.13E‐07 3.13E‐06

3.83E‐05 3.26E‐05 1.10E‐07 9.89E‐07

4.01E‐05 7.29E‐07 4.58E‐07 5.46E‐06

5.52E‐05 1.00E‐05 5.66E‐07 8.32E‐06

3.94E‐05 3.63E‐07 4.34E‐06

6.34E‐05 5.47E‐05 4.46E‐07 6.40E‐06

5.00E‐05 5.32E‐05 1.39E‐06 1.46E‐05

1.06E‐04 2.75E‐04 4.95E‐07 5.21E‐06

2.70E‐05

3.90E‐06 8.99E‐08 8.24E‐07

4.84E‐06 9.35E‐08 9.26E‐07

5.88E‐06 5.54E‐05 1.17E‐07 1.21E‐06

6.29E‐06 2.71E‐05 1.32E‐07 1.51E‐06

6.29E‐06 2.71E‐05 1.32E‐07 1.51E‐06

Page 1775
Metallic_oil

Beryllium ‐ Part II Beryllium MW ‐ Part II Beryllium ‐ min Beryllium MW ‐ min

lb/MMBtu lb/MW lb/MMBtu lb/MW

1.31E‐07 1.32E‐06

1.60E‐08 2.28E‐07

2.84E‐08 2.88E‐07

2.11E‐08 2.88E‐07

4.36E‐08 5.44E‐07

4.36E‐08 5.44E‐07

2.67E‐08 3.64E‐07

6.08E‐08 6.07E‐07

3.47E‐08 4.94E‐07

7.34E‐08 6.89E‐07

5.09E‐08 6.25E‐07

2.48E‐07 2.47E‐06

3.47E‐07 3.34E‐06

4.49E‐08 4.57E‐07

1.98E‐07 2.18E‐06

4.20E‐08 4.78E‐07

5.12E‐08 4.98E‐07

1.59E‐07 1.65E‐06

2.43E‐07 2.20E‐06

6.90E‐08 6.72E‐07

2.46E‐07 2.95E‐06

2.16E‐07 2.28E‐06

1.58E‐07 1.74E‐06

1.13E‐07 1.11E‐06

1.01E‐07 1.03E‐06

6.49E‐08 5.67E‐07

4.25E‐08 4.30E‐07

2.75E‐07 2.89E‐06

1.67E‐07 1.59E‐06

8.44E‐08 8.18E‐07

7.00E‐08 6.65E‐07

3.12E‐07 3.12E‐06

5.22E‐07 5.78E‐06

4.09E‐07 4.22E‐06

2.00E‐07 1.94E‐06

5.54E‐08 5.70E‐07

2.15E‐08 2.51E‐07

2.40E‐07 2.52E‐06

4.79E‐07 7.14E‐06

2.31E‐07 2.33E‐06

1.18E‐07 1.16E‐06

6.37E‐07 9.49E‐06

Page 1788
Metallic_oil

4.83E‐07 6.62E‐06

4.50E‐07 5.43E‐06

3.13E‐07 3.13E‐06

1.10E‐07 9.89E‐07

4.58E‐07 5.46E‐06

5.66E‐07 8.32E‐06

3.63E‐07 4.34E‐06

4.46E‐07 6.40E‐06

1.39E‐06 1.46E‐05

4.95E‐07 5.21E‐06

3.16E‐07 3.08E‐06 3.16E‐07 3.08E‐06

8.99E‐08 8.24E‐07

9.35E‐08 9.26E‐07

1.17E‐07 1.21E‐06

1.32E‐07 1.51E‐06

1.32E‐07 1.51E‐06

Page 1789
Metallic_oil

Cadmium_Fuel_lb/MMBtu Cadmium ‐ ERT Cadmium MW ‐ ERT Cadmium ‐ Part II

lb/MMBtu lb/MMBtu lb/MW lb/MMBtu

4.92E‐07 1.20E‐07 1.21E‐06

2.09E‐05 8.00E‐08 1.14E‐06

4.29E‐07 1.42E‐08 1.44E‐07

2.62E‐05 3.90E‐08 5.32E‐07

2.05E‐05 5.54E‐08 6.91E‐07

2.05E‐05 5.54E‐08 6.91E‐07

2.62E‐05 2.20E‐07 3.01E‐06

5.40E‐05 3.36E‐07 3.35E‐06

2.09E‐05 6.06E‐07 8.63E‐06

2.66E‐05 5.33E‐08 5.00E‐07

2.68E‐05 4.26E‐08 5.23E‐07

2.26E‐06 2.25E‐05

6.84E‐06 6.59E‐05

1.42E‐05 1.49E‐07 1.51E‐06

5.22E‐05 7.01E‐07 7.75E‐06

4.80E‐06 1.60E‐07 1.82E‐06

5.15E‐05 6.28E‐08 6.11E‐07

1.07E‐05 3.33E‐07 3.44E‐06

2.69E‐05 2.72E‐07 2.46E‐06

5.16E‐05 8.70E‐08 8.47E‐07

2.61E‐05 3.69E‐07 4.43E‐06

3.51E‐07 7.84E‐08 8.25E‐07

5.11E‐05 1.50E‐07 1.65E‐06

4.59E‐07 7.95E‐08 7.81E‐07

3.96E‐07 4.02E‐06

1.93E‐05 1.54E‐07 1.35E‐06

4.76E‐07 4.78E‐08 4.84E‐07

3.64E‐07 7.94E‐08 8.36E‐07

5.93E‐07 8.47E‐08 8.04E‐07

1.21E‐07 1.17E‐06

1.93E‐05 1.58E‐07 1.50E‐06

5.32E‐05 1.14E‐07 1.14E‐06

4.73E‐07 5.24E‐06

2.73E‐05 1.12E‐06 1.16E‐05

5.21E‐05 1.94E‐07 1.89E‐06

4.77E‐07 5.98E‐08 6.16E‐07

3.99E‐06 1.85E‐06 2.17E‐05

8.68E‐08 9.13E‐07

2.60E‐05 9.31E‐07 1.39E‐05

5.50E‐05 2.26E‐07 2.28E‐06

1.46E‐07 1.43E‐06

2.59E‐05 1.29E‐07 1.92E‐06

Page 1802
Metallic_oil

2.59E‐05 7.49E‐08 1.03E‐06

3.43E‐07 6.26E‐08 7.56E‐07

3.93E‐07 3.93E‐06

5.43E‐06 3.98E‐07 3.60E‐06

1.38E‐06 1.10E‐07 1.31E‐06

2.59E‐05 9.17E‐08 1.35E‐06

4.45E‐07 5.32E‐06

5.47E‐05 2.97E‐07 4.26E‐06

5.32E‐05 4.63E‐07 4.86E‐06

5.51E‐05 1.72E‐06 1.81E‐05

4.97E‐07

9.40E‐08 8.63E‐07

6.07E‐08 6.02E‐07

5.54E‐05 3.46E‐07 3.58E‐06

2.71E‐05 2.54E‐07 2.93E‐06

2.71E‐05 2.54E‐07 2.93E‐06

Page 1803
Metallic_oil

Cadmium MW ‐ Part II Cadmium ‐ min Cadmium MW ‐ min Chromium_Fuel_lb/MMBtu

lb/MW lb/MMBtu lb/MW lb/MMBtu

1.20E‐07 1.21E‐06 5.16E‐06

8.00E‐08 1.14E‐06 3.14E‐05

1.42E‐08 1.44E‐07 7.92E‐06

3.90E‐08 5.32E‐07 2.62E‐05

5.54E‐08 6.91E‐07 3.08E‐05

5.54E‐08 6.91E‐07 3.08E‐05

2.20E‐07 3.01E‐06 2.62E‐05

3.36E‐07 3.35E‐06 2.70E‐04

6.06E‐07 8.63E‐06 3.14E‐05

5.33E‐08 5.00E‐07 2.66E‐05

4.26E‐08 5.23E‐07 8.04E‐06

2.26E‐06 2.25E‐05

6.84E‐06 6.59E‐05

1.49E‐07 1.51E‐06 7.59E‐05

7.01E‐07 7.75E‐06 5.22E‐05

1.60E‐07 1.82E‐06 5.54E‐07

6.28E‐08 6.11E‐07 5.15E‐05

3.33E‐07 3.44E‐06 4.28E‐05

2.72E‐07 2.46E‐06 7.10E‐05

8.70E‐08 8.47E‐07 5.16E‐05

3.69E‐07 4.43E‐06 7.92E‐05

7.84E‐08 8.25E‐07 4.31E‐06

1.50E‐07 1.65E‐06 2.56E‐04

7.95E‐08 7.81E‐07 8.93E‐06

3.96E‐07 4.02E‐06

1.54E‐07 1.35E‐06 1.45E‐05

4.78E‐08 4.84E‐07 4.98E‐06

7.94E‐08 8.36E‐07 4.77E‐06

8.47E‐08 8.04E‐07 9.95E‐06

1.21E‐07 1.17E‐06

1.58E‐07 1.50E‐06 1.45E‐05

1.14E‐07 1.14E‐06 2.66E‐04

4.73E‐07 5.24E‐06

1.12E‐06 1.16E‐05 2.73E‐05

1.94E‐07 1.89E‐06 5.21E‐05

5.98E‐08 6.16E‐07 5.14E‐06

1.85E‐06 2.17E‐05 1.84E‐05

8.68E‐08 9.13E‐07

9.31E‐07 1.39E‐05 5.16E‐05

2.26E‐07 2.28E‐06 2.75E‐04

1.46E‐07 1.43E‐06

1.29E‐07 1.92E‐06 5.13E‐05

Page 1816
Metallic_oil

7.49E‐08 1.03E‐06 5.13E‐05

6.26E‐08 7.56E‐07 4.80E‐06

3.93E‐07 3.93E‐06

3.98E‐07 3.60E‐06 5.43E‐06

1.10E‐07 1.31E‐06 4.88E‐06

9.17E‐08 1.35E‐06 5.13E‐05

4.45E‐07 5.32E‐06 3.09E‐05

2.97E‐07 4.26E‐06 5.86E‐05

4.63E‐07 4.86E‐06 5.32E‐05

1.72E‐06 1.81E‐05 2.75E‐04

4.82E‐06 4.97E‐07 4.82E‐06

9.40E‐08 8.63E‐07

6.07E‐08 6.02E‐07

3.46E‐07 3.58E‐06 5.54E‐04

2.54E‐07 2.93E‐06 2.89E‐05

2.54E‐07 2.93E‐06 2.89E‐05

Page 1817
Metallic_oil

Chromium ‐ ERT Chromium MW ‐ ERT Chromium ‐ Part II Chromium MW ‐ Part II Chromium ‐ min

lb/MMBtu lb/MW lb/MMBtu lb/MW lb/MMBtu

4.31E‐07 4.36E‐06 4.31E‐07

4.83E‐07 6.88E‐06 4.83E‐07

8.69E‐07 8.80E‐06 8.69E‐07

2.06E‐06 2.80E‐05 2.06E‐06

9.90E‐07 1.24E‐05 9.90E‐07

9.90E‐07 1.24E‐05 9.90E‐07

3.49E‐06 4.76E‐05 3.49E‐06

2.50E‐06 2.50E‐05 2.50E‐06

2.56E‐06 3.65E‐05 2.56E‐06

2.35E‐06 2.20E‐05 2.35E‐06

1.38E‐06 1.70E‐05 1.38E‐06

3.30E‐06 3.29E‐05 3.30E‐06

3.40E‐06 3.28E‐05 3.40E‐06

2.00E‐06 2.03E‐05 2.00E‐06

3.83E‐06 4.23E‐05 3.83E‐06

2.42E‐06 2.76E‐05 2.42E‐06

8.93E‐07 8.69E‐06 8.93E‐07

1.22E‐05 1.26E‐04 1.22E‐05

1.02E‐05 9.18E‐05 1.02E‐05

1.93E‐06 1.88E‐05 1.93E‐06

5.31E‐06 6.37E‐05 5.31E‐06

5.19E‐06 5.46E‐05 5.19E‐06

8.52E‐07 9.37E‐06 8.52E‐07

4.23E‐06 4.16E‐05 4.23E‐06

1.06E‐05 1.07E‐04 1.06E‐05

4.48E‐06 3.91E‐05 4.48E‐06

3.93E‐06 3.98E‐05 3.93E‐06

2.70E‐06 2.84E‐05 2.70E‐06

4.71E‐06 4.47E‐05 4.71E‐06

3.24E‐06 3.14E‐05 3.24E‐06

5.96E‐06 5.67E‐05 5.96E‐06

3.05E‐06 3.06E‐05 3.05E‐06

2.01E‐06 2.22E‐05 2.01E‐06

5.41E‐06 5.58E‐05 5.41E‐06

7.13E‐06 6.94E‐05 7.13E‐06

5.10E‐06 5.24E‐05 5.10E‐06

1.85E‐05 2.16E‐04 1.85E‐05

2.04E‐06 2.15E‐05 2.04E‐06

1.80E‐06 2.68E‐05 1.80E‐06

1.26E‐05 1.27E‐04 1.26E‐05

1.91E‐06 1.88E‐05 1.91E‐06

1.96E‐06 2.92E‐05 1.96E‐06

Page 1830
Metallic_oil

1.48E‐06 2.02E‐05 1.48E‐06

2.52E‐06 3.04E‐05 2.52E‐06

3.75E‐06 3.75E‐05 3.75E‐06

1.33E‐05 1.20E‐04 1.33E‐05

4.70E‐06 5.60E‐05 4.70E‐06

1.22E‐05 1.79E‐04 1.22E‐05

1.12E‐05 1.34E‐04 1.12E‐05

9.97E‐06 1.43E‐04 9.97E‐06

6.05E‐06 6.35E‐05 6.05E‐06

8.40E‐04 8.85E‐03 8.40E‐04

1.08E‐05 1.05E‐04 1.08E‐05

2.46E‐06 2.26E‐05 2.46E‐06

8.93E‐07 8.85E‐06 8.93E‐07

1.98E‐05 2.04E‐04 1.98E‐05

6.99E‐07 8.04E‐06 6.99E‐07

6.99E‐07 8.04E‐06 6.99E‐07

Page 1831
Metallic_oil

Chromium MW ‐ min Cobalt_Fuel_lb/MMBtu Cobalt ‐ ERT Cobalt MW ‐ ERT Cobalt ‐ Part II

lb/MW lb/MMBtu lb/MMBtu lb/MW lb/MMBtu

4.36E‐06 6.24E‐05 1.54E‐06 1.56E‐05

6.88E‐06 2.09E‐05 8.02E‐08 1.14E‐06

8.80E‐06 3.19E‐05 3.40E‐07 3.44E‐06

2.80E‐05 2.62E‐05 2.11E‐07 2.88E‐06

1.24E‐05 2.05E‐05

1.24E‐05 2.05E‐05

4.76E‐05 2.62E‐05 3.80E‐07 5.19E‐06

2.50E‐05 2.70E‐04 1.07E‐06 1.07E‐05

3.65E‐05 2.09E‐05 9.54E‐06 1.36E‐04

2.20E‐05 7.12E‐05 1.54E‐06 1.44E‐05

1.70E‐05 7.18E‐05 1.90E‐06 2.34E‐05

3.29E‐05 9.87E‐07 9.83E‐06

3.28E‐05 1.04E‐06 9.98E‐06

2.03E‐05 1.42E‐05 2.05E‐06 2.09E‐05

4.23E‐05 6.79E‐05

2.76E‐05 5.54E‐07 4.90E‐06 5.58E‐05

8.69E‐06 5.50E‐05

1.26E‐04 1.55E‐05 3.10E‐06 3.20E‐05

9.18E‐05 1.44E‐05 1.43E‐05 1.29E‐04

1.88E‐05 5.84E‐05

6.37E‐05 1.61E‐05 1.20E‐05 1.44E‐04

5.46E‐05 6.31E‐05 2.77E‐05 2.92E‐04

9.37E‐06 5.11E‐04 1.81E‐05 1.99E‐04

4.16E‐05 4.43E‐05 2.10E‐05 2.06E‐04

1.07E‐04 3.05E‐05 3.09E‐04

3.91E‐05 3.51E‐05 2.52E‐05 2.21E‐04

3.98E‐05 6.18E‐05 2.40E‐05 2.43E‐04

2.84E‐05 5.59E‐05 3.57E‐05 3.76E‐04

4.47E‐05 4.30E‐05 2.51E‐05 2.38E‐04

3.14E‐05 3.77E‐05 3.66E‐04

5.67E‐05 4.28E‐05 2.96E‐05 2.81E‐04

3.06E‐05 5.32E‐04 3.00E‐05 3.00E‐04

2.22E‐05 2.62E‐05 2.91E‐04

5.58E‐05 6.00E‐06 1.87E‐05 1.93E‐04

6.94E‐05 5.21E‐05

5.24E‐05 5.68E‐05 3.29E‐05 3.38E‐04

2.16E‐04 1.04E‐05 3.96E‐06 4.63E‐05

2.15E‐05 3.27E‐05 3.44E‐04

2.68E‐05 2.60E‐04

1.27E‐04 3.08E‐05 3.11E‐04

1.88E‐05 4.13E‐05 4.06E‐04

2.92E‐05 5.46E‐05 3.06E‐05 4.56E‐04

Page 1844
Metallic_oil

2.02E‐05 2.59E‐04 3.64E‐05 4.99E‐04

3.04E‐05 4.50E‐05 2.93E‐05 3.54E‐04

3.75E‐05 2.44E‐05 2.44E‐04

1.20E‐04 5.43E‐05 2.74E‐05 2.47E‐04

5.60E‐05 4.57E‐05 3.49E‐05 4.17E‐04

1.79E‐04 6.27E‐05 4.32E‐05 6.35E‐04

1.34E‐04 8.41E‐06

1.43E‐04 5.47E‐06 2.11E‐05 3.03E‐04

6.35E‐05 7.72E‐06 6.09E‐05 6.39E‐04

8.85E‐03 1.74E‐04 1.83E‐03

1.05E‐04 3.02E‐05

2.26E‐05 4.85E‐06 4.45E‐05

8.85E‐06 4.77E‐06 4.72E‐05

2.04E‐04 5.54E‐04 2.26E‐07 2.33E‐06

8.04E‐06 1.30E‐05 3.16E‐06 3.64E‐05

8.04E‐06 1.30E‐05 3.16E‐06 3.64E‐05

Page 1845
Metallic_oil

Cobalt MW ‐ Part II Cobalt ‐ min Cobalt MW ‐ min Lead_Fuel_lb/MMBtu Lead ‐ ERT

lb/MW lb/MMBtu lb/MW lb/MMBtu lb/MMBtu

1.54E‐06 1.56E‐05 1.14E‐05 1.37E‐07

8.02E‐08 1.14E‐06 2.09E‐05 4.27E‐06

3.40E‐07 3.44E‐06 1.16E‐05 2.36E‐07

2.11E‐07 2.88E‐06 5.25E‐05 5.48E‐07

2.05E‐05 7.20E‐06

2.05E‐05 7.20E‐06

3.80E‐07 5.19E‐06 5.25E‐05 6.95E‐07

1.07E‐06 1.07E‐05 2.70E‐04 7.79E‐06

9.54E‐06 1.36E‐04 2.09E‐05 5.72E‐06

1.54E‐06 1.44E‐05 3.35E‐05 2.05E‐06

1.90E‐06 2.34E‐05 6.49E‐05 1.87E‐06

9.87E‐07 9.83E‐06 1.02E‐05

1.04E‐06 9.98E‐06 1.38E‐05

2.05E‐06 2.09E‐05 1.02E‐03 1.61E‐05

5.22E‐05 5.91E‐06

4.90E‐06 5.58E‐05 1.80E‐03 3.03E‐05

7.37E‐05 1.20E‐06

3.10E‐06 3.20E‐05 7.48E‐05 1.12E‐04

1.43E‐05 1.29E‐04 2.34E‐05 1.11E‐05

7.56E‐05 1.96E‐06

1.20E‐05 1.44E‐04 7.92E‐05 4.74E‐06

2.77E‐05 2.92E‐04 1.89E‐05 8.23E‐06

1.81E‐05 1.99E‐04 2.56E‐04 1.23E‐06

2.10E‐05 2.06E‐04 2.31E‐05 5.67E‐06

3.05E‐05 3.09E‐04 2.75E‐05

2.52E‐05 2.21E‐04 8.60E‐05 1.23E‐05

2.40E‐05 2.43E‐04 8.05E‐06 4.67E‐06

3.57E‐05 3.76E‐04 1.77E‐05 8.98E‐06

2.51E‐05 2.38E‐04 2.02E‐05 5.90E‐06

3.77E‐05 3.66E‐04 1.52E‐06

2.96E‐05 2.81E‐04 8.60E‐05 1.31E‐05

3.00E‐05 3.00E‐04 2.66E‐04 7.85E‐07

2.62E‐05 2.91E‐04 9.31E‐07

1.87E‐05 1.93E‐04 2.73E‐05 4.89E‐06

5.21E‐05 3.96E‐06

3.29E‐05 3.38E‐04 9.53E‐06 6.83E‐06

3.96E‐06 4.63E‐05 3.28E‐04 5.02E‐04

3.27E‐05 3.44E‐04 6.09E‐06

1.03E‐04 2.98E‐06

3.08E‐05 3.11E‐04 2.75E‐04 2.78E‐05

4.13E‐05 4.06E‐04 1.79E‐06

3.06E‐05 4.56E‐04 1.00E‐04 5.83E‐06

Page 1858
Metallic_oil

3.64E‐05 4.99E‐04 1.01E‐04 5.62E‐06

2.93E‐05 3.54E‐04 9.22E‐06 6.35E‐06

2.44E‐05 2.44E‐04 4.56E‐06

2.74E‐05 2.47E‐04 4.63E‐06

3.49E‐05 4.17E‐04 9.29E‐06 7.82E‐06

4.32E‐05 6.35E‐04 1.00E‐04 1.09E‐05

4.49E‐05 1.44E‐05

2.11E‐05 3.03E‐04 6.54E‐05 7.60E‐06

6.09E‐05 6.39E‐04 5.32E‐05 1.50E‐05

1.74E‐04 1.83E‐03 2.75E‐04 4.98E‐05

2.93E‐04 3.02E‐05 2.93E‐04

4.85E‐06 4.45E‐05 1.00E‐06

4.77E‐06 4.72E‐05 5.08E‐07

2.26E‐07 2.33E‐06 1.11E‐03 7.85E‐07

3.16E‐06 3.64E‐05 2.71E‐05 1.21E‐06

3.16E‐06 3.64E‐05 2.71E‐05 1.21E‐06

Page 1859
Metallic_oil

Lead MW ‐ ERT Lead ‐ Part II Lead MW ‐ Part II Lead ‐ min Lead MW ‐ min

lb/MW lb/MMBtu lb/MW lb/MMBtu lb/MW

1.39E‐06 1.37E‐07 1.39E‐06

6.08E‐05 4.27E‐06 6.08E‐05

2.39E‐06 2.36E‐07 2.39E‐06

7.48E‐06 5.48E‐07 7.48E‐06

8.98E‐05 7.20E‐06 8.98E‐05

8.98E‐05 7.20E‐06 8.98E‐05

9.48E‐06 6.95E‐07 9.48E‐06

7.78E‐05 7.79E‐06 7.78E‐05

8.15E‐05 5.72E‐06 8.15E‐05

1.93E‐05 2.05E‐06 1.93E‐05

2.30E‐05 1.87E‐06 2.30E‐05

1.02E‐04 1.02E‐05 1.02E‐04

1.33E‐04 1.38E‐05 1.33E‐04

1.63E‐04 1.61E‐05 1.63E‐04

6.54E‐05 5.91E‐06 6.54E‐05

3.45E‐04 3.03E‐05 3.45E‐04

1.17E‐05 1.20E‐06 1.17E‐05

1.15E‐03 1.12E‐04 1.15E‐03

1.01E‐04 1.11E‐05 1.01E‐04

1.91E‐05 1.96E‐06 1.91E‐05

5.69E‐05 4.74E‐06 5.69E‐05

8.66E‐05 8.23E‐06 8.66E‐05

1.35E‐05 1.23E‐06 1.35E‐05

5.57E‐05 5.67E‐06 5.57E‐05

2.79E‐04 2.75E‐05 2.79E‐04

1.07E‐04 1.23E‐05 1.07E‐04

4.73E‐05 4.67E‐06 4.73E‐05

9.45E‐05 8.98E‐06 9.45E‐05

5.60E‐05 5.90E‐06 5.60E‐05

1.47E‐05 1.52E‐06 1.47E‐05

1.24E‐04 1.31E‐05 1.24E‐04

7.86E‐06 7.85E‐07 7.86E‐06

1.03E‐05 9.31E‐07 1.03E‐05

5.04E‐05 4.89E‐06 5.04E‐05

3.86E‐05 3.96E‐06 3.86E‐05

7.03E‐05 6.83E‐06 7.03E‐05

5.86E‐03 5.02E‐04 5.86E‐03

6.41E‐05 6.09E‐06 6.41E‐05

4.44E‐05 2.98E‐06 4.44E‐05

2.80E‐04 2.78E‐05 2.80E‐04

1.75E‐05 1.79E‐06 1.75E‐05

8.68E‐05 5.83E‐06 8.68E‐05

Page 1872
Metallic_oil

7.70E‐05 5.62E‐06 7.70E‐05

7.66E‐05 6.35E‐06 7.66E‐05

4.56E‐05 4.56E‐06 4.56E‐05

4.18E‐05 4.63E‐06 4.18E‐05

9.34E‐05 7.82E‐06 9.34E‐05

1.60E‐04 1.09E‐05 1.60E‐04

1.72E‐04 1.44E‐05 1.72E‐04

1.09E‐04 7.60E‐06 1.09E‐04

1.57E‐04 1.50E‐05 1.57E‐04

5.25E‐04 4.98E‐05 5.25E‐04

5.46E‐06 5.30E‐05 5.46E‐06 5.30E‐05

9.19E‐06 1.00E‐06 9.19E‐06

5.03E‐06 5.08E‐07 5.03E‐06

8.11E‐06 7.85E‐07 8.11E‐06

1.39E‐05 1.21E‐06 1.39E‐05

1.39E‐05 1.21E‐06 1.39E‐05

Page 1873
Metallic_oil

Manganese_Fuel_lb/MMBtu Manganese ‐ ERT Manganese MW ‐ ERT Manganese ‐ Part II

lb/MMBtu lb/MMBtu lb/MW lb/MMBtu

2.28E‐05 5.27E‐07 5.34E‐06

2.09E‐05 8.40E‐07 1.20E‐05

6.63E‐05 8.33E‐07 8.44E‐06

2.62E‐05 2.03E‐06 2.77E‐05

2.05E‐05 1.49E‐06 1.85E‐05

2.05E‐05 1.49E‐06 1.85E‐05

2.62E‐05 2.99E‐06 4.08E‐05

2.70E‐04 5.38E‐06 5.37E‐05

2.09E‐05 4.06E‐06 5.78E‐05

1.02E‐04 4.73E‐06 4.44E‐05

1.90E‐04 7.86E‐06 9.65E‐05

1.48E‐04 7.66E‐06 7.63E‐05

3.42E‐04 1.03E‐05 9.94E‐05

9.65E‐06 1.68E‐05 1.71E‐04

7.82E‐05 8.86E‐06 9.79E‐05

5.54E‐07 3.01E‐05 3.43E‐04

6.06E‐04 1.33E‐04 1.30E‐03

5.34E‐05 6.56E‐06 6.77E‐05

4.88E‐05 1.24E‐05 1.12E‐04

6.20E‐04 1.53E‐04 1.49E‐03

6.80E‐05 4.54E‐06 5.45E‐05

8.11E‐05 3.70E‐05 3.89E‐04

1.53E‐04 1.19E‐05 1.31E‐04

4.23E‐05 2.04E‐05 2.01E‐04

1.86E‐05 1.88E‐04

3.23E‐05 1.51E‐05 1.32E‐04

1.55E‐05 9.36E‐06 9.48E‐05

7.39E‐05 4.42E‐05 4.65E‐04

5.08E‐05 3.03E‐05 2.88E‐04

6.92E‐06 6.71E‐05

3.23E‐05 1.65E‐05 1.57E‐04

9.12E‐05 1.57E‐05 1.58E‐04

1.53E‐05 1.70E‐04

2.82E‐05 1.22E‐05 1.26E‐04

7.70E‐05 4.12E‐05 4.02E‐04

2.20E‐05 1.40E‐05 1.44E‐04

1.23E‐05 4.94E‐05 5.77E‐04

1.14E‐05 1.20E‐04

8.13E‐05

2.75E‐04 2.92E‐05 2.94E‐04

1.05E‐05 1.03E‐04

1.04E‐04 5.14E‐05 7.66E‐04

Page 1886
Metallic_oil

8.11E‐05 6.13E‐05 8.41E‐04

8.86E‐05 5.08E‐05 6.14E‐04

1.21E‐04 1.21E‐03

1.08E‐05 9.76E‐05

8.74E‐05 5.77E‐05 6.89E‐04

1.09E‐04 9.18E‐05 1.35E‐03

3.28E‐05 4.73E‐04 5.66E‐03

8.48E‐05 2.94E‐05 4.22E‐04

6.81E‐05 1.92E‐04 2.01E‐03

2.75E‐04 1.18E‐04 1.24E‐03

3.39E‐05

1.10E‐05 1.01E‐04

1.43E‐05 1.42E‐04

5.54E‐04 2.07E‐06 2.13E‐05

5.04E‐05 6.63E‐06 7.63E‐05

5.04E‐05 6.63E‐06 7.63E‐05

Page 1887
Metallic_oil

Manganese MW ‐ Part II Manganese ‐ min Manganese MW ‐ min Nickel_Fuel_lb/MMBtu

lb/MW lb/MMBtu lb/MW lb/MMBtu

5.27E‐07 5.34E‐06 1.32E‐03

8.40E‐07 1.20E‐05 1.57E‐04

8.33E‐07 8.44E‐06 1.16E‐03

2.03E‐06 2.77E‐05 2.62E‐05

1.49E‐06 1.85E‐05 1.54E‐04

1.49E‐06 1.85E‐05 1.54E‐04

2.99E‐06 4.08E‐05 2.62E‐05

5.38E‐06 5.37E‐05 2.70E‐04

4.06E‐06 5.78E‐05 1.57E‐04

4.73E‐06 4.44E‐05 1.10E‐03

7.86E‐06 9.65E‐05 7.40E‐04

7.66E‐06 7.63E‐05

1.03E‐05 9.94E‐05

1.68E‐05 1.71E‐04 4.31E‐05

8.86E‐06 9.79E‐05 1.41E‐03

3.01E‐05 3.43E‐04 1.39E‐04

1.33E‐04 1.30E‐03 6.60E‐04

6.56E‐06 6.77E‐05 1.10E‐03

1.24E‐05 1.12E‐04 2.48E‐04

1.53E‐04 1.49E‐03 7.03E‐04

4.54E‐06 5.45E‐05 2.61E‐04

3.70E‐05 3.89E‐04 6.85E‐04

1.19E‐05 1.31E‐04 2.56E‐04

2.04E‐05 2.01E‐04 1.08E‐03

1.86E‐05 1.88E‐04

1.51E‐05 1.32E‐04 8.18E‐04

9.36E‐06 9.48E‐05 1.26E‐03

4.42E‐05 4.65E‐04 6.97E‐04

3.03E‐05 2.88E‐04 1.06E‐03

6.92E‐06 6.71E‐05

1.65E‐05 1.57E‐04 9.03E‐04

1.57E‐05 1.58E‐04 2.66E‐04

1.53E‐05 1.70E‐04

1.22E‐05 1.26E‐04 1.55E‐04

4.12E‐05 4.02E‐04 4.81E‐04

1.40E‐05 1.44E‐04 1.25E‐03

4.94E‐05 5.77E‐04 7.34E‐06

1.14E‐05 1.20E‐04

3.73E‐04

2.92E‐05 2.94E‐04 1.63E‐03

1.05E‐05 1.03E‐04

5.14E‐05 7.66E‐04 7.76E‐04

Page 1900
Metallic_oil

6.13E‐05 8.41E‐04 5.57E‐04

5.08E‐05 6.14E‐04 1.17E‐03

1.21E‐04 1.21E‐03

1.08E‐05 9.76E‐05

5.77E‐05 6.89E‐04 1.18E‐03

9.18E‐05 1.35E‐03 1.00E‐03

4.73E‐04 5.66E‐03 1.11E‐04

2.94E‐05 4.22E‐04 1.30E‐04

1.92E‐04 2.01E‐03 2.12E‐04

1.18E‐04 1.24E‐03 2.59E‐03

3.29E‐04 3.39E‐05 3.29E‐04

1.10E‐05 1.01E‐04

1.43E‐05 1.42E‐04

2.07E‐06 2.13E‐05 1.39E‐01

6.63E‐06 7.63E‐05 1.50E‐04

6.63E‐06 7.63E‐05 1.50E‐04

Page 1901
Metallic_oil

Nickel ‐ ERT Nickel MW ‐ ERT Nickel ‐ Part II Nickel MW ‐ Part II Nickel ‐ min Nickel MW ‐ min

lb/MMBtu lb/MW lb/MMBtu lb/MW lb/MMBtu lb/MW

3.26E‐06 3.30E‐05 3.26E‐06 3.30E‐05

7.82E‐07 1.11E‐05 7.82E‐07 1.11E‐05

4.86E‐06 4.92E‐05 4.86E‐06 4.92E‐05

2.61E‐06 3.55E‐05 2.61E‐06 3.55E‐05

1.19E‐06 1.48E‐05 1.19E‐06 1.48E‐05

1.19E‐06 1.48E‐05 1.19E‐06 1.48E‐05

5.90E‐06 8.04E‐05 5.90E‐06 8.04E‐05

1.85E‐05 1.84E‐04 1.85E‐05 1.84E‐04

2.83E‐06 4.03E‐05 2.83E‐06 4.03E‐05

2.74E‐05 2.57E‐04 2.74E‐05 2.57E‐04

2.34E‐05 2.88E‐04 2.34E‐05 2.88E‐04

2.34E‐05 2.33E‐04 2.34E‐05 2.33E‐04

2.22E‐05 2.14E‐04 2.22E‐05 2.14E‐04

3.65E‐05 3.71E‐04 3.65E‐05 3.71E‐04

9.99E‐05 1.10E‐03 9.99E‐05 1.10E‐03

6.65E‐05 7.57E‐04 6.65E‐05 7.57E‐04

1.40E‐04 1.37E‐03 1.40E‐04 1.37E‐03

1.54E‐04 1.59E‐03 1.54E‐04 1.59E‐03

2.52E‐04 2.27E‐03 2.52E‐04 2.27E‐03

1.95E‐04 1.90E‐03 1.95E‐04 1.90E‐03

2.32E‐04 2.78E‐03 2.32E‐04 2.78E‐03

3.33E‐04 3.50E‐03 3.33E‐04 3.50E‐03

4.22E‐04 4.64E‐03 4.22E‐04 4.64E‐03

4.28E‐04 4.20E‐03 4.28E‐04 4.20E‐03

3.33E‐04 3.38E‐03 3.33E‐04 3.38E‐03

4.74E‐04 4.14E‐03 4.74E‐04 4.14E‐03

4.89E‐04 4.95E‐03 4.89E‐04 4.95E‐03

4.15E‐04 4.36E‐03 4.15E‐04 4.36E‐03

5.52E‐04 5.24E‐03 5.52E‐04 5.24E‐03

6.10E‐04 5.91E‐03 6.10E‐04 5.91E‐03

5.48E‐04 5.21E‐03 5.48E‐04 5.21E‐03

6.20E‐04 6.21E‐03 6.20E‐04 6.21E‐03

5.61E‐04 6.22E‐03 5.61E‐04 6.22E‐03

5.53E‐04 5.71E‐03 5.53E‐04 5.71E‐03

5.62E‐04 5.47E‐03 5.62E‐04 5.47E‐03

6.88E‐04 7.08E‐03 6.88E‐04 7.08E‐03

5.48E‐05 6.40E‐04 5.48E‐05 6.40E‐04

7.92E‐04 8.33E‐03 7.92E‐04 8.33E‐03

5.27E‐04 7.86E‐03 5.27E‐04 7.86E‐03

8.64E‐04 8.71E‐03 8.64E‐04 8.71E‐03

1.02E‐03 9.98E‐03 1.02E‐03 9.98E‐03

5.51E‐04 8.21E‐03 5.51E‐04 8.21E‐03

Page 1914
Metallic_oil

6.23E‐04 8.54E‐03 6.23E‐04 8.54E‐03

7.17E‐04 8.66E‐03 7.17E‐04 8.66E‐03

9.69E‐04 9.69E‐03 9.69E‐04 9.69E‐03

1.26E‐03 1.14E‐02 1.26E‐03 1.14E‐02

8.27E‐04 9.87E‐03 8.27E‐04 9.87E‐03

6.84E‐04 1.01E‐02 6.84E‐04 1.01E‐02

6.96E‐04 8.32E‐03 6.96E‐04 8.32E‐03

9.77E‐04 1.40E‐02 9.77E‐04 1.40E‐02

1.11E‐03 1.16E‐02 1.11E‐03 1.16E‐02

7.57E‐03 7.98E‐02 7.57E‐03 7.98E‐02

6.21E‐04 6.03E‐03 6.21E‐04 6.03E‐03

7.59E‐05 6.96E‐04 7.59E‐05 6.96E‐04

7.31E‐05 7.25E‐04 7.31E‐05 7.25E‐04

9.48E‐06 9.79E‐05 9.48E‐06 9.79E‐05

5.08E‐05 5.85E‐04 5.08E‐05 5.85E‐04

5.08E‐05 5.85E‐04 5.08E‐05 5.85E‐04

Page 1915
Metallic_oil

Selenium_Fuel_lb/MMBtu Selenium ‐ ERT Selenium MW ‐ ERT Selenium ‐ Part II

lb/MMBtu lb/MMBtu lb/MW lb/MMBtu

1.21E‐06 2.16E‐06 2.19E‐05

1.57E‐04 1.80E‐07 2.57E‐06

1.12E‐06 3.25E‐06 3.29E‐05

5.25E‐05 7.03E‐07 9.59E‐06

1.54E‐04 6.21E‐07 7.75E‐06

1.54E‐04 6.21E‐07 7.75E‐06

5.25E‐05 1.54E‐06 2.10E‐05

2.55E‐02 1.19E‐06 1.18E‐05

1.57E‐04 4.73E‐07 6.74E‐06

2.66E‐05 1.51E‐06 1.42E‐05

2.68E‐05 9.52E‐07 1.17E‐05

2.62E‐06 2.60E‐05

3.60E‐06 3.47E‐05

2.48E‐05 9.53E‐07 9.68E‐06

3.27E‐05 9.79E‐07 1.08E‐05

5.54E‐07 1.21E‐06 1.37E‐05

5.15E‐05 8.59E‐07 8.36E‐06

6.49E‐05 1.69E‐06 1.74E‐05

3.98E‐05 1.67E‐06 1.50E‐05

5.16E‐05 1.00E‐06 9.78E‐06

4.31E‐05 1.36E‐06 1.64E‐05

1.62E‐06 1.95E‐06 2.06E‐05

2.56E‐04 1.10E‐06 1.21E‐05

1.64E‐06 1.99E‐06 1.96E‐05

3.19E‐06 3.24E‐05

6.01E‐05 2.90E‐06 2.53E‐05

1.69E‐06 3.98E‐07 4.03E‐06

1.62E‐06 4.35E‐06 4.58E‐05

1.63E‐06 3.66E‐06 3.47E‐05

2.52E‐06 2.45E‐05

7.18E‐05 2.38E‐06 2.26E‐05

2.66E‐04 3.65E‐06 3.66E‐05

2.92E‐06 3.24E‐05

5.46E‐05 4.09E‐06 4.22E‐05

5.21E‐05 4.47E‐06 4.35E‐05

1.68E‐06 2.90E‐06 2.99E‐05

5.20E‐05 2.50E‐06 2.92E‐05

1.22E‐06 1.28E‐05

1.03E‐04 3.22E‐06 4.81E‐05

1.25E‐06 1.26E‐05

7.84E‐07 7.69E‐06

1.00E‐04 1.47E‐06 2.19E‐05

Page 1928
Metallic_oil

1.01E‐04 1.03E‐06 1.41E‐05

1.03E‐06 5.26E‐07 6.34E‐06

4.96E‐06 4.96E‐05

5.43E‐06 8.56E‐06 7.73E‐05

1.11E‐06 7.52E‐07 8.97E‐06

1.00E‐04 2.04E‐06 3.00E‐05

4.07E‐06 4.87E‐05

1.09E‐04 3.37E‐06 4.83E‐05

2.26E‐04 4.63E‐06 4.86E‐05

3.59E‐06 3.78E‐05

3.21E‐06

4.05E‐07 3.71E‐06

2.82E‐07 2.79E‐06

1.11E‐03 1.32E‐06 1.36E‐05

5.42E‐05 1.32E‐06 1.51E‐05

5.42E‐05 1.32E‐06 1.51E‐05

Page 1929
Metallic_oil

Selenium MW ‐ Part II Selenium ‐ min Selenium MW ‐ min Total Metals ‐ERT

lb/MW lb/MMBtu lb/MW lb/MMBtu

2.16E‐06 2.19E‐05 8.61E‐06

1.80E‐07 2.57E‐06 6.97E‐06

3.25E‐06 3.29E‐05 1.09E‐05

7.03E‐07 9.59E‐06 8.64E‐06

6.21E‐07 7.75E‐06 1.28E‐05

6.21E‐07 7.75E‐06 1.28E‐05

1.54E‐06 2.10E‐05 1.56E‐05

1.19E‐06 1.18E‐05 3.86E‐05

4.73E‐07 6.74E‐06 2.70E‐05

1.51E‐06 1.42E‐05 4.30E‐05

9.52E‐07 1.17E‐05 4.16E‐05

2.62E‐06 2.60E‐05 5.32E‐05

3.60E‐06 3.47E‐05 6.45E‐05

9.53E‐07 9.68E‐06 9.18E‐05

9.79E‐07 1.08E‐05 1.31E‐04

1.21E‐06 1.37E‐05 1.68E‐04

8.59E‐07 8.36E‐06 2.95E‐04

1.69E‐06 1.74E‐05 2.93E‐04

1.67E‐06 1.50E‐05 4.04E‐04

1.00E‐06 9.78E‐06 3.83E‐04

1.36E‐06 1.64E‐05 3.19E‐04

1.95E‐06 2.06E‐05 4.54E‐04

1.10E‐06 1.21E‐05 4.59E‐04

1.99E‐06 1.96E‐05 5.21E‐04

3.19E‐06 3.24E‐05 5.07E‐04

2.90E‐06 2.53E‐05 6.30E‐04

3.98E‐07 4.03E‐06 5.52E‐04

4.35E‐06 4.58E‐05 5.59E‐04

3.66E‐06 3.47E‐05 6.68E‐04

2.52E‐06 2.45E‐05 6.67E‐04

2.38E‐06 2.26E‐05 7.12E‐04

3.65E‐06 3.66E‐05 6.78E‐04

2.92E‐06 3.24E‐05 6.14E‐04

4.09E‐06 4.22E‐05 6.89E‐04

4.47E‐06 4.35E‐05 7.85E‐04

2.90E‐06 2.99E‐05 7.80E‐04

2.50E‐06 2.92E‐05 7.19E‐04

1.22E‐06 1.28E‐05 8.49E‐04

3.22E‐06 4.81E‐05 6.38E‐04

1.25E‐06 1.26E‐05 1.01E‐03

7.84E‐07 7.69E‐06 1.08E‐03

1.47E‐06 2.19E‐05 7.16E‐04

Page 1942
Metallic_oil

1.03E‐06 1.41E‐05 8.03E‐04

5.26E‐07 6.34E‐06 9.48E‐04

4.96E‐06 4.96E‐05 1.15E‐03

8.56E‐06 7.73E‐05 1.36E‐03

7.52E‐07 8.97E‐06 1.09E‐03

2.04E‐06 3.00E‐05 9.23E‐04

4.07E‐06 4.87E‐05 1.20E‐03

3.37E‐06 4.83E‐05 1.09E‐03

4.63E‐06 4.86E‐05 1.75E‐03

3.59E‐06 3.78E‐05 8.85E‐03

3.12E‐05 3.21E‐06 3.12E‐05

4.05E‐07 3.71E‐06 1.34E‐04

2.82E‐07 2.79E‐06 1.25E‐04

1.32E‐06 1.36E‐05 3.54E‐05

1.32E‐06 1.51E‐05 8.29E‐05

1.32E‐06 1.51E‐05 8.29E‐05

Page 1943
Metallic_oil

Total Metals MW ‐ERT Filterable Particulate_Method 29 ‐ ERT

lb/MW lb/MMBtu

8.72E‐05 3.54E-04

9.93E‐05 1.04E-03

1.11E‐04 1.22E-03

1.18E‐04 2.17E-03

1.60E‐04 2.30E-03

1.60E‐04 2.30E-03

2.13E‐04 2.83E-03

3.85E‐04 1.57E-03

3.85E‐04 4.92E-03

4.04E‐04 3.16E-03

5.11E‐04 3.20E-03

5.30E‐04 4.91E-02

6.21E‐04 6.58E-02

9.33E‐04 2.40E-02

1.44E‐03 5.38E-03

1.91E‐03 1.67E-02

2.87E‐03 2.63E-02

3.02E‐03 7.37E-02

3.65E‐03 4.16E-02

3.72E‐03 1.84E-02

3.83E‐03 2.07E-02

4.78E‐03 1.89E-02

5.04E‐03

5.12E‐03 2.14E-02

5.15E‐03 9.78E-02

5.50E‐03 2.36E-02

5.59E‐03 2.01E-02

5.88E‐03 2.89E-02

6.35E‐03 2.61E-02

6.47E‐03

6.77E‐03 4.64E-02

6.79E‐03

6.80E‐03

7.10E‐03 3.05E-02

7.64E‐03 3.21E-02

8.02E‐03 3.19E-02

8.40E‐03

8.93E‐03

9.51E‐03

1.02E‐02

1.06E‐02

1.07E‐02 7.54E-03

Page 1956
Metallic_oil

1.10E‐02 1.17E-02

1.14E‐02 2.64E-02

1.15E‐02 5.09E-02

1.23E‐02 3.47E-02

1.30E‐02 3.90E-02

1.36E‐02 5.23E-02

1.44E‐02

1.57E‐02 3.85E-02

1.83E‐02 2.92E-02

9.32E‐02

1.22E‐03

1.23E‐03

3.66E‐04 3.24E-03

9.54E‐04 4.63E-03

9.54E‐04 4.63E-03

Page 1957
Metallic_oil

Filterable Particulate_Method 29 MW ‐ ERT Filterable Particulate_Method 5 ‐ ERT

lb/MW lb/MMBtu

3.59E-03

1.49E-02

1.24E-02

2.95E-02

2.87E-02

2.87E-02

3.86E-02

1.57E-02

7.01E-02

2.97E-02

3.93E-02 2.39E‐03

4.89E-01

6.33E-01

2.44E-01

5.95E-02 5.38E‐03

1.90E-01

2.56E-01

7.61E-01

3.76E-01

1.79E-01

2.49E-01

1.99E-01

8.84E‐03

2.11E-01

9.93E-01

2.06E-01

2.04E-01

3.04E-01

2.48E-01

1.98E‐02

4.41E-01

1.33E‐02

3.15E-01

3.12E-01

3.29E-01

2.27E‐02

3.93E‐02

1.12E-01

Page 1970
Metallic_oil

1.60E-01

3.18E-01

5.09E-01

3.13E-01

4.65E-01

7.69E-01

5.52E-01

3.06E-01

1.87E‐03

6.64E‐03

3.35E-02

5.33E-02

5.33E-02

Page 1971
Metallic_oil

Filterable Particulate_Method 5 MW ‐ ERT Filterable Particulate_Method 5/OTM‐28 ‐ ERT

lb/MW lb/MMBtu

2.94E‐02

5.95E‐02

9.72E‐02

1.92E‐01

1.33E‐01

1.50E‐01

2.38E‐01

3.86E‐01

Page 1984
Metallic_oil

1.55E‐01

1.72E‐02

6.58E‐02

Page 1985
Metallic_oil

Filterable Particulate_Method 5/OTM‐28 MW ‐ ERT Filterable Particulate_OTM ‐ 27/28 ‐ ERT

lb/MW lb/MMBtu

7.53E‐03

3.15E‐03

3.30E‐03

4.93E‐03

2.80E‐03

2.80E‐03

5.22E‐03

4.92E‐03

3.23E‐03

2.68E‐03

2.06E‐02

8.10E‐03

2.38E‐02

3.43E‐02

3.22E‐02

2.36E‐02

1.27E‐02

2.42E‐02

7.58E‐02

2.71E‐02

2.58E‐02

2.65E‐02

2.50E‐02

2.49E‐02

4.05E‐02

1.77E‐02

1.60E‐02

4.48E‐02

3.85E‐02

1.75E+00

2.48E‐02

6.15E‐03

5.65E‐02

4.61E‐02

9.60E‐03

Page 1998
Metallic_oil

1.56E‐02

2.90E‐02

5.40E‐02

3.32E‐02

3.19E‐02

2.22E+00 2.93E‐02

5.18E‐02

1.97E‐03

4.18E‐03

4.18E‐03

Page 1999
Metallic_oil

Filterable Particulate_OTM ‐ 27/28 MW ‐ ERT Filterable PM2_5_OTM ‐ 27 ‐ ERT

lb/MW lb/MMBtu

7.62E‐02

4.49E‐02

3.34E‐02

6.72E‐02

3.50E‐02

3.50E‐02

7.11E‐02

7.01E‐02

3.22E‐02

2.58E‐02

2.09E‐01

8.96E‐02

2.71E‐01

3.09E‐01

3.87E‐01

2.48E‐01

1.40E‐01

2.38E‐01

7.69E‐01

2.37E‐01

2.62E‐01

2.79E‐01

2.38E‐01

2.42E‐01

3.85E‐01

1.77E‐01

1.77E‐01

4.63E‐01

3.96E‐01

2.61E‐01

9.18E‐02

5.69E‐01

4.53E‐01

1.43E‐01

Page 2012
Metallic_oil

2.14E‐01

3.50E‐01

3.07E‐02

4.87E‐01

3.97E‐01

4.69E‐01

4.21E‐01

5.45E‐01

1.81E‐02

4.82E‐02

4.82E‐02

Page 2013
Metallic_oil

Filterable PM2_5_OTM ‐ 27 MW ‐ ERT Filterable PM2_5_OTM ‐ 27/28 ‐ ERT

lb/MW lb/MMBtu

6.33E‐03

1.20E‐03

2.65E‐03

4.52E‐03

1.53E‐03

1.53E‐03

4.98E‐03

7.72E‐04

1.24E‐03

1.10E‐03

1.35E‐03

1.90E‐03

1.53E‐03

1.52E‐02

8.10E‐03

2.03E‐02

1.85E‐03

5.71E‐03

2.96E‐02

2.76E‐03

3.15E‐02

1.95E‐02

1.13E‐02

1.86E‐02

5.81E‐02

2.09E‐02

1.70E‐02

1.93E‐02

2.12E‐02

1.54E‐02

2.88E‐02

1.33E‐02

1.23E‐02

3.07E‐02

7.96E‐03

2.61E‐02

1.35E‐02

5.37E‐03

3.56E‐02

2.75E‐02

9.08E‐03

Page 2026
Metallic_oil

1.42E‐02

1.65E‐02

3.07E‐01

5.26E‐02

2.41E‐02

1.55E‐02

3.76E‐02

2.39E‐02

1.43E‐02

1.92E‐02

2.22E‐03

3.77E‐03

3.77E‐03

Page 2027
Metallic_oil

Filterable PM2_5_OTM ‐ 27/28 MW ‐ ERT PM2_5 Condensible Particulate_Method 202 ‐ ERT

lb/MW lb/MMBtu

6.41E‐02

1.71E‐02

2.68E‐02

6.16E‐02

1.91E‐02

1.91E‐02

6.80E‐02

7.71E‐03

1.77E‐02

1.03E‐02

1.66E‐02

1.89E‐02

1.47E‐02

1.54E‐01

8.96E‐02

2.31E‐01

1.80E‐02

5.90E‐02

2.68E‐01

2.69E‐02

3.79E‐01

2.06E‐01

1.24E‐01

1.83E‐01

5.90E‐01

1.83E‐01

1.72E‐01

2.03E‐01

2.02E‐01

1.50E‐01

2.74E‐01

1.34E‐01

1.37E‐01

3.17E‐01

7.75E‐02

2.69E‐01

1.42E‐01

8.00E‐02

3.59E‐01

2.70E‐01

1.35E‐01

Page 2040
Metallic_oil

1.94E‐01

1.99E‐01

4.75E‐01

2.87E‐01

2.28E‐01

4.50E‐01

3.43E‐01

1.50E‐01

2.03E‐01

2.20E‐02

4.34E‐02

4.34E‐02

Page 2041
Metallic_oil

PM2_5 Condensible Particulate_Method 202 MW ‐ ERT

lb/MW

Page 2054
Metallic_oil

PM2_5 Condensible Particulate_Method 5/OTM‐28 ‐ ERT

lb/MMBtu

1.99E‐02

Page 2068
Metallic_oil

PM2_5 Condensible Particulate_Method 5/OTM‐28 MW ‐ ERT

lb/MW

2.33E‐01

Page 2082
Metallic_oil

PM2_5 Condensible Particulate_OTM ‐ 27/28 ‐ ERT

lb/MMBtu

1.50E‐02

3.04E‐03

4.42E‐03

6.56E‐03

2.47E‐03

2.47E‐03

5.08E‐03

2.61E‐03

4.13E‐03

5.91E‐02

4.15E‐03

5.60E‐02

4.28E‐02

1.56E‐02

1.28E‐02

1.22E‐02

2.30E‐02

4.63E‐03

3.69E‐02

1.54E‐02

1.22E‐02

9.46E‐03

4.25E‐03

9.38E‐03

2.46E‐02

5.64E‐03

5.78E‐02

4.89E‐02

1.30E‐03

2.69E‐03

1.83E‐02

5.35E‐03

4.39E‐03

5.85E‐03

2.17E‐02

4.18E‐02

3.11E‐03

5.45E‐03

2.69E‐02

7.55E‐03

3.32E‐03

Page 2096
Metallic_oil

1.34E‐03

2.35E‐03

1.81E‐02

2.97E‐03

2.19E‐03

5.40E‐03

2.12E‐02

6.66E‐03

1.26E‐02

3.50E‐03

1.01E‐02

1.30E‐02

4.81E‐03

4.81E‐03

Page 2097
Metallic_oil

PM2_5 Condensible Particulate_OTM ‐ 27/28 MW ‐ ERT

lb/MW

1.52E‐01

4.33E‐02

4.48E‐02

8.95E‐02

3.08E‐02

3.08E‐02

6.93E‐02

2.60E‐02

5.88E‐02

5.55E‐01

5.10E‐02

5.57E‐01

4.12E‐01

1.58E‐01

1.42E‐01

1.38E‐01

2.24E‐01

4.78E‐02

3.33E‐01

1.50E‐01

1.47E‐01

9.95E‐02

4.67E‐02

9.22E‐02

2.50E‐01

4.93E‐02

5.85E‐01

5.14E‐01

1.23E‐02

2.61E‐02

1.74E‐01

5.36E‐02

4.87E‐02

6.04E‐02

2.11E‐01

4.30E‐01

3.27E‐02

8.13E‐02

2.71E‐01

7.41E‐02

4.95E‐02

Page 2110
Metallic_oil

1.84E‐02

2.84E‐02

1.63E‐01

3.55E‐02

3.22E‐02

6.47E‐02

3.04E‐01

6.99E‐02

1.33E‐01

3.21E‐02

9.98E‐02

1.34E‐01

5.54E‐02

5.54E‐02

Page 2111
Metallic_oil

PM2_5 Condensible Particulate_OTM ‐ 28 ‐ ERT

lb/MMBtu

Page 2124
Metallic_oil

PM2_5 Condensible Particulate_OTM ‐ 28 MW ‐ ERT Total Particulate_Method 5/OTM‐28 ‐ ERT

lb/MW lb/MMBtu

Page 2138
Metallic_oil

Total Particulate_Method 5/OTM‐28 MW ‐ ERT Total Particulate_OTM ‐ 27/28 ‐ ERT

lb/MW lb/MMBtu

2.26E‐02

6.20E‐03

7.72E‐03

1.15E‐02

5.27E‐03

5.27E‐03

1.03E‐02

9.05E‐03

5.92E‐02

4.55E‐02

3.61E‐02

2.09E‐02

3.60E‐02

7.07E‐02

4.39E‐02

3.31E‐02

1.66E‐02

3.36E‐02

1.00E‐01

3.27E‐02

8.45E‐02

5.93E‐02

2.61E‐02

2.72E‐02

5.88E‐02

2.26E‐02

2.00E‐02

5.07E‐02

8.12E‐02

2.75E‐02

1.27E‐02

8.34E‐02

5.33E‐02

1.31E‐02

Page 2152
Metallic_oil

1.70E‐02

3.13E‐02

7.21E‐02

3.54E‐02

3.41E‐02

2.34E+00 7.44E‐02

6.43E‐02

9.04E‐03

9.04E‐03

Page 2153
Metallic_oil

Total Particulate_OTM ‐ 27/28 MW ‐ ERT Total Particulate_OTM ‐ 28 ‐ ERT

lb/MW lb/MMBtu

2.29E‐01

8.83E‐02

7.82E‐02

1.57E‐01

6.57E‐02

6.57E‐02

1.40E‐01

1.29E‐01

5.90E‐01

4.38E‐01

3.67E‐01

2.31E‐01

4.10E‐01

6.38E‐01

5.27E‐01

3.48E‐01

1.82E‐01

3.30E‐01

1.02E+00

2.86E‐01

8.56E‐01

6.24E‐01

2.48E‐01

2.63E‐01

5.59E‐01

2.26E‐01

2.22E‐01

5.23E‐01

8.35E‐01

2.89E‐01

1.90E‐01

8.41E‐01

5.23E‐01

1.95E‐01

Page 2166
Metallic_oil

2.34E‐01

3.78E‐01

3.62E‐02

6.51E‐01

4.23E‐01

5.02E‐01

1.07E+00

6.78E‐01

1.04E‐01

1.04E‐01

Page 2167
Metallic_oil

Total Particulate_OTM ‐ 28 MW ‐ ERT PM (Condensable) ‐ Part II PM (Condensable) MW ‐ Part II

lb/MW lb/MMBtu lb/MW

Page 2180
Metallic_oil

3.62E‐01

3.16E‐02 3.07E‐01

2.30E‐02 2.34E‐01

Page 2181
Metallic_oil

PM (Filterable and Condensable) ‐ Part II PM (Filterable and Condensable) MW ‐ Part II

lb/MMBtu lb/MW

Page 2194
Metallic_oil

PM (Filterable) ‐ Part II PM (Filterable) MW ‐ Part II PM10 (Condensable) ‐ Part II

lb/MMBtu lb/MW lb/MMBtu

3.33E‐03 3.38E‐02

1.33E‐03 1.35E‐02

1.80E‐02 1.89E‐01

1.87E‐02 1.83E‐01

2.85E‐02 2.89E‐01

2.47E‐02 2.60E‐01

1.78E‐02 1.69E‐01

2.78E‐02 2.86E‐01

Page 2208
Metallic_oil

1.04E‐01 1.49E+00

4.64E‐02 4.51E‐01

7.17E‐03 7.29E‐02

3.48E‐02 3.93E‐01

3.25E‐02 3.67E‐01

2.20E‐02 1.99E‐01

2.20E‐02 1.98E‐01

2.28E‐02 2.30E‐01

1.50E‐03 1.53E‐02

3.17E‐02 3.38E‐01

Page 2209
Metallic_oil

PM10 (Condensable) MW ‐ Part II PM10 (Filterable and Condensable) ‐ Part II

lb/MW lb/MMBtu

Page 2222
Metallic_oil

PM10 (Filterable and Condensable) MW ‐ Part II PM10 (Filterable) ‐ Part II

lb/MW lb/MMBtu

Page 2236
Metallic_oil

PM10 (Filterable) MW ‐ Part II PM2_5 (Filterable) ‐ Part II PM2_5 (Filterable) MW ‐ Part II

lb/MW lb/MMBtu lb/MW

Page 2250
Metallic_oil

control_group_1 control_type_1 install_date_1

PM control Electrostatic precipitator, cold side, w/o flue gas conditioning 01‐May‐07

PM control Electrostatic precipitator, cold side, w/o flue gas conditioning 01‐Jun‐07

NOx control Selective Noncatalytic Reduction 01‐Oct‐95

NOx control Selective Noncatalytic Reduction 01‐Oct‐08

PM control Electrostatic precipitator, cold side, w/o flue gas conditioning 01‐Dec‐53

PM control Electrostatic precipitator, cold side, w/o flue gas conditioning 01‐Jun‐71

PM control Electrostatic precipitator, cold side, w/o flue gas conditioning 01‐Jun‐71

PM control Electrostatic precipitator, cold side, w/o flue gas conditioning 01‐Sep‐57

PM control Electrostatic precipitator, cold side, w/o flue gas conditioning 01‐Apr‐74

PM control Electrostatic precipitator, cold side, w/o flue gas conditioning 01‐Jun‐72

PM control Multiple cyclone 01‐Jun‐81

PM control Multiple cyclone 01‐Apr‐68

PM control Multiple cyclone 01‐Nov‐77

PM control Multiple cyclone 01‐Dec‐80

PM control Multiple cyclone 01‐Apr‐67

PM control Electrostatic precipitator, cold side, w/o flue gas conditioning 01‐Nov‐60

PM control Multiple cyclone 01‐Oct‐76

PM control Multiple cyclone

Page 2264
Metallic_oil

PM control Multiple cyclone 01‐Dec‐57

PM control Multiple cyclone 01‐Mar‐58

PM control Multiple cyclone 01‐Dec‐71

PM control Multiple cyclone 01‐Nov‐74

NOx control Selective Catalytic Reduction 01‐Jun‐95

PM control Electrostatic precipitator, cold side, w/o flue gas conditioning 01‐Jun‐05

PM control Multiple cyclone 01‐May‐62

PM control Multiple cyclone 01‐Mar‐63

PM control Electrostatic precipitator, cold side, w/o flue gas conditioning 01‐Dec‐79

PM control Electrostatic precipitator, cold side, w/o flue gas conditioning 01‐Jun‐75

PM control Multiple cyclone 01‐Apr‐65

PM control Electrostatic precipitator, cold side, w/o flue gas conditioning 01‐Feb‐06

PM control Multiple cyclone 01‐May‐69

PM control Electrostatic precipitator, hot side, w/o flue gas conditioning 01‐Jun‐74

Page 2265
Metallic_oil

control_group_2 control_type_2 install_date_2

PM control Electrostatic precipitator, cold side, w/o flue gas conditioning 01‐Jun‐62

PM control Electrostatic precipitator, hot side, w/o flue gas conditioning 01‐Aug‐54

Page 2278
Metallic_oil

control_group_3 control_type_3 install_date_3 control_group_4 control_type_4 install_date_4

Page 2292
Metallic_oil

control_group_5 control_type_5 install_date_5 control_group_6 control_type_6 install_date_6

Page 2306
Metallic_oil

control_group_7 control_type_7 install_date_7 control_group_8 control_type_8 install_date_8

Page 2320
Metallic_oil

control_group_9 control_type_9 install_date_9 control_group_10 control_type_10 install_date_10

Page 2334
Metallic_oil

control_group_11 control_type_11 install_date_11 control_group_12 control_type_12

Page 2348
Metallic_oil

install_date_12

Page 2362
Harding Street Mitchell Power Station

ORIS/Facility/Unit 990 3181

Test Averages 09 003

1 2.1226E-08 7.0337E-08

2

3

4

5

6

7

8

9

10

11

12

13

14

15

16

17

18

19

20

21

22

23

24

25

26

27

28

29

30

31

32

33

34

35

ni = number test runs = 1 1

Total Number of sources = 7

n =Total # test runs = 7

1

N

i

i

n





N
6

This step is for QC only:

means 2.12E-08 7.03E-08

8.67E-08

Mean =

Pooled Variance = 1.0683E-15

m= number future runs = 1

Term1 1.1429

Term2 1.2209E-15

Squared root Term2 3.4941E-08

NOTE: the pvalue for the t-statistic is calculated as: 2*alpha, where 1-alpha is desired confidence, so if 99% c

t-statistic

= quantile t-distribution with 

df degrees of freedom at 

.99 confidence level = 3.14

 2 2

1

1

1

n

i

i

s xX

n 

   

1 1

1 N ni

ij

i j

X x

n  

 

1 1

n m



s

2 1 1

n m

      

1

1

N

i

i

df n 

        

d f t

2 1 1

s

n m

      

1

1 ni

i ik

i k

x x

n 

 

2   1 1
UPL POOLED VARIANCE = 1.9652E-07

2

,

1 1 Xt s df p n m

       
Mitchell Power Station Harding Street Port Everglades Eagle Valley

3181 990 617 991

001 10 PPE04 1

8.9044E-08 9.8104E-08 9.8724E-08 1.1476E-07

1111

Emissions (lb/MMBtu)
8.90E-08 9.81E-08 9.87E-08 1.15E-07

Skewness =

SE Skewness

Skewness Test

Kurtosis =

SE Kurtosis

Kurtosis Test

Number of test runs =

confidence is desired then alpha=0.01 and 2*alpha=2*(0.01)
Eagle Valley

991

2

1.1476E-07

1

)
1.15E-07

Distribution of Normal 

Tests Distribution of Log Tests

-1.59E+00 #DIV/0!

0.93 #DIV/0!

normal #DIV/0!

2.67E+00 #DIV/0!

1.85 #DIV/0!

normal #DIV/0!

7 0 REsult: normal
Port Everglades Harding Street

ORIS/Facility/Unit 617 990

Test Averages PPE04 09

1 8.779516E-05 1.005369E-04

2

3

4

5

6

7

8

9

10

11

12

13

14

15

16

17

18

19

20

21

22

23

24

25

26

27

28

29

30

31

32

33

34

35

ni = number test runs = 1 1

Total Number of sources = 7

n =Total # test runs = 7

1

N

i

i

n





N
6

This step is for QC only:

means 8.78E-05 1.01E-04

1.37E-04

Mean =

Pooled Variance = 2.0112E-09

m= number future runs = 1

Term1 1.1429

Term2 2.2985E-09

Squared root Term2 4.79427E-05

NOTE: the pvalue for the t-statistic is calculated as: 2*alpha, where 1-alpha is desired confidence, so if 99% 

t-statistic

= quantile t-distribution with 

df degrees of freedom at 

.99 confidence level = 3.14

UPL POOLED VARIANCE = 2.8745E-04

 2 2

1

1

1

n

i

i

s x X

n 

   

1 1

1 N ni

ij

i j

X x

n  

 

1 1

n m



2 1 1

s

n m

      

1

1

N

i

i

df n 

        

d f t

2 1 1

s

n m

      

1

1 ni

i ik

i k

x x

n 

 

2

,

1 1 Xt s df p n m

       
Xt s df , p n m

     
Port Everglades Mitchell Power Station Eagle Valley Eagle Valley

617 3181 991 991

PPE03 003 1 2

1.113864E-04 1.195019E-04 1.613835E-04 1.613835E-04

1 111

Emissions (lb/MW)
1.11E-04 1.20E-04 1.61E-04 1.61E-04

Skewness =

SE Skewness

Skewness Test

Kurtosis =

SE Kurtosis

Kurtosis Test

Number of test runs =

confidence is desired then alpha=0.01 and 2*alpha=2*(0.01)
Mitchell Power Station

3181

001

2.155205E-04

1
2.16E-04

Distribution of Normal Tests Distribution of Log Tests

8.56E-01 #DIV/0!

0.93 #DIV/0!

normal #DIV/0!

4.01E-02 #DIV/0!

1.85 #DIV/0!

normal #DIV/0!

7 0 REsult: normal
Port Everglades

ORIS/Facility/Unit 617

Runs PPE04

1 9.5942E‐05 ADL

2 1.2603E‐04 ADL

3 4.1411E‐05 ADL

4

5

6

7

8

9

10

11

12

13

14

15

16

17

18

19

20

21

22

23

24

25

26

27

28

29

30

31

32

33

34

35

ni = number test runs = 3

Total Number of sources = 1

n =Total # test runs = 3

N   

1

N

i

i

n





N

1

N

i

i

n





N
2

This step is for QC only:

means 8.78E-05

8.78E-05

Mean =

Pooled Variance = 1.8399E-09

m= number future runs = 3

Term1 0.6667

Term2 1.2266E-09

Squared root Term2 3.50233E-05

NOTE: the pvalue for the t-statistic is calculated as: 2*alpha, where 1-alpha is desired confidence, so if 99% 

t-statistic

= quantile t-distribution with 

df degrees of freedom at 

.99 confidence level = 6.96

UPL POOLED VARIANCE = 3.3172E-04

1

1

N

i

i

df n 

        

d f t

 2 2

1

1

1

n

i

i

s x X

n 

   

1 1

1 N ni

ij

i j

X x

n  

 

1 1

n m



2 1 1

s

n m

      

1

1

N

i

i

df n 

        

d f t

2 1 1

s

n m

      

1

1 ni

i ik

i k

x x

n 

 

2

,

1 1 Xt s df p n m

       
Xt s df , p n m

     
Emissions (lb/MW)
confidence is desired then alpha=0.01 and 2*alpha=2*(0.01)
X t  df p,
2

,

1 1 X df p t s

n m

       
990 Harding Street IN 09

617 Port Everglades FL PPE04

3181 Mitchell Power Station PA 003

617 Port Everglades FL PPE03991 Eagle Valley IN 1991 Eagle Valley IN 2

3181 Mitchell Power Station PA 001

990 Harding Street IN 10

2480 Danskammer Generating Station NY 1
Harding Street Port Everglades

ORIS/Facility/Unit 990 617

Test Averages 09 PPE04

1 7.058570E-06 8.669772E-06

2

3

4

5

6

7

8

9

10

11

12

13

14

15

16

17

18

19

20

21

22

23

24

25

26

27

28

29

30

31

32

33

34

35

ni = number test runs = 1 1

Total Number of sources = 7

n =Total # test runs = 7

1

N

i

i

n





N
6

This step is for QC only:

means 7.06E-06 8.67E-06

1.10E-05

Mean =

Pooled Variance = 9.4234E-12

m= number future runs = 1

Term1 1.1429

Term2 1.0770E-11

Squared root Term2 3.2817E-06

NOTE: the pvalue for the t-statistic is calculated as: 2*alpha, where 1-alpha is desired confidence, so if 99% c

t-statistic

= quantile t-distribution with 

df degrees of freedom at 

.99 confidence level = 3.14

 2 2

1

1

1

n

i

i

s x X

n 

   

1 1

1 N ni

ij

i j

X x

n  

 

1 1

n m



2 1 1

s

n m

      

1

1

N

i

i

df n 

        

d f t

2 1 1

s

n m

      

1

1 ni

i ik

i k

x x

n 

 

2   1 1
UPL POOLED VARIANCE = 2.1337E-05

2

,

1 1 Xt s df p n m

       
Mitchell Power Station Port Everglades Eagle Valley Eagle Valley

3181 617 991 991

003 PPE03 1 2

8.763471E-06 1.099941E-05 1.293532E-05 1.293532E-05

1 1 11

Emissions (lb/MMBt
8.76E-06 1.10E-05 1.29E-05 1.29E-05

Skewness =

SE Skewness

Skewness Test

Kurtosis =

SE Kurtosis

Kurtosis Test

Number of test runs =

confidence is desired then alpha=0.01 and 2*alpha=2*(0.01)
Mitchell Power Station

3181

001

1.580483E-05

1

tu)
1.58E-05

Distribution of Normal Tests Distribution of Log Tests

2.93E-01 #DIV/0!

0.93 #DIV/0!

normal #DIV/0!

-9.16E-01 #DIV/0!

1.85 #DIV/0!

normal #DIV/0!

7 0 REsult: normal
Harding Street

ORIS/Facility/Unit 990

Runs 09

1 7.3408E‐06 ADL

2 8.9227E‐06 ADL

3 4.8962E‐06 ADL

4

5

6

7

8

9

10

11

12

13

14

15

16

17

18

19

20

21

22

23

24

25

26

27

28

29

30

31

32

33

34

35

ni = number test runs = 3

Total Number of sources = 1

n =Total # test runs = 3

1

N

i

i

n





N
2

This step is for QC only:

means 7.05E-06

7.05323E-06

Mean =

Pooled Variance = 4.1152E-12

m= number future runs = 3

Term1 0.6667

Term2 2.7435E-12

Squared root Term2 1.65634E-06

NOTE: the pvalue for the t-statistic is calculated as: 2*alpha, where 1-alpha is desired confidence, so if 99% c

t-statistic

= quantile t-distribution with 

df degrees of freedom at 

.99 confidence level = 6.96

UPL POOLED VARIANCE = 1.8589E-05

 2 2

1

1

1

n

i

i

s xX

n 

   

1 1

1 N ni

ij

i j

X x

n  

 

1 1

n m



s

2 1 1

n m

      

1

1

N

i

i

df n 

        

d f t

2 1 1

s

n m

      

1

1 ni

i ik

i k

x x

n 

 

2 1 1 X df p t s        
2

,

1 1 Xt s df p n m

       
Emissions (lb/MMBtu)
confidence is desired then alpha=0.01 and 2*alpha=2*(0.01)
Mercury_oil

primary_fuel ORIS code Plant Name physical_state Unit Number

oil 2516 Northport NY Unit2

oil 2516 Northport NY Unit3

oil 1507 William F Wyman ME 1

oil 766 Waiau HI W7

oil 676 C D McIntosh Jr FL Unit 2

oil 764 Honolulu HI H9

oil 766 Waiau HI W6

oil 638 Suwannee River Plant FL Suw_Cfg_1

oil 765 Kahe HI K3

oil 2411 PSEG Sewaren Generating Station NJ SEWU3E3PT3OS0

oil 667 Northside Generating Station FL 3

oil 764 Honolulu HI H8

oil 2411 PSEG Sewaren Generating Station NJ SEWU4E4PT4OS0

oil 2411 PSEG Sewaren Generating Station NJ SEWU1E1PT1OS0

oil 3809 Yorktown VA Unit 3

oil 6042 Manatee FL PMT02

oil 617 Port Everglades FL PPE04

oil 2480 Danskammer Generating Station NY 2

oil 2480 Danskammer Generating Station NY 1

oil 617 Port Everglades FL PPE03

oil 3804 Possum Point VA Unit 5

oil 638 Suwannee River Plant FL Suw_Cfg_2

oil 1564 Vienna Generating Station MD Unit 8

oil 6042 Manatee FL PMT01

oil 2517 Port Jefferson NY Unit4

oil 3148 PPL Martins Creek PA U3

oil 765 Kahe HI K1

oil 3148 PPL Martins Creek PA U4

oil 2378 BL England NJ 3

oil 990 Harding Street IN 09

oil 1682 Cleary‐Flood Generating Station MA 8

oil 6043 Martin FL PMR01

oil 1642 West Springfield MA Unit 3

oil 3181 Mitchell Power Station PA 003

oil 6043 Martin FL PMR02

oil 991 Eagle Valley IN 2

oil 991 Eagle Valley IN 1

oil 8906 Astoria Generating Station NY A‐S0003

oil 1507 William F Wyman ME 2

oil 2493 East River NY 60

oil 8054 Gerald Andrus MS 001

oil 3181 Mitchell Power Station PA 001

Page 555
Mercury_oil

oil 2050 Baxter Wilson MS 001

oil 990 Harding Street IN 10

oil 621 Turkey Point FL PTF01

oil 638 Suwannee River Plant FL Suw_Cfg_3

oil 3319 Jefferies SC J2

oil 3159 Cromby Generating Station PA Unit 2

oil 562 Middletown CT 2

oil 546 Montville Station CT 5

oil 548 Norwalk ‐ Norwalk Power LLC CT 2

oil 2500 Ravenswood NY 30

oil 2500 Ravenswood NY 20

oil 3161 Eddystone Generating Station PA Unit 3

oil 3161 Eddystone Generating Station PA Unit 4

oil 8002 Newington Station NH nt1

Page 556
Mercury_oil

Unit Type Boiler_Type Boiler_count Total_Capacity_MWe

MW

Conventional Boiler Tangential firing 1 375

Conventional Boiler Tangential firing 1 375

Conventional Boiler Wall firing ‐ front firing 1 52

Conventional Boiler Tangential firing 1 92

Conventional Boiler Wall firing ‐ front firing 1 115

Conventional Boiler Wall firing ‐ front firing 1 57

Conventional Boiler Wall firing ‐ front firing 1 58

Conventional Boiler Tangential firing 1 31

Conventional Boiler Tangential firing 1 92

Conventional Boiler Tangential firing 1 109

Conventional Boiler Wall firing ‐ front firing 1 538

Conventional Boiler Wall firing ‐ front firing 1 56

Conventional Boiler Tangential firing 1 124

Conventional Boiler Tangential firing 1 104

Conventional Boiler Tangential firing 1 843

Conventional Boiler Wall firing ‐ front firing 1 854

Conventional Boiler Wall firing ‐ front firing 1 395

Conventional Boiler Tangential firing 1 68

Conventional Boiler Tangential firing 1 65

Conventional Boiler Wall firing ‐ front firing 1 395

Conventional Boiler Tangential firing 1 840

Conventional Boiler Wall firing ‐ front firing 1 31

Conventional Boiler Tangential firing 1 162

Conventional Boiler Wall firing ‐ front firing 1 841

Conventional Boiler Tangential firing 1 190

Conventional Boiler Tangential firing 1 884

Conventional Boiler Wall firing ‐ front firing 1 92

Conventional Boiler Tangential firing 1 812

Conventional Boiler Tangential firing 1 177

Conventional Boiler Concentric firing 1 37

Conventional Boiler Wall firing ‐ front firing 1 28

Conventional Boiler Wall firing ‐ front firing 1 859

Conventional Boiler Tangential firing 1 104

Conventional Boiler Vertical firing 1 44

Conventional Boiler Wall firing ‐ front firing 1 859

Conventional Boiler Concentric firing 1 42

Conventional Boiler Concentric firing 1 42

Conventional Boiler Tangential firing 1 388

Conventional Boiler Wall firing ‐ front firing 1 53

Conventional Boiler Wall firing ‐ opposed firing 1 129

Conventional Boiler Wall firing ‐ unspecified 1 737

Conventional Boiler Vertical firing 1 44

Page 557
Mercury_oil

Conventional Boiler Tangential firing 1 408

Conventional Boiler Concentric firing 1 37

Conventional Boiler Wall firing ‐ front firing 1 421

Conventional Boiler Wall firing ‐ front firing 1 75

Conventional Boiler Wall firing ‐ rear firing 1 44

Conventional Boiler Tangential firing 1 223

Conventional Boiler Wall firing ‐ front firing 1 125

Conventional Boiler Tangential firing 1 81

Conventional Boiler Tangential firing 1 178

Conventional Boiler Tangential firing 1 979

Conventional Boiler Tangential firing 1 366

Conventional Boiler Tangential firing 1 395

Conventional Boiler Tangential firing 1 395

Conventional Boiler Tangential firing 1 421

Page 558
Mercury_oil

Total_max_heat_input Unit_heat_rate Fuel_types

MMBtu/hr Mmbtu/MWh

3650 9.73 No.6 Fuel Oil (residual or bunker C)

3650 9.73 No.6 Fuel Oil (residual or bunker C)

630 12.07 No.6 Fuel Oil (residual or bunker C)

922 10.02 No.6 Fuel Oil (residual or bunker C)

1185 10.33 No.6 Fuel Oil (residual or bunker C)

632 11.08 No.6 Fuel Oil (residual or bunker C)

637 10.99 No.6 Fuel Oil (residual or bunker C)

315 10.16 No.6 Fuel Oil (residual or bunker C)

892 9.70 No.6 Fuel Oil (residual or bunker C)

1600 14.71 No.6 Fuel Oil (residual or bunker C)

4857 9.03 No.6 Fuel Oil (residual or bunker C)

589 10.52 No.6 Fuel Oil (residual or bunker C)

1700 13.71 No.6 Fuel Oil (residual or bunker C)

1550 14.90 No.6 Fuel Oil (residual or bunker C)

8883 10.54 No.6 Fuel Oil (residual or bunker C)

8650 10.13 No.6 Fuel Oil (residual or bunker C)

4000 10.13 No.6 Fuel Oil (residual or bunker C)

650 9.63 No.6 Fuel Oil (residual or bunker C)

650 9.95 No.6 Fuel Oil (residual or bunker C)

4000 10.13 No.6 Fuel Oil (residual or bunker C)

8471 10.08 No.6 Fuel Oil (residual or bunker C)

353 11.39 No.6 Fuel Oil (residual or bunker C)

2317 14.35 No.6 Fuel Oil (residual or bunker C)

8650 10.29 No.6 Fuel Oil (residual or bunker C)

1850 9.74 No.6 Fuel Oil (residual or bunker C)

7721 8.74 No.6 Fuel Oil (residual or bunker C)

903 9.82 No.6 Fuel Oil (residual or bunker C)

7721 9.51 No.6 Fuel Oil (residual or bunker C)

1720 9.72 No.6 Fuel Oil (residual or bunker C)

527 14.24 No.2 Fuel Oil (distillate)

335 11.96 No.6 Fuel Oil (residual or bunker C)

9040 10.52 No.6 Fuel Oil (residual or bunker C)

1150 11.06 No.6 Fuel Oil (residual or bunker C)

600 13.64 No.6 Fuel Oil (residual or bunker C)

9040 10.52 No.6 Fuel Oil (residual or bunker C)

524 12.48 No.2 Fuel Oil (distillate)

524 12.48 No.2 Fuel Oil (distillate)

4074 10.49 No.6 Fuel Oil (residual or bunker C)

630 11.93 No.6 Fuel Oil (residual or bunker C)

1930 14.91 No.6 Fuel Oil (residual or bunker C)

6650 9.02 No.6 Fuel Oil (residual or bunker C)

600 13.64 No.6 Fuel Oil (residual or bunker C)

Page 559
Mercury_oil

4900 12.01 No.6 Fuel Oil (residual or bunker C)

527 14.24 No.2 Fuel Oil (distillate)

4000 9.50 No.6 Fuel Oil (residual or bunker C)

761 10.15 No.6 Fuel Oil (residual or bunker C)

514 11.68 No.6 Fuel Oil (residual or bunker C)

2300 10.31 No.6 Fuel Oil (residual or bunker C)

1173 9.39 No.6 Fuel Oil (residual or bunker C)

995 12.28 No.6 Fuel Oil (residual or bunker C)

1776 9.98 No.6 Fuel Oil (residual or bunker C)

9702 9.91 No.6 Fuel Oil (residual or bunker C),  other‐‐natural gas

3357 9.17 No.6 Fuel Oil (residual or bunker C),  other‐‐natural gas

4546 11.51 No.6 Fuel Oil (residual or bunker C),  other‐‐Natural Gas

4546 11.51 No.6 Fuel Oil (residual or bunker C),  other‐‐Natural Gas

4350 10.33 No.6 Fuel Oil (residual or bunker C),  other‐‐Natural Gas

Page 560
Mercury_oil

Fuel_Conc_lb/MMBtu Mercury ‐ ERT Mercury MW ‐ ERT Mercury ‐ ETTS Mercury MW ‐ ETTS

lb/MMBtu lb/MMBtu lb/MW lb/MMBtu lb/MW

1.10E‐06 6.66E‐09 6.48E‐08

2.39E‐05 9.31E‐09 9.06E‐08

1.77E‐08 2.03E‐08 2.45E‐07

2.64E‐06 2.48E‐08 2.49E‐07

1.60E‐07 2.55E‐08 2.64E‐07

2.55E‐08 2.83E‐07

2.56E‐06 2.88E‐08 3.17E‐07

5.67E‐07 3.28E‐08 3.33E‐07

3.52E‐08 3.42E‐07

1.59E‐06 2.70E‐08 3.97E‐07

5.42E‐06 4.41E‐08 3.98E‐07

3.80E‐08 4.00E‐07

1.59E‐06 3.06E‐08 4.20E‐07

1.59E‐06 2.89E‐08 4.31E‐07

1.10E‐06 5.00E‐08 5.27E‐07

9.40E‐08 5.85E‐08 5.93E‐07

6.37E‐08 5.94E‐08 6.01E‐07

6.53E‐08 6.29E‐07

6.55E‐08 6.52E‐07

1.00E‐07 7.17E‐08 7.26E‐07

1.10E‐06 7.37E‐08 7.43E‐07

1.11E‐06 6.67E‐08 7.59E‐07

5.47E‐06 5.41E‐08 7.77E‐07

1.12E‐07 7.55E‐08 7.77E‐07

1.04E‐06 8.11E‐08 7.89E‐07

1.04E‐05 1.05E‐07 9.18E‐07

1.01E‐07 9.88E‐07

1.04E‐05 1.05E‐07 9.96E‐07

3.66E‐07 8.82E‐08 1.26E‐06

1.07E‐07 1.28E‐06

8.56E‐08 1.33E‐07 1.40E‐06

1.04E‐06 1.39E‐07 1.54E‐06

4.11E‐08 1.19E‐07 1.63E‐06

8.45E‐08 1.57E‐07 1.65E‐06

3.90E‐07 1.36E‐07 1.70E‐06

3.90E‐07 1.36E‐07 1.70E‐06

5.32E‐08 2.20E‐07 2.31E‐06

2.15E‐08 1.96E‐07 2.33E‐06

1.61E‐06 1.61E‐07 2.40E‐06

1.71E‐06 2.88E‐07 2.60E‐06

4.11E‐08 2.19E‐07 2.99E‐06

Page 561
Mercury_oil

1.78E‐06 2.77E‐07 3.33E‐06

3.66E‐07 2.90E‐07 4.13E‐06

6.00E‐07 5.08E‐07 4.83E‐06

6.03E‐07 6.12E‐06

5.62E‐07 5.31E‐07 6.21E‐06

5.46E‐06 2.51E‐06 2.59E‐05

1.06E‐05 5.47E‐05 5.13E‐04

1.07E‐05 6.55E‐05 8.05E‐04

1.08E‐06 8.97E‐05 8.95E‐04

5.92E‐09 5.87E‐08

5.92E‐09 5.43E‐08

5.42E‐06 1.92E‐08 2.20E‐07

5.42E‐06 1.92E‐08 2.20E‐07

2.77E‐07 2.94E‐08 3.04E‐07

Page 562
Mercury_oil

Mercury ‐ CEMS Mercury ‐ Part II Mercury MW ‐ Part II Mercury ‐ min Mercury ‐ min

lb/MMBtu lb/MMBtu lb/MW lb/MMBtu lb/MW

6.66E‐09 6.48E‐08

9.31E‐09 9.06E‐08

2.03E‐08 2.45E‐07

2.48E‐08 2.49E‐07

2.55E‐08 2.64E‐07

2.55E‐08 2.83E‐07

2.88E‐08 3.17E‐07

3.28E‐08 3.33E‐07

3.52E‐08 3.42E‐07

2.70E‐08 3.97E‐07

4.41E‐08 3.98E‐07

3.80E‐08 4.00E‐07

3.06E‐08 4.20E‐07

2.89E‐08 4.31E‐07

5.00E‐08 5.27E‐07

5.85E‐08 5.93E‐07

5.94E‐08 6.01E‐07

6.53E‐08 6.29E‐07

6.55E‐08 6.52E‐07

7.17E‐08 7.26E‐07

7.37E‐08 7.43E‐07

6.67E‐08 7.59E‐07

5.41E‐08 7.77E‐07

7.55E‐08 7.77E‐07

8.11E‐08 7.89E‐07

1.05E‐07 9.18E‐07

1.01E‐07 9.88E‐07

1.05E‐07 9.96E‐07

1.26E‐07 1.22E‐06 1.26E‐07 1.22E‐06

8.82E‐08 1.26E‐06

1.07E‐07 1.28E‐06

1.33E‐07 1.40E‐06

1.39E‐07 1.54E‐06

1.19E‐07 1.63E‐06

1.57E‐07 1.65E‐06

1.36E‐07 1.70E‐06

1.36E‐07 1.70E‐06

2.20E‐07 2.31E‐06

1.96E‐07 2.33E‐06

1.61E‐07 2.40E‐06

2.88E‐07 2.60E‐06

2.19E‐07 2.99E‐06

Page 563
Mercury_oil

2.77E‐07 3.33E‐06

2.90E‐07 4.13E‐06

5.08E‐07 4.83E‐06

6.03E‐07 6.12E‐06

5.31E‐07 6.21E‐06

2.51E‐06 2.59E‐05

5.47E‐05 5.13E‐04

6.55E‐05 8.05E‐04

8.97E‐05 8.95E‐04

5.92E‐09 5.87E‐08

5.92E‐09 5.43E‐08

1.92E‐08 2.20E‐07

1.92E‐08 2.20E‐07

2.94E‐08 3.04E‐07

Page 564
Mercury_oil

control_group_1 control_type_1 install_date_1

PM control Electrostatic precipitator, cold side, w/o flue gas conditioning 01‐Apr‐74

PM control Electrostatic precipitator, cold side, w/o flue gas conditioning 01‐Jun‐72

PM control Multiple cyclone 01‐Dec‐57

PM control Multiple cyclone 01‐Nov‐74

PM control Multiple cyclone 01‐Nov‐77

PM control Electrostatic precipitator, cold side, w/o flue gas conditioning 01‐May‐07

PM control Electrostatic precipitator, cold side, w/o flue gas conditioning 01‐Jun‐71

PM control Electrostatic precipitator, cold side, w/o flue gas conditioning 01‐Jun‐71

PM control Electrostatic precipitator, cold side, w/o flue gas conditioning 01‐Jun‐07

PM control Multiple cyclone

PM control Multiple cyclone 01‐Dec‐71

PM control Multiple cyclone 01‐Oct‐76

PM control Electrostatic precipitator, cold side, w/o flue gas conditioning 01‐Nov‐60

NOx control Selective Catalytic Reduction 01‐Jun‐95

PM control Multiple cyclone 01‐Dec‐80

PM control Electrostatic precipitator, cold side, w/o flue gas conditioning 01‐Sep‐57

PM control Multiple cyclone 01‐Jun‐81

PM control Multiple cyclone 01‐Mar‐58

Page 565
Mercury_oil

PM control Multiple cyclone 01‐Apr‐67

NOx control Selective Noncatalytic Reduction 01‐Oct‐08

PM control Electrostatic precipitator, cold side, w/o flue gas conditioning 01‐Dec‐53

NOx control Selective Noncatalytic Reduction 01‐Oct‐95

PM control Electrostatic precipitator, hot side, w/o flue gas conditioning 01‐Jun‐74

Page 566
Mercury_oil

control_group_2 control_type_2 install_date_2

PM control Multiple cyclone 01‐Dec‐74

Page 567
Mercury_oil

PM control Electrostatic precipitator, hot side, w/o flue gas conditioning 01‐Aug‐54

PM control Electrostatic precipitator, cold side, w/o flue gas conditioning 01‐Jun‐62

Page 568
Mercury_oil

control_group_3 control_type_3 install_date_3 control_group_4 control_type_4 install_date_4

Page 569
Mercury_oil

control_group_5 control_type_5 install_date_5 control_group_6 control_type_6 install_date_6

Page 571
Mercury_oil

control_group_7 control_type_7 install_date_7 control_group_8 control_type_8 install_date_8

Page 573
Mercury_oil

control_group_9 control_type_9 install_date_9 control_group_10 control_type_10 install_date_10

Page 575
Mercury_oil

control_group_11 control_type_11 install_date_11 control_group_12 control_type_12

Page 577
Mercury_oil

install_date_12

Page 579
Northport

ORIS/Facility/Unit 2516

Runs Unit2

1 5.3728E-08

2 7.5823E-08

3 6.9000E-08

4 7.3380E-08

5 4.5941E-08

6 7.1151E-08

7

8

9

10

11

12

13

14

15

16

17

18

19

20

21

22

23

24

25

26

27

28

29

30

31

32

33

34

35

ni = number test runs = 6

Total Number of sources = 1

n =Total # test runs = 6

1

N

df n       

1

N

i

i

n





N

1

N

i

i

n





N
5

This step is for QC only:

means 6.48E-08

6.48E-08

Mean =

Pooled Variance = 1.4626E-16

m= number future runs = 3

Term1 0.5000

Term2 7.3131E-17

Squared root Term2 8.55165E-09

NOTE: the pvalue for the t-statistic is calculated as: 2*alpha, where 1-alpha is desired confidence, so if 99% 

t-statistic

= quantile t-distribution with 

df degrees of freedom at 

.99 confidence level = 3.364929997

UPL POOLED VARIANCE = 9.36127E-08

1

i 1 i

df n 

        

d f t

 2 2

1

1

1

n

i

i

s x X

n 

   

1 1

1 N ni

ij

i j

X x

n  

 

1 1

n m



s

2 1 1

n m

      

1

1

N

i

i

df n 

        

d f t

2 1 1

s

n m

      

1

1 ni

i ik

i k

x x

n 

 

2

,

1 1 Xt s df p n m

       
Emissions (lb/MW)
confidence is desired then alpha=0.01 and 2*alpha=2*(0.01)
X t  df p,
2

,

1 1 X df p t s

n m

       
Northport

ORIS/Facility/Unit 2516

Runs Unit2

1 5.5200E‐09

2 7.7900E‐09

3 7.0890E‐09

4 7.5390E‐09

5 4.7200E‐09

6 7.3100E‐09

7

8

9

10

11

12

13

14

15

16

17

18

19

20

21

22

23

24

25

26

27

28

29

30

31

32

33

34

35

ni = number test runs = 6

Total Number of sources = 1

n =Total # test runs = 6

1

N

i

i

n





N
5

This step is for QC only:

means 6.66E-09

6.66E-09

Mean =

Pooled Variance = 1.5439E-18

m= number future runs = 3

Term1 0.5000

Term2 7.7193E-19

Squared root Term2 8.78594E-10

NOTE: the pvalue for the t-statistic is calculated as: 2*alpha, where 1-alpha is desired confidence, so if 99% c

t-statistic

= quantile t-distribution with 

df degrees of freedom at 

.99 confidence level = 3.36

UPL POOLED VARIANCE = 9.6177E-09

 2 2

1

1

1

n

i

i

s x X

n 

   

1 1

1 N ni

ij

i j

X x

n  

 

1 1

n m



s

2 1 1

n m

      

1

1

N

i

i

df n 

        

d f t

2 1 1

s

n m

      

1

1 ni

i ik

i k

x x

n 

 

2 1 1 X df p t s        
2

,

1 1 Xt s df p n m

       
Emissions (lb/MMBtu)
confidence is desired then alpha=0.01 and 2*alpha=2*(0.01)
Northport Northport

ORIS/Facility/Unit 2516 2516

Test Averages Unit2 Unit3

1 6.483698E-08 9.057516E-08

2

3

4

5

6

7

8

9

10

11

12

13

14

15

16

17

18

19

20

21

22

23

24

25

26

27

28

29

30

31

32

33

34

35

ni = number test runs = 1 1

Total Number of sources = 7

n =Total # test runs = 7

1

N

i

i

n





N
6

This step is for QC only:

means 6.48E-08 9.06E-08

2.28E-07

Mean =

Pooled Variance = 1.3156E-14

m= number future runs = 1

Term1 1.1429

Term2 1.5036E-14

Squared root Term2 1.2262E-07

NOTE: the pvalue for the t-statistic is calculated as: 2*alpha, where 1-alpha is desired confidence, so if 99% c

t-statistic

= quantile t-distribution with 

df degrees of freedom at 

.99 confidence level = 3.14

 2 2

1

1

1

n

i

i

s x X

n 

   

1 1

1 N ni

ij

i j

X x

n  

 

1 1

n m



s

2 1 1

n m

      

1

1

N

i

i

df n 

        

d f t

2 1 1

s

n m

      

1

1 ni

i ik

i k

x x

n 

 

2   1 1
UPL POOLED VARIANCE = 6.1287E-07

2

,

1 1 Xt s df p n m

       
William F Wyman Waiau C D McIntosh Jr Honolulu

1507 766 676 764

1 W7 Unit 2 H9

2.453157E-07 2.487652E-07 2.636812E-07 2.828825E-07

1111

Emissions (lb/MW)
2.45E-07 2.49E-07 2.64E-07 2.83E-07

Skewness =

SE Skewness

Skewness Test

Kurtosis =

SE Kurtosis

Kurtosis Test

Number of test runs =

confidence is desired then alpha=0.01 and 2*alpha=2*(0.01)
Sewaren Generating Station

2411

SEWU3E3PT3OS0

3.965686E-07

1
3.97E-07

Distribution of Normal 

Tests Distribution of Log Tests

-2.80E-01 #DIV/0!

0.93 #DIV/0!

normal #DIV/0!

-3.31E-01 #DIV/0!

1.85 #DIV/0!

normal #DIV/0!

7 0 REsult: normal
East River Suwannee River Plant

ORIS/Facility/Unit 2493 638

Test Averages 60 Suw_Cfg_1

1 1.0500E-05 4.5011E-05

2

3

4

5

6

7

8

9

10

11

12

13

14

15

16

17

18

19

20

21

22

23

24

25

26

27

28

29

30

31

32

33

34

35

ni = number test runs = 1 1

Total Number of sources = 7

n =Total # test runs = 7

1

N

i

i

n





N
6

This step is for QC only:

means 1.05E-05 4.50E-05

6.17E-05

Mean =

Pooled Variance = 8.1426E-10

m= number future runs = 1

Term1 1.1429

Term2 9.3059E-10

Squared root Term2 3.05055E-05

NOTE: the pvalue for the t-statistic is calculated as: 2*alpha, where 1-alpha is desired confidence, so if 99% c

t-statistic

= quantile t-distribution with 

df degrees of freedom at 

.99 confidence level = 3.14

 2 2

1

1

1

n

i

i

s xX

n 

   

1 1

1 N ni

ij

i j

X x

n  

 

1 1

n m



s

2 1 1

n m

      

1

1

N

i

i

df n 

        

d f t

2 1 1

s

n m

      

1

1 ni

i ik

i k

x x

n 

 

2   1 1
UPL POOLED VARIANCE = 0.000157559

2

,

1 1 Xt s df p n m

       
C D McIntosh Jr BL England Manatee Northside Generating Station

676 2378 6042 667

Unit 2 3 PMT01 3

5.7150E-05 5.9031E-05 8.1140E-05 8.5359E-05

111 1

Emissions (lb/MMBtu)
5.72E-05 5.90E-05 8.11E-05 8.54E-05

Skewness =

SE Skewness

Skewness Test

Kurtosis =

SE Kurtosis

Kurtosis Test

Number of test runs =

confidence is desired then alpha=0.01 and 2*alpha=2*(0.01)
Suwannee River Plant

638

Suw_Cfg_2

9.3639E-05

1
9.36E-05

Distribution of Normal Tests Distribution of Log Tests

-8.60E-01 #DIV/0!

0.93 #DIV/0!

normal #DIV/0!

5.43E-01 #DIV/0!

1.85 #DIV/0!

normal #DIV/0!

7 0 REsult: normal
East River

ORIS/Facility/Unit 2493

Runs 60

1 1.0600E‐05 BDL

2 1.0600E‐05 BDL

3 1.0300E‐05 BDL

4

5

6

7

8

9

10

11

12

13

14

15

16

17

18

19

20

21

22

23

24

25

26

27

28

29

30

31

32

33

34

35

ni = number test runs = 3

Total Number of sources = 1

n =Total # test runs = 3

1

N

i

i

n





N
2

This step is for QC only:

means 1.05E-05

1.05E-05

Mean =

Pooled Variance = 3.0000E-14

m= number future runs = 3

Term1 0.6667

Term2 2.0000E-14

Squared root Term2 1.41421E-07

NOTE: the pvalue for the t-statistic is calculated as: 2*alpha, where 1-alpha is desired confidence, so if 99% c

t-statistic

= quantile t-distribution with 

df degrees of freedom at 

.99 confidence level = 6.96

UPL POOLED VARIANCE = 1.1485E-05

 2 2

1

1

1

n

i

i

s xX

n 

   

1 1

1 N ni

ij

i j

X x

n  

 

1 1

n m



s

2 1 1

n m

      

1

1

N

i

i

df n 

        

d f t

2 1 1

s

n m

      

1

1 ni

i ik

i k

x x

n 

 

2

,

1 1 Xt s df p n m

       
MDL x 3 3.0900E-05

  n m
Emissions (lb/MMBtu)
confidence is desired then alpha=0.01 and 2*alpha=2*(0.01)
East River Suwannee River Plant

ORIS/Facility/Unit 2493 638

Test Averages 60 Suw_Cfg_1

1 1.5661E-04 4.5737E-04

2

3

4

5

6

7

8

9

10

11

12

13

14

15

16

17

18

19

20

21

22

23

24

25

26

27

28

29

30

31

32

33

34

35

ni = number test runs = 1 1

Total Number of sources = 7

n =Total # test runs = 7

1

N

i

i

n





N
6

This step is for QC only:

means 1.57E-04 4.57E-04

6.27E-04

Mean =

Pooled Variance = 7.6932E-08

m= number future runs = 1

Term1 1.1429

Term2 8.7922E-08

Squared root Term2 0.000296516

NOTE: the pvalue for the t-statistic is calculated as: 2*alpha, where 1-alpha is desired confidence, so if 99% c

t-statistic

= quantile t-distribution with 

df degrees of freedom at 

.99 confidence level = 3.14

 2 2

1

1

1

n

i

i

s x X

n 

   

1 1

1 N ni

ij

i j

X x

n  

 

1 1

n m



s

2 1 1

n m

      

1

1

N

i

i

df n 

        

d f t

2 1 1

s

n m

      

1

1 ni

i ik

i k

x x

n 

 

2   1 1
UPL POOLED VARIANCE = 1.5588E-03

2

,

1 1 Xt s df p n m

       
BL England C D McIntosh Jr rthside Generating Stat Manatee

2378 676 667 6042

3 Unit 2 3 PMT01

5.7363E-04 5.9019E-04 7.7061E-04 8.3455E-04

1111

Emissions (lb/MW)
5.74E-04 5.90E-04 7.71E-04 8.35E-04

Skewness =

SE Skewness

Skewness Test

Kurtosis =

SE Kurtosis

Kurtosis Test

Number of test runs =

confidence is desired then alpha=0.01 and 2*alpha=2*(0.01)
Martin

6043

PMR02

1.0060E-03

1
1.01E-03

Distribution of Normal Tests Distribution of Log Tests

-4.68E-01 #DIV/0!

0.93 #DIV/0!

normal #DIV/0!

3.33E-01 #DIV/0!

1.85 #DIV/0!

normal #DIV/0!

7 0 REsult: normal
East River

ORIS/Facility/Unit 2493

Runs 60

1 1.5810E‐04 BDL

2 1.5810E‐04 BDL

3 1.5362E‐04 BDL

4

5

6

7

8

9

10

11

12

13

14

15

16

17

18

19

20

21

22

23

24

25

26

27

28

29

30

31

32

33

34

35

ni = number test runs = 3

Total Number of sources = 1

n =Total # test runs = 3

N   

1

N

i

i

n





N
2

This step is for QC only:

means 1.57E-04

1.57E-04

Mean =

Pooled Variance = 6.6737E-12

m= number future runs = 3

Term1 0.6667

Term2 4.4491E-12

Squared root Term2 2.1093E-06

NOTE: the pvalue for the t-statistic is calculated as: 2*alpha, where 1-alpha is desired confidence, so if 99% c

t-statistic

= quantile t-distribution with 

df degrees of freedom at 

.99 confidence level = 6.964556734

UPL POOLED VARIANCE = 0.000171298

1

1

N

i

i

df n 

        

d f t

 2 2

1

1

1

n

i

i

s xX

n 

   

1 1

1 N ni

ij

i j

X x

n  

 

1 1

n m



2 1 1

s

n m

      

d f t

2 1 1

s

n m

      

1

1 ni

i ik

i k

x x

n 

 

2

,

1 1 Xt s df p n m

       
MDL x 3 4.6087E-04

df p, n m    
1

3

Emissions (lb/MW)
2

confidence is desired then alpha=0.01 and 2*alpha=2*(0.01)
2

,

1 1 Xt s df p n m

       
primary_fuel ORIS code Plant Name physical_state Unit Number

oil 2493 East River NY 60

oil 2500 Ravenswood NY 30

oil 638 Suwannee River Plant FL Suw_Cfg_1

oil 676 C D McIntosh Jr FL Unit 2

oil 667 Northside Generating Station FL 3

oil 638 Suwannee River Plant FL Suw_Cfg_2

oil 2517 Port Jefferson NY Unit4

oil 765 Kahe HI K3

oil 2500 Ravenswood NY 20

oil 991 Eagle Valley IN 2

oil 3148 PPL Martins Creek PA U3

oil 991 Eagle Valley IN 1

oil 2516 Northport NY Unit3

oil 766 Waiau HI W7

oil 3148 PPL Martins Creek PA U4

oil 548 Norwalk - Norwalk Power LLC CT 2

oil 2480 Danskammer Generating Station NY 1

oil 990 Harding Street IN 09

oil 8002 Newington Station NH nt1

oil 764 Honolulu HI H8

oil 765 Kahe HI K1

oil 562 Middletown CT 2

oil 766 Waiau HI W6

oil 764 Honolulu HI H9

oil 2480 Danskammer Generating Station NY 2

oil 990 Harding Street IN 10

oil 546 Montville Station CT 5

oil 2411 PSEG Sewaren Generating Station NJ SEWU3E3PT3OS0

oil 3181 Mitchell Power Station PA 003

oil 1564 Vienna Generating Station MD Unit 8

oil 8906 Astoria Generating Station NY A-S0003

oil 2516 Northport NY Unit2

oil 2411 PSEG Sewaren Generating Station NJ SEWU4E4PT4OS0

oil 3809 Yorktown VA Unit 3

oil 638 Suwannee River Plant FL Suw_Cfg_3

oil 3804 Possum Point VA Unit 5

oil 3181 Mitchell Power Station PA 001

oil 1642 West Springfield MA Unit 3

oil 2411 PSEG Sewaren Generating Station NJ SEWU1E1PT1OS0

oil 3319 Jefferies SC J2

oil 1682 Cleary-Flood Generating Station MA 8

oil 715 McManus GA Unit 1

oil 3161 Eddystone Generating Station PA Unit 3

oil 3161 Eddystone Generating Station PA Unit 4

oil 6042 Manatee FL PMT01

oil 1507 William F Wyman ME 2

oil 6043 Martin FL PMR02

oil 6042 Manatee FL PMT02

oil 617 Port Everglades FL PPE03

oil 8054 Gerald Andrus MS 001

oil 617 Port Everglades FL PPE04

oil 621 Turkey Point FL PTF01
oil 621 Turkey Point FL PTF02

oil 1507 William F Wyman ME 1

oil 6043 Martin FL PMR01

oil 2050 Baxter Wilson MS 001

oil 3159 Cromby Generating Station PA Unit 2
Unit's Boiler Count Unit Type Total_Capacity_MWe Total_max_heat_input

MW MMBtu/hr

1 Conventional Boiler 129.4 1930

1 Conventional Boiler 979 9702

1 Conventional Boiler 31 315

1 Conventional Boiler 114.7 1184.5

1 Conventional Boiler 538 4857

1 Conventional Boiler 31 353

1 Conventional Boiler 190 1850

1 Conventional Boiler 92 892

1 Conventional Boiler 366 3357

1 Conventional Boiler 42 524

1 Conventional Boiler 883.5 7721

1 Conventional Boiler 42 524

1 Conventional Boiler 375 3650

1 Conventional Boiler 92 921.6

1 Conventional Boiler 812 7721

1 Conventional Boiler 178 1776

1 Conventional Boiler 65.3 650

1 Conventional Boiler 37 527

1 Conventional Boiler 421 4350

1 Conventional Boiler 56 589

1 Conventional Boiler 92 903

1 Conventional Boiler 125 1173.27

1 Conventional Boiler 58 637.4

1 Conventional Boiler 57 631.5

1 Conventional Boiler 67.5 650

1 Conventional Boiler 37 527

1 Conventional Boiler 81 995

1 Conventional Boiler 108.8 1600

1 Conventional Boiler 44 600

1 Conventional Boiler 161.5 2317

1 Conventional Boiler 388.25 4074

1 Conventional Boiler 375 3650

1 Conventional Boiler 124 1700

1 Conventional Boiler 843 8883

1 Conventional Boiler 75 761

1 Conventional Boiler 840 8471

1 Conventional Boiler 44 600

1 Conventional Boiler 104 1150

1 Conventional Boiler 104 1550

1 Conventional Boiler 44 514

1 Conventional Boiler 28.0 335.0

1 Conventional Boiler 45

1 Conventional Boiler 395 4546

1 Conventional Boiler 395 4546

1 Conventional Boiler 841 8650

1 Conventional Boiler 52.8 630

1 Conventional Boiler 859 9040

1 Conventional Boiler 854 8650

1 Conventional Boiler 395 4000

1 Conventional Boiler 737 6650

1 Conventional Boiler 395 4000

1 Conventional Boiler 421 4000
1 Conventional Boiler 407 4000

1 Conventional Boiler 52.2 630

1 Conventional Boiler 859 9040

1 Conventional Boiler 408 4900

1 Conventional Boiler 223 2300
Testing_Heat_input_MMBTTesting_MW_Gross Capacity_Factor

820.3 73.0 0.56

6234.8 920.6 0.94

375.2 33.4 1.08

991.3 101.7 0.89

5668.2 504.2 0.94

403.9 35.9 1.16

1677.3 149.2 0.79

731.5 80.4 0.87

2353.4 324.2 0.89

402.6 30.4 0.72

3898.7 375.4 0.42

402.6 30.4 0.72

2568.3 228.5 0.61

843.8 86.8 0.94

3962.8 381.6 0.47

535.1 45.4 0.26

523.1 40.2 0.62

333.3 22.7 0.61

1995.3 162.3 0.39

547.6 52.0 0.93

825.0 85.4 0.93

702.3 48.8 0.39

554.3 52.3 0.90

564.7 51.6 0.91

510.5 39.3 0.58

216.2 13.7 0.37

817.5 67.8 0.84

516.5 38.9 0.36

337.2 30.0 0.68

691.5 60.2 0.37

947.1 87.3 0.22

3660.0 325.6 0.87

398.1 29.9 0.24

3610.1 339.5 0.40

470.4 41.8 0.56

3847.3 352.4 0.42

337.2 30.0 0.68

582.5 37.0 0.36

493.4 32.6 0.31

332.2 29.5 0.67

645.8 57.4 1.28

4982.1 485.9 1.23

4982.1 485.9 1.23

7432.3 797.7 0.95

278.9 23.4 0.44

7205.1 802.1 0.93

7509.3 798.1 0.93

3466.9 376.2 0.95

4719.2 530.2 0.72

3507.9 377.7 0.96

3520.7 400.0 0.95
3537.1 392.0 0.96

301.2 22.2 0.42

7270.0 803.2 0.94

2906.8 311.8 0.76

668.1 55.2 0.25
Fuel types Fuel_Cl_lb/MMBtu Fuel_F_lb/MMBtu

lb/MMBtu lb/MMBtu

No.6 Fuel Oil (residual or bunker C) 0.001060689

No.6 Fuel Oil (residual or bunker C), other--Natural Gas 0.005329354 0.000532935

No.6 Fuel Oil (residual or bunker C) 0.003170649 0.000792662

No.6 Fuel Oil (residual or bunker C) 0.001661005 0.000533618

No.6 Fuel Oil (residual or bunker C)

No.6 Fuel Oil (residual or bunker C) 0.010787753 0.000669002

No.6 Fuel Oil (residual or bunker C) 0.000516823 0.000516823

No.6 Fuel Oil (residual or bunker C)

No.6 Fuel Oil (residual or bunker C), other--Natural Gas 0.007253199 0.000532935

No.2 Fuel Oil (distillate) 0.000385426 0.00015417

No.6 Fuel Oil (residual or bunker C) 0.001075693 0.000903176

No.2 Fuel Oil (distillate) 0.000385426 0.00015417

No.6 Fuel Oil (residual or bunker C) 0.00190834 0.000515768

No.6 Fuel Oil (residual or bunker C) 0.00703606

No.6 Fuel Oil (residual or bunker C) 0.001780583 0.000906208

No.6 Fuel Oil (residual or bunker C) 0.004492441

No.6 Fuel Oil (residual or bunker C)

No.2 Fuel Oil (distillate) 0.001953649 0.000157323

No.6 Fuel Oil (residual or bunker C), other--Natural Gas

No.6 Fuel Oil (residual or bunker C)

No.6 Fuel Oil (residual or bunker C)

No.6 Fuel Oil (residual or bunker C) 0.001125803

No.6 Fuel Oil (residual or bunker C) 0.005232862

No.6 Fuel Oil (residual or bunker C)

No.6 Fuel Oil (residual or bunker C)

No.2 Fuel Oil (distillate) 0.001953649 0.000157323

No.6 Fuel Oil (residual or bunker C) 0.001254288

No.6 Fuel Oil (residual or bunker C) 0.00331595 0.001040777

No.6 Fuel Oil (residual or bunker C) 0.000406719 0.000721553

No.6 Fuel Oil (residual or bunker C) 0.010911075 0.000818331

No.6 Fuel Oil (residual or bunker C) 0.005327651 0.000958977

No.6 Fuel Oil (residual or bunker C) 0.003797851 0.000515312

No.6 Fuel Oil (residual or bunker C) 0.004855617 0.000528625

No.6 Fuel Oil (residual or bunker C) 0.005242103 0.000888779

No.6 Fuel Oil (residual or bunker C) 0.005703452 0.000669156

No.6 Fuel Oil (residual or bunker C) 0.004666283 0.002192161

No.6 Fuel Oil (residual or bunker C) 0.000406719 0.000721553

No.6 Fuel Oil (residual or bunker C)

No.6 Fuel Oil (residual or bunker C) 0.002786339 0.000105893

No.6 Fuel Oil (residual or bunker C) 0.018980585 0.010810811

No.6 Fuel Oil (residual or bunker C)

No.6 Fuel Oil (residual or bunker C), other--Natural Gas 0.016199685 0.000612204

No.6 Fuel Oil (residual or bunker C), other--Natural Gas 0.016199685 0.000612204

No.6 Fuel Oil (residual or bunker C) 0.011544944 0.004382022

No.6 Fuel Oil (residual or bunker C) 0.009180328 0.003224044

No.6 Fuel Oil (residual or bunker C) 0.005783784 0.002162162

No.6 Fuel Oil (residual or bunker C) 0.008146067 0.004269663

No.6 Fuel Oil (residual or bunker C) 0.013555556 0.004222222

No.6 Fuel Oil (residual or bunker C) 0.015028249 0.011299435

No.6 Fuel Oil (residual or bunker C) 0.006629834 0.004309392

No.6 Fuel Oil (residual or bunker C) 0.005978261 0.003913043
No.6 Fuel Oil (residual or bunker C) 0.006010929 0.003825137

No.6 Fuel Oil (residual or bunker C) 0.005524862 0.003756906

No.6 Fuel Oil (residual or bunker C) 0.004254054 0.002162162

No.6 Fuel Oil (residual or bunker C) 0.006587368 0.008522727

No.6 Fuel Oil (residual or bunker C)
Chlorine - ERT Chlorine MW - ERT Chlorine - ETTS HCN - ERT HCN MW - ERT

lb/MMBtu lb/MW lb/MMBtu lb/MMBtu lb/MW

0.000571407
HCN - ETTS HCN MW - ETTS HCl method HCl emissions HCl method

lb/MMBtu lb/MW lb/MMBtu lb/MMBtu lb/MW

0.0000018 ETTS 1.030000E-05 99.03% ETTS

2.83645E-06 ERT 1.378998E-04 97.41% ERT

0.0000539 ERT 3.180656E-04 89.97% ERT

0.0005 ERT 1.565651E-04 90.57%

0.000127 ERT 9.679300E-04 ERT

0.000035 ERT 7.354597E-04 93.18% ERT

3.52667E-06 ERT 2.465589E-04 52.29% ERT

0.0000195 0.000176968 ERT 2.421245E-04 ERT

3.58416E-06 ERT 2.376048E-04 96.72% ERT

2.67232E-05 ERT 9.756244E-05 74.69% ERT

0.000018 ERT 8.767726E-04 18.49% ERT

2.67232E-05 ERT 9.756244E-05 74.69% ERT

3.21333E-06 ERT 2.159362E-04 88.68% ERT

0.000029 0.000281971 ERT 1.468945E-04 97.91% ERT

0.0000194 ERT 9.405369E-04 47.18% ERT

0.000882 0.010425281 ERT 1.447053E-03 67.79% ERT

ERT 8.253063E-04 ERT

2.06419E-05 ERT 1.004149E-04 94.86% ERT

0.0000499 0.000601012 ERT 2.328038E-03 ERT

0.0000307 ERT 7.679144E-04 ERT

0.0000339 0.000327985 ERT 9.678970E-05 ERT

0.000417842 0.006284389 ERT 9.100030E-04 19.17% ERT

0.0000304 0.000319979 ERT 3.333393E-04 93.63% ERT

0.0000327 ERT 6.934422E-04 ERT

ERT 7.995223E-04 ERT

2.81693E-05 0.000436642 ERT 1.248288E-04 93.61% ERT

0.000465 0.005551179 ERT 9.403814E-04 25.03% ERT

0.000157 ERT 1.442884E-03 56.49% ERT

0.000035 ERT 4.650011E-04 -14.33% ERT

0.00012 0.001372625 ERT 1.414224E-03 87.04% ERT

0.001119 ETTS 8.259467E-04 84.50% ERT

3.98833E-06 ERT 1.882404E-04 95.04% ERT

0.000209 ERT 8.970448E-04 81.53% ERT

0.0000489 ERT 6.726821E-04 87.17% ERT

0.00027 ERT 2.035239E-03 64.32% ERT

0.0000419 ERT 6.829257E-04 85.36% ERT

0.0000418 ERT 3.763751E-04 7.46% ERT

ERT 1.383395E-03 ERT

0.000178 ERT 3.421577E-03 -22.80% ERT

0.000016 ERT 2.489985E-02 -31.19% ERT

ERT 1.074803E-03

0.00137 ETTS 2.073333E-04 98.72%

0.00137 ETTS 2.073333E-04 98.72%

0.000320935 ETTS 2.695550E-04 97.67%

0.000589858 ETTS 3.701213E-04 95.97%

0.000185535 ETTS 5.582862E-04 90.35%

0.000706911 ETTS 5.720323E-04 92.98%

0.00065979 ETTS 6.078369E-04 95.52%

0.000106 ETTS 6.110000E-04 95.93%

0.000431446 ETTS 7.370894E-04 88.88%

0.000418111 ETTS 8.200264E-04 86.28%
0.000516596 ETTS 9.164668E-04 84.75%

0.000696076 ETTS 1.077222E-03 80.50%

0.000395275 ETTS 1.119665E-03 73.68%

0.000365 ETTS 3.523333E-03 46.51%

0.00344

6.6
HCl emissions Hydrogen Chloride - ERT Hydrogen Chloride MW - ERT

lb/MW lb/MMBtu lb/MW

1.536244E-04 1.536244E-04

9.339348E-04 1.378998E-04 9.339348E-04

3.383413E-03 3.180656E-04 3.383413E-03

1.565651E-04

1.029633E-02 9.679300E-04 1.029633E-02

7.823431E-03 7.354597E-04 7.823431E-03

2.622763E-03 2.465589E-04 2.622763E-03

2.200637E-03 2.421245E-04 2.200637E-03

1.725078E-03 2.376048E-04 1.725078E-03

1.217208E-03 9.756244E-05

9.109457E-03 8.767726E-04 9.109457E-03

1.293993E-03 9.756244E-05 1.293993E-03

2.297016E-03 2.159362E-04 2.297016E-03

1.428276E-03 1.468945E-04 1.428276E-03

9.771977E-03 9.405369E-04 9.771977E-03

1.714893E-02 1.447053E-03 1.714893E-02

1.073203E-02 8.253063E-04 1.073203E-02

1.473715E-03 1.004149E-04 1.473715E-03

2.840150E-02 2.328038E-03 2.840150E-02

8.099458E-03 7.679144E-04 8.099458E-03

9.364475E-04 9.678970E-05 9.364475E-04

1.311964E-02 9.100030E-04 1.311964E-02

3.508610E-03 3.333393E-04 3.508610E-03

7.579514E-03 6.934422E-04 7.579514E-03

1.039329E-02 7.995223E-04 1.039329E-02

1.974712E-03 1.248288E-04 1.974712E-03

1.128163E-02 9.403814E-04 1.128163E-02

2.053627E-02 1.442884E-03 2.053627E-02

4.946436E-03 4.650011E-04 4.946436E-03

1.623537E-02 1.414224E-03 1.623537E-02

8.971804E-03 8.261965E-04 8.971804E-03

2.002402E-03 1.882404E-04 2.002402E-03

1.177273E-02 8.970448E-04 1.177273E-02

7.136089E-03 6.726821E-04 7.136089E-03

2.164980E-02 2.035239E-03 2.164980E-02

7.542222E-03 6.829257E-04 7.542222E-03

4.003679E-03 3.763751E-04 4.003679E-03

2.178036E-02 1.383395E-03 2.178036E-02

5.129020E-02 3.421577E-03 5.129020E-02

1.983213E-01 2.489985E-02 1.983213E-01

8.45E-04

1.074803E-03
Hydrogen Chloride - ETTS Hydrogen Chloride MW - ETTS Hydrogen Fluoride - ERT

lb/MMBtu lb/MW lb/MMBtu

1.030000E-05 0.0000106

5.60215E-05

4.50107E-05

1.666667E-04 5.71505E-05

9.17237E-05

9.36395E-05

0.000105207

0.000131825

0.000170919

0.00010001

0.000123218

0.00010001

0.000131676

0.000149775

0.000141899

0.000125685

0.000116237

0.000103015

0.000133166

0.00015691

0.000172186

0.000118058

0.000163467

0.000160304

0.000143206

0.000128085

0.000172985

0.000172225

0.000234963

0.000248986

8.259467E-04 0.000268073

0.000279797

0.000229077

0.000287565

0.000287273

0.000391981

0.000504733

0.000382984

0.000968271

0.002275878

1.98E-04

0.00029717

2.073333E-04

2.073333E-04

2.695550E-04

3.701213E-04

5.582862E-04

5.720323E-04

6.078369E-04

6.110000E-04

7.370894E-04

8.200264E-04
Hydrogen Fluoride MW - ERT Hydrogen Fluoride - ETTS Hydrogen Fluoride MW - ETTS

lb/MW lb/MMBtu lb/MW

0.000158099 0.0000106 0.000158099

0.000379409

0.0004788

0.000590189 0.0001

0.000975708

0.000996087

0.001119142

0.001195702

0.001240922

0.001247747

0.001274023

0.001326459

0.001400697

0.001456281

0.00146718

0.001488871

0.001508762

0.00151187

0.001634117

0.001654982

0.001665909

0.001700245

0.001720597

0.001752168

0.001861455

0.002026227

0.002075744

0.002441518

0.002499413

0.002857771

0.002915753 0.0002682

0.00297633

0.003022813

0.003038456

0.003055858

0.004329029

0.005369084

0.00602975

0.014504257

0.018122203

0.000134

0.000134

8.11395E-05

0.000148909

9.55922E-05

0.000350372

0.000145666

0.000626

0.000156964

0.000208047
0.00014857

0.000134787

0.00215
Sulfur Dioxide - CEMS Sulfur Dioxide - ERT Sulfur Dioxide MW - ERT

lb/MMBtu lb/MMBtu lb/MW

0.028466667 0.213451255 2.270581598

0.023666667 0.042400747 0.287161624

0.980565746 10.43073996

0.040213333

0.164433333 1.658949247 17.64702497

0.985615236 10.48445377

0.653234012 6.948758041

0.393591981 3.576900073

0.0195 0.046777808 0.33962014

0.021662666

0.664785704 6.915797195

0.021662666 0.287316857

0.625530149 6.654058992

0.344361187 3.348271282

0.606625728 6.309331518

0.279197847 3.288227753

0.994610818 12.9350477

0.02135108 0.313354156

0.527

0.366243247 3.862893956

0.398353449 3.854098818

0.248748217 3.583374788

0.316194212 3.328146431

0.377874453 4.130271638

0.970630119 12.61432092

0.025356855 0.401129362

0.311768963 3.773018686

0.268325928 3.53364672

0.101366774 1.078286147

1.549690098 17.79103164

0.555284722 6.029949486

0.650131482 6.915754966

0.285964568 3.789178843

0.945848908 10.06616583

1.000776018 10.64572616

0.700000753 7.578660088

0.10060701 1.070204176

0.961437786 15.13701509

0.261947248 3.949414106

0.282207139 2.249236286

8.79E-01

2.022740218

0.861705744 8.025930595

0.670942584 8.129212307

0.564481959 5.070729852

0.91959554 8.653613892

1.039377901 9.600977227

1.043370074 9.28651364

1.035084675 9.631654705

0.993342324 8.742997502
0.910327293 8.213846011

0.709551459 9.708183237

0.676148273 6.113926678

1.013732875 9.451558598

0.077633333
Sulfur Dioxide - ETTS control_group_1

lb/MMBtu

PM control

PM control

NOx control

PM control

PM control

NOx control

PM control

PM control

PM control

PM control

PM control

PM control

PM control

NOx control

PM control

PM control

PM control

PM control

PM control

PM control

PM control
PM control

PM control

PM control
control_type_1 install_date_1 control_group_2

Electrostatic precipitator, cold side, w/o flue gas conditioning 11/1/1960

Electrostatic precipitator, cold side, w/o flue gas conditioning 6/1/1972

Selective Noncatalytic Reduction 10/1/1995 PM control

Electrostatic precipitator, cold side, w/o flue gas conditioning 6/1/1971

Electrostatic precipitator, hot side, w/o flue gas conditioning 6/1/1974

Selective Noncatalytic Reduction 10/1/2008 PM control

Electrostatic precipitator, cold side, w/o flue gas conditioning 6/1/1971

Electrostatic precipitator, cold side, w/o flue gas conditioning 12/1/1953

Multiple cyclone 12/1/1971

Electrostatic precipitator, cold side, w/o flue gas conditioning 4/1/1974

Multiple cyclone 11/1/1974

Multiple cyclone

Electrostatic precipitator, cold side, w/o flue gas conditioning 9/1/1957

Other (specify): Fuel Blending

Multiple cyclone 10/1/1976

Multiple cyclone 3/1/1958

Multiple cyclone 6/1/1981

Multiple cyclone 11/1/1977

Electrostatic precipitator, cold side, w/o flue gas conditioning 6/1/2007

Electrostatic precipitator, cold side, w/o flue gas conditioning 5/1/2007

Multiple cyclone 4/1/1967
Multiple cyclone 4/1/1968

Multiple cyclone 12/1/1957

Multiple cyclone 12/1/1980
control_type_2 install_date_2 control_group_3

Electrostatic precipitator, cold side, w/o flue gas conditioning 6/1/1962

Electrostatic precipitator, hot side, w/o flue gas conditioning 8/1/1954
control_type_3 install_date_3 control_group_4 control_type_4 install_date_4
control_group_5 control_type_5 install_date_5 control_group_6 control_type_6
install_date_6 control_group_7 control_type_7 install_date_7 control_group_8
control_type_8 install_date_8 control_group_9 control_type_9 install_date_9
control_group_10 control_type_10 install_date_10 control_group_11 control_type_11
install_date_11 control_group_12 control_type_12 install_date_12