Facility Name:DOW TEXAS OPERATIONS FREEPORT
Facility Identifier:
Facility Reporting Year:2019
Facility Location:
Address: 2301 N. BRAZOSPORT BLVD. BUILDING B-101
City: FREEPORT
State: TX
Postal Code: 77541

Facility Site Details:
CO2 equivalent emissions from facility subparts C-II, SS, and TT (metric tons):4,264,561.5
CO2 equivalent emissions from supplier subparts LL-QQ (metric tons):
Biogenic CO2 emissions from facility subparts C-II, SS, and TT (metric tons):0
Cogeneration Unit Emissions Indicator:N
GHG Report Start Date:2019-01-01
GHG Report End Date:2019-12-31
Description of Changes to Calculation Methodology:
Did you use an EPA-approved BAMM in this reporting year for Subpart C?
Did you use an EPA-approved BAMM in this reporting year for Subpart X?
Plant Code Indicator:N
Primary NAICS Code:325110
Second Primary NAICS Code:
Additional NAICS Codes: 325211
Parent Company Details:
Parent Company Name:DOW INC
Address:2030 Dow Center, Midland,  MI 48674
Percent Ownership Interest:100

Subpart C: General Stationary Fuel Combustion

Gas Information Details

Gas NameCarbon Dioxide
Gas Quantity3,040,890.2 (Metric Tons)
Own Result?Y

Gas NameBiogenic Carbon dioxide
Gas Quantity0 (Metric Tons)
Own Result?

Gas NameMethane
Gas Quantity71.35 (Metric Tons)
Own Result?

Gas NameNitrous Oxide
Gas Quantity8.859 (Metric Tons)
Own Result?

Unit Details:
Unit Name : PE6_F6510
Unit Type : F (Furnace)
Unit Description :
Individual Unit Details:
Use Ivt Indicator: Y
Maximum Rated Heat Input Capacity: 73 (mmBtu/hr)

Emission Details:
Annual CO2 mass emissions from sorbent: 0 (Metric Tons)
Annual Biogenic CO2 Emissions: 0 (metric tons)

Tier Fuel Details:
Fuel : Natural Gas (Weighted U.S. Average)
Tier Name : Tier 2 (Equation C-2a)
Tier Methodology Start Date : 2019-01-01
Tier Methodology End Date : 2019-12-31
Frequency of HHV determinations : Quarterly

Tier 2 Monthly HHV Details :
JanuaryFebruaryMarchAprilMayJuneJulyAugustSeptemberOctoberNovemberDecember
N N N N N N N N N N N N

Fuel Emission Details :
Total CO2 emissionsTotal CH4 emissionsTotal N2O emissionsTotal CH4 emissions CO2eTotal N2O emissions CO2e
1693.7 (Metric Tons) 0.03 (Metric Tons) 0.003 (Metric Tons) 0.8 (Metric Tons) 1 (Metric Tons)


Unit Name : USCP_TO850
Unit Type : TODF (Thermal oxidizer, direct fired, no heat recovery)
Unit Description :
Individual Unit Details:
Use Ivt Indicator: Y
Maximum Rated Heat Input Capacity: 10 (mmBtu/hr)

Emission Details:
Annual CO2 mass emissions from sorbent: 0 (Metric Tons)
Annual Biogenic CO2 Emissions: 0 (metric tons)

Tier Fuel Details:
Fuel : Natural Gas (Weighted U.S. Average)
Tier Name : Tier 2 (Equation C-2a)
Tier Methodology Start Date : 2019-01-01
Tier Methodology End Date : 2019-12-31
Frequency of HHV determinations : Quarterly

Tier 2 Monthly HHV Details :
JanuaryFebruaryMarchAprilMayJuneJulyAugustSeptemberOctoberNovemberDecember
N N N N N N N N N N N N

Fuel Emission Details :
Total CO2 emissionsTotal CH4 emissionsTotal N2O emissionsTotal CH4 emissions CO2eTotal N2O emissions CO2e
643.4 (Metric Tons) 0.01 (Metric Tons) 0.001 (Metric Tons) 0.3 (Metric Tons) 0.4 (Metric Tons)


Unit Name : CP-LHC9 Furnaces
Unit Type : OCS (Other combustion source)
Unit Description :
Other Unit Name :
Common Pipe Details:
Use Ivt Indicator: Y
Maximum Rated Heat Input Capacity: 599
Cumulative Maximum Rated Heat Input Capacity: 4787

Emission Details:
Annual Biogenic CO2 Emissions: 0 (metric tons)
Annual Fossil fuel based CO2 Emissions: 28230.6 (metric tons)

Tier Fuel Details:
Fuel : Natural Gas (Weighted U.S. Average)
Tier Name : Tier 2 (Equation C-2a)
Tier Methodology Start Date : 2019-01-01
Tier Methodology End Date : 2019-12-31
Frequency of HHV determinations : Quarterly

Tier 2 Monthly HHV Details :
JanuaryFebruaryMarchAprilMayJuneJulyAugustSeptemberOctoberNovemberDecember
N N N N N N N N N N N N

Fuel Emission Details :
Total CO2 emissionsTotal CH4 emissionsTotal N2O emissionsTotal CH4 emissions CO2eTotal N2O emissions CO2e
27910.1 (Metric Tons) 0.53 (Metric Tons) 0.053 (Metric Tons) 13.2 (Metric Tons) 15.7 (Metric Tons)


Fuel : Fuel Gas
Tier Name : Tier 3 (Equation C-5, gaseous fuel)
Tier Methodology Start Date : 2019-01-01
Tier Methodology End Date : 2019-12-31

Fuel Emission Details :
Total CO2 emissionsTotal CH4 emissionsTotal N2O emissionsTotal CH4 emissions CO2eTotal N2O emissions CO2e
466.2 (Metric Tons) 0.26 (Metric Tons) 0.052 (Metric Tons) 6.5 (Metric Tons) 15.6 (Metric Tons)

Carbon Content Substitute Data Information :
Total number of valid carbon content determinations : 12
Total number of carbon content substitute data values : 0
Frequency of carbon content determinations : Monthly
Total number of operating hours in the reporting year for which missing data substitution was used for fuel usage : 0

Molecular Weight Information :
Total number of valid molecular weight determinations : 12
Total number of molecular weight substitute data values : 0
Frequency of molecular weight determinations : Monthly
Molar Volume Constant (MVC) used : 849.5 (scf/kg-mole)

Unit Name : H-575 Heater
Unit Type : PRH (Process Heater)
Unit Description :
Individual Unit Details:
Use Ivt Indicator: Y
Maximum Rated Heat Input Capacity: 6.5 (mmBtu/hr)

Emission Details:
Annual CO2 mass emissions from sorbent: 0 (Metric Tons)
Annual Biogenic CO2 Emissions: 0 (metric tons)

Tier Fuel Details:
Fuel : Natural Gas (Weighted U.S. Average)
Tier Name : Tier 2 (Equation C-2a)
Tier Methodology Start Date : 2019-01-01
Tier Methodology End Date : 2019-12-31
Frequency of HHV determinations : Quarterly

Tier 2 Monthly HHV Details :
JanuaryFebruaryMarchAprilMayJuneJulyAugustSeptemberOctoberNovemberDecember
N N N N N N N N N N N N

Fuel Emission Details :
Total CO2 emissionsTotal CH4 emissionsTotal N2O emissionsTotal CH4 emissions CO2eTotal N2O emissions CO2e
78.0 (Metric Tons) 0.00 (Metric Tons) 0.000 (Metric Tons) 0 (Metric Tons) 0 (Metric Tons)


Unit Name : LHC9 OC2 TOX
Unit Type : TODF (Thermal oxidizer, direct fired, no heat recovery)
Unit Description :
Individual Unit Details:
Use Ivt Indicator: Y
Maximum Rated Heat Input Capacity: 11 (mmBtu/hr)

Emission Details:
Annual CO2 mass emissions from sorbent: 0 (Metric Tons)
Annual Biogenic CO2 Emissions: 0 (metric tons)

Tier Fuel Details:
Fuel : Natural Gas (Weighted U.S. Average)
Tier Name : Tier 3 (Equation C-5, gaseous fuel)
Tier Methodology Start Date : 2019-01-01
Tier Methodology End Date : 2019-12-31

Fuel Emission Details :
Total CO2 emissionsTotal CH4 emissionsTotal N2O emissionsTotal CH4 emissions CO2eTotal N2O emissions CO2e
1835.6 (Metric Tons) 0.04 (Metric Tons) 0.004 (Metric Tons) 0.9 (Metric Tons) 1.1 (Metric Tons)

Carbon Content Substitute Data Information :
Total number of valid carbon content determinations : 12
Total number of carbon content substitute data values : 0
Frequency of carbon content determinations : Monthly
Total number of operating hours in the reporting year for which missing data substitution was used for fuel usage : 0

Molecular Weight Information :
Total number of valid molecular weight determinations : 12
Total number of molecular weight substitute data values : 0
Frequency of molecular weight determinations : Monthly
Molar Volume Constant (MVC) used : 849.5 (scf/kg-mole)

Fuel : Fuel Gas
Tier Name : Tier 3 (Equation C-5, gaseous fuel)
Tier Methodology Start Date : 2019-01-01
Tier Methodology End Date : 2019-12-31

Fuel Emission Details :
Total CO2 emissionsTotal CH4 emissionsTotal N2O emissionsTotal CH4 emissions CO2eTotal N2O emissions CO2e
573.7 (Metric Tons) 0.93 (Metric Tons) 0.186 (Metric Tons) 23.2 (Metric Tons) 55.4 (Metric Tons)

Carbon Content Substitute Data Information :
Total number of valid carbon content determinations : 12
Total number of carbon content substitute data values : 0
Frequency of carbon content determinations : Monthly
Total number of operating hours in the reporting year for which missing data substitution was used for fuel usage : 0

Molecular Weight Information :
Total number of valid molecular weight determinations : 12
Total number of molecular weight substitute data values : 0
Frequency of molecular weight determinations : Monthly
Molar Volume Constant (MVC) used : 849.5 (scf/kg-mole)

Unit Name : PMDI_F621
Unit Type : F (Furnace)
Unit Description :
Individual Unit Details:
Use Ivt Indicator: Y
Maximum Rated Heat Input Capacity: 190 (mmBtu/hr)

Emission Details:
Annual CO2 mass emissions from sorbent: 0 (Metric Tons)
Annual Biogenic CO2 Emissions: 0 (metric tons)

Tier Fuel Details:
Fuel : Natural Gas (Weighted U.S. Average)
Tier Name : Tier 2 (Equation C-2a)
Tier Methodology Start Date : 2019-01-01
Tier Methodology End Date : 2019-12-31
Frequency of HHV determinations : Quarterly

Tier 2 Monthly HHV Details :
JanuaryFebruaryMarchAprilMayJuneJulyAugustSeptemberOctoberNovemberDecember
N N N N N N N N N N N N

Fuel Emission Details :
Total CO2 emissionsTotal CH4 emissionsTotal N2O emissionsTotal CH4 emissions CO2eTotal N2O emissions CO2e
39210.6 (Metric Tons) 0.74 (Metric Tons) 0.074 (Metric Tons) 18.5 (Metric Tons) 22 (Metric Tons)


Unit Name : PMDI_TO BU520
Unit Type : TODF (Thermal oxidizer, direct fired, no heat recovery)
Unit Description :
Individual Unit Details:
Use Ivt Indicator: Y
Maximum Rated Heat Input Capacity: 25 (mmBtu/hr)

Emission Details:
Annual CO2 mass emissions from sorbent: 0 (Metric Tons)
Annual Biogenic CO2 Emissions: 0 (metric tons)

Tier Fuel Details:
Fuel : Natural Gas (Weighted U.S. Average)
Tier Name : Tier 2 (Equation C-2a)
Tier Methodology Start Date : 2019-01-01
Tier Methodology End Date : 2019-12-31
Frequency of HHV determinations : Quarterly

Tier 2 Monthly HHV Details :
JanuaryFebruaryMarchAprilMayJuneJulyAugustSeptemberOctoberNovemberDecember
N N N N N N N N N N N N

Fuel Emission Details :
Total CO2 emissionsTotal CH4 emissionsTotal N2O emissionsTotal CH4 emissions CO2eTotal N2O emissions CO2e
3625.2 (Metric Tons) 0.07 (Metric Tons) 0.007 (Metric Tons) 1.7 (Metric Tons) 2 (Metric Tons)


Unit Name : LHC7_H1 Furnace
Unit Type : F (Furnace)
Unit Description :
Individual Unit Details:
Use Ivt Indicator: Y
Maximum Rated Heat Input Capacity: 514 (mmBtu/hr)

Emission Details:
Annual CO2 mass emissions from sorbent: 0 (Metric Tons)
Annual Biogenic CO2 Emissions: 0 (metric tons)

Tier Fuel Details:
Fuel : Natural Gas (Weighted U.S. Average)
Tier Name : Tier 2 (Equation C-2a)
Tier Methodology Start Date : 2019-01-01
Tier Methodology End Date : 2019-12-31
Frequency of HHV determinations : Quarterly

Tier 2 Monthly HHV Details :
JanuaryFebruaryMarchAprilMayJuneJulyAugustSeptemberOctoberNovemberDecember
N N N N N N N N N N N N

Fuel Emission Details :
Total CO2 emissionsTotal CH4 emissionsTotal N2O emissionsTotal CH4 emissions CO2eTotal N2O emissions CO2e
129155.1 (Metric Tons) 2.43 (Metric Tons) 0.243 (Metric Tons) 60.9 (Metric Tons) 72.5 (Metric Tons)


Unit Name : FTOB_Thermatrix
Unit Type : OCS (Other combustion source)
Unit Description :
Other Unit Name : Thermatrix
Individual Unit Details:
Use Ivt Indicator: Y
Maximum Rated Heat Input Capacity: 54 (mmBtu/hr)

Emission Details:
Annual CO2 mass emissions from sorbent: 0 (Metric Tons)
Annual Biogenic CO2 Emissions: 0 (metric tons)

Tier Fuel Details:
Fuel : Natural Gas (Weighted U.S. Average)
Tier Name : Tier 2 (Equation C-2a)
Tier Methodology Start Date : 2019-01-01
Tier Methodology End Date : 2019-12-31
Frequency of HHV determinations : Quarterly

Tier 2 Monthly HHV Details :
JanuaryFebruaryMarchAprilMayJuneJulyAugustSeptemberOctoberNovemberDecember
N N N N N N N N N N N N

Fuel Emission Details :
Total CO2 emissionsTotal CH4 emissionsTotal N2O emissionsTotal CH4 emissions CO2eTotal N2O emissions CO2e
17005.3 (Metric Tons) 0.32 (Metric Tons) 0.032 (Metric Tons) 8 (Metric Tons) 9.6 (Metric Tons)


Unit Name : LHC8_Furnace 10
Unit Type : F (Furnace)
Unit Description :
Individual Unit Details:
Use Ivt Indicator: Y
Maximum Rated Heat Input Capacity: 292 (mmBtu/hr)

Emission Details:
Annual CO2 mass emissions from sorbent: 0 (Metric Tons)
Annual Biogenic CO2 Emissions: 0 (metric tons)

Tier Fuel Details:
Fuel : Natural Gas (Weighted U.S. Average)
Tier Name : Tier 2 (Equation C-2a)
Tier Methodology Start Date : 2019-01-01
Tier Methodology End Date : 2019-12-31
Frequency of HHV determinations : Quarterly

Tier 2 Monthly HHV Details :
JanuaryFebruaryMarchAprilMayJuneJulyAugustSeptemberOctoberNovemberDecember
N N N N N N N N N N N N

Fuel Emission Details :
Total CO2 emissionsTotal CH4 emissionsTotal N2O emissionsTotal CH4 emissions CO2eTotal N2O emissions CO2e
1084.8 (Metric Tons) 0.02 (Metric Tons) 0.002 (Metric Tons) 0.5 (Metric Tons) 0.6 (Metric Tons)


Unit Name : LHC7_H5 Furnace
Unit Type : F (Furnace)
Unit Description :
Individual Unit Details:
Use Ivt Indicator: Y
Maximum Rated Heat Input Capacity: 514 (mmBtu/hr)

Emission Details:
Annual CO2 mass emissions from sorbent: 0 (Metric Tons)
Annual Biogenic CO2 Emissions: 0 (metric tons)

Tier Fuel Details:
Fuel : Natural Gas (Weighted U.S. Average)
Tier Name : Tier 2 (Equation C-2a)
Tier Methodology Start Date : 2019-01-01
Tier Methodology End Date : 2019-12-31
Frequency of HHV determinations : Quarterly

Tier 2 Monthly HHV Details :
JanuaryFebruaryMarchAprilMayJuneJulyAugustSeptemberOctoberNovemberDecember
N N N N N N N N N N N N

Fuel Emission Details :
Total CO2 emissionsTotal CH4 emissionsTotal N2O emissionsTotal CH4 emissions CO2eTotal N2O emissions CO2e
142331.0 (Metric Tons) 2.68 (Metric Tons) 0.268 (Metric Tons) 67.1 (Metric Tons) 79.9 (Metric Tons)


Unit Name : LHC8_Furnace 3
Unit Type : F (Furnace)
Unit Description :
Individual Unit Details:
Use Ivt Indicator: Y
Maximum Rated Heat Input Capacity: 413 (mmBtu/hr)

Emission Details:
Annual CO2 mass emissions from sorbent: 0 (Metric Tons)
Annual Biogenic CO2 Emissions: 0 (metric tons)

Tier Fuel Details:
Fuel : Natural Gas (Weighted U.S. Average)
Tier Name : Tier 2 (Equation C-2a)
Tier Methodology Start Date : 2019-01-01
Tier Methodology End Date : 2019-12-31
Frequency of HHV determinations : Quarterly

Tier 2 Monthly HHV Details :
JanuaryFebruaryMarchAprilMayJuneJulyAugustSeptemberOctoberNovemberDecember
N N N N N N N N N N N N

Fuel Emission Details :
Total CO2 emissionsTotal CH4 emissionsTotal N2O emissionsTotal CH4 emissions CO2eTotal N2O emissions CO2e
462.5 (Metric Tons) 0.01 (Metric Tons) 0.001 (Metric Tons) 0.2 (Metric Tons) 0.3 (Metric Tons)


Unit Name : LHC7_H2 Furnace
Unit Type : F (Furnace)
Unit Description :
Individual Unit Details:
Use Ivt Indicator: Y
Maximum Rated Heat Input Capacity: 514 (mmBtu/hr)

Emission Details:
Annual CO2 mass emissions from sorbent: 0 (Metric Tons)
Annual Biogenic CO2 Emissions: 0 (metric tons)

Tier Fuel Details:
Fuel : Natural Gas (Weighted U.S. Average)
Tier Name : Tier 2 (Equation C-2a)
Tier Methodology Start Date : 2019-01-01
Tier Methodology End Date : 2019-12-31
Frequency of HHV determinations : Quarterly

Tier 2 Monthly HHV Details :
JanuaryFebruaryMarchAprilMayJuneJulyAugustSeptemberOctoberNovemberDecember
N N N N N N N N N N N N

Fuel Emission Details :
Total CO2 emissionsTotal CH4 emissionsTotal N2O emissionsTotal CH4 emissions CO2eTotal N2O emissions CO2e
134399.2 (Metric Tons) 2.53 (Metric Tons) 0.253 (Metric Tons) 63.3 (Metric Tons) 75.5 (Metric Tons)


Unit Name : LHC7_H3 Furnace
Unit Type : F (Furnace)
Unit Description :
Individual Unit Details:
Use Ivt Indicator: Y
Maximum Rated Heat Input Capacity: 514 (mmBtu/hr)

Emission Details:
Annual CO2 mass emissions from sorbent: 0 (Metric Tons)
Annual Biogenic CO2 Emissions: 0 (metric tons)

Tier Fuel Details:
Fuel : Natural Gas (Weighted U.S. Average)
Tier Name : Tier 2 (Equation C-2a)
Tier Methodology Start Date : 2019-01-01
Tier Methodology End Date : 2019-12-31
Frequency of HHV determinations : Quarterly

Tier 2 Monthly HHV Details :
JanuaryFebruaryMarchAprilMayJuneJulyAugustSeptemberOctoberNovemberDecember
N N N N N N N N N N N N

Fuel Emission Details :
Total CO2 emissionsTotal CH4 emissionsTotal N2O emissionsTotal CH4 emissions CO2eTotal N2O emissions CO2e
148855.9 (Metric Tons) 2.81 (Metric Tons) 0.281 (Metric Tons) 70.1 (Metric Tons) 83.6 (Metric Tons)


Unit Name : LHC7_H4 Furnace
Unit Type : F (Furnace)
Unit Description :
Individual Unit Details:
Use Ivt Indicator: Y
Maximum Rated Heat Input Capacity: 514 (mmBtu/hr)

Emission Details:
Annual CO2 mass emissions from sorbent: 0 (Metric Tons)
Annual Biogenic CO2 Emissions: 0 (metric tons)

Tier Fuel Details:
Fuel : Natural Gas (Weighted U.S. Average)
Tier Name : Tier 2 (Equation C-2a)
Tier Methodology Start Date : 2019-01-01
Tier Methodology End Date : 2019-12-31
Frequency of HHV determinations : Quarterly

Tier 2 Monthly HHV Details :
JanuaryFebruaryMarchAprilMayJuneJulyAugustSeptemberOctoberNovemberDecember
N N N N N N N N N N N N

Fuel Emission Details :
Total CO2 emissionsTotal CH4 emissionsTotal N2O emissionsTotal CH4 emissions CO2eTotal N2O emissions CO2e
110207.6 (Metric Tons) 2.08 (Metric Tons) 0.208 (Metric Tons) 51.9 (Metric Tons) 61.9 (Metric Tons)


Unit Name : LHC8_Furnace 1
Unit Type : F (Furnace)
Unit Description :
Individual Unit Details:
Use Ivt Indicator: Y
Maximum Rated Heat Input Capacity: 413 (mmBtu/hr)

Emission Details:
Annual CO2 mass emissions from sorbent: 0 (Metric Tons)
Annual Biogenic CO2 Emissions: 0 (metric tons)

Tier Fuel Details:
Fuel : Natural Gas (Weighted U.S. Average)
Tier Name : Tier 2 (Equation C-2a)
Tier Methodology Start Date : 2019-01-01
Tier Methodology End Date : 2019-12-31
Frequency of HHV determinations : Quarterly

Tier 2 Monthly HHV Details :
JanuaryFebruaryMarchAprilMayJuneJulyAugustSeptemberOctoberNovemberDecember
N N N N N N N N N N N N

Fuel Emission Details :
Total CO2 emissionsTotal CH4 emissionsTotal N2O emissionsTotal CH4 emissions CO2eTotal N2O emissions CO2e
1040.6 (Metric Tons) 0.02 (Metric Tons) 0.002 (Metric Tons) 0.5 (Metric Tons) 0.6 (Metric Tons)


Unit Name : LHC8_Furnace 2
Unit Type : F (Furnace)
Unit Description :
Individual Unit Details:
Use Ivt Indicator: Y
Maximum Rated Heat Input Capacity: 413 (mmBtu/hr)

Emission Details:
Annual CO2 mass emissions from sorbent: 0 (Metric Tons)
Annual Biogenic CO2 Emissions: 0 (metric tons)

Tier Fuel Details:
Fuel : Natural Gas (Weighted U.S. Average)
Tier Name : Tier 2 (Equation C-2a)
Tier Methodology Start Date : 2019-01-01
Tier Methodology End Date : 2019-12-31
Frequency of HHV determinations : Quarterly

Tier 2 Monthly HHV Details :
JanuaryFebruaryMarchAprilMayJuneJulyAugustSeptemberOctoberNovemberDecember
N N N N N N N N N N N N

Fuel Emission Details :
Total CO2 emissionsTotal CH4 emissionsTotal N2O emissionsTotal CH4 emissions CO2eTotal N2O emissions CO2e
880.2 (Metric Tons) 0.02 (Metric Tons) 0.002 (Metric Tons) 0.4 (Metric Tons) 0.5 (Metric Tons)


Unit Name : LHC8_Furnace 4
Unit Type : F (Furnace)
Unit Description :
Individual Unit Details:
Use Ivt Indicator: Y
Maximum Rated Heat Input Capacity: 413 (mmBtu/hr)

Emission Details:
Annual CO2 mass emissions from sorbent: 0 (Metric Tons)
Annual Biogenic CO2 Emissions: 0 (metric tons)

Tier Fuel Details:
Fuel : Natural Gas (Weighted U.S. Average)
Tier Name : Tier 2 (Equation C-2a)
Tier Methodology Start Date : 2019-01-01
Tier Methodology End Date : 2019-12-31
Frequency of HHV determinations : Quarterly

Tier 2 Monthly HHV Details :
JanuaryFebruaryMarchAprilMayJuneJulyAugustSeptemberOctoberNovemberDecember
N N N N N N N N N N N N

Fuel Emission Details :
Total CO2 emissionsTotal CH4 emissionsTotal N2O emissionsTotal CH4 emissions CO2eTotal N2O emissions CO2e
973.3 (Metric Tons) 0.02 (Metric Tons) 0.002 (Metric Tons) 0.5 (Metric Tons) 0.5 (Metric Tons)


Unit Name : LHC8_Furnace 5
Unit Type : F (Furnace)
Unit Description :
Individual Unit Details:
Use Ivt Indicator: Y
Maximum Rated Heat Input Capacity: 413 (mmBtu/hr)

Emission Details:
Annual CO2 mass emissions from sorbent: 0 (Metric Tons)
Annual Biogenic CO2 Emissions: 0 (metric tons)

Tier Fuel Details:
Fuel : Natural Gas (Weighted U.S. Average)
Tier Name : Tier 2 (Equation C-2a)
Tier Methodology Start Date : 2019-01-01
Tier Methodology End Date : 2019-12-31
Frequency of HHV determinations : Quarterly

Tier 2 Monthly HHV Details :
JanuaryFebruaryMarchAprilMayJuneJulyAugustSeptemberOctoberNovemberDecember
N N N N N N N N N N N N

Fuel Emission Details :
Total CO2 emissionsTotal CH4 emissionsTotal N2O emissionsTotal CH4 emissions CO2eTotal N2O emissions CO2e
452.1 (Metric Tons) 0.01 (Metric Tons) 0.001 (Metric Tons) 0.2 (Metric Tons) 0.3 (Metric Tons)


Unit Name : LHC8_Furnace 6
Unit Type : F (Furnace)
Unit Description :
Individual Unit Details:
Use Ivt Indicator: Y
Maximum Rated Heat Input Capacity: 413 (mmBtu/hr)

Emission Details:
Annual CO2 mass emissions from sorbent: 0 (Metric Tons)
Annual Biogenic CO2 Emissions: 0 (metric tons)

Tier Fuel Details:
Fuel : Natural Gas (Weighted U.S. Average)
Tier Name : Tier 2 (Equation C-2a)
Tier Methodology Start Date : 2019-01-01
Tier Methodology End Date : 2019-12-31
Frequency of HHV determinations : Quarterly

Tier 2 Monthly HHV Details :
JanuaryFebruaryMarchAprilMayJuneJulyAugustSeptemberOctoberNovemberDecember
N N N N N N N N N N N N

Fuel Emission Details :
Total CO2 emissionsTotal CH4 emissionsTotal N2O emissionsTotal CH4 emissions CO2eTotal N2O emissions CO2e
1014.3 (Metric Tons) 0.02 (Metric Tons) 0.002 (Metric Tons) 0.5 (Metric Tons) 0.6 (Metric Tons)


Unit Name : SDO_H628 Heater
Unit Type : PRH (Process Heater)
Unit Description :
Individual Unit Details:
Use Ivt Indicator: Y
Maximum Rated Heat Input Capacity: 1.2 (mmBtu/hr)

Emission Details:
Annual CO2 mass emissions from sorbent: 0 (Metric Tons)
Annual Biogenic CO2 Emissions: 0 (metric tons)

Tier Fuel Details:
Fuel : Natural Gas (Weighted U.S. Average)
Tier Name : Tier 2 (Equation C-2a)
Tier Methodology Start Date : 2019-01-01
Tier Methodology End Date : 2019-12-31
Frequency of HHV determinations : Quarterly

Tier 2 Monthly HHV Details :
JanuaryFebruaryMarchAprilMayJuneJulyAugustSeptemberOctoberNovemberDecember
N N N N N N N N N N N N

Fuel Emission Details :
Total CO2 emissionsTotal CH4 emissionsTotal N2O emissionsTotal CH4 emissions CO2eTotal N2O emissions CO2e
93.8 (Metric Tons) 0.00 (Metric Tons) 0.000 (Metric Tons) 0 (Metric Tons) 0.1 (Metric Tons)


Unit Name : SDO_HDHT Heater
Unit Type : PRH (Process Heater)
Unit Description :
Individual Unit Details:
Use Ivt Indicator: Y
Maximum Rated Heat Input Capacity: 3.3 (mmBtu/hr)

Emission Details:
Annual CO2 mass emissions from sorbent: 0 (Metric Tons)
Annual Biogenic CO2 Emissions: 0 (metric tons)

Tier Fuel Details:
Fuel : Natural Gas (Weighted U.S. Average)
Tier Name : Tier 2 (Equation C-2a)
Tier Methodology Start Date : 2019-01-01
Tier Methodology End Date : 2019-12-31
Frequency of HHV determinations : Quarterly

Tier 2 Monthly HHV Details :
JanuaryFebruaryMarchAprilMayJuneJulyAugustSeptemberOctoberNovemberDecember
N N N N N N N N N N N N

Fuel Emission Details :
Total CO2 emissionsTotal CH4 emissionsTotal N2O emissionsTotal CH4 emissions CO2eTotal N2O emissions CO2e
63.9 (Metric Tons) 0.00 (Metric Tons) 0.000 (Metric Tons) 0 (Metric Tons) 0 (Metric Tons)


Unit Name : SDO_HET1 Heater
Unit Type : PRH (Process Heater)
Unit Description :
Individual Unit Details:
Use Ivt Indicator: Y
Maximum Rated Heat Input Capacity: 12.8 (mmBtu/hr)

Emission Details:
Annual CO2 mass emissions from sorbent: 0 (Metric Tons)
Annual Biogenic CO2 Emissions: 0 (metric tons)

Tier Fuel Details:
Fuel : Natural Gas (Weighted U.S. Average)
Tier Name : Tier 2 (Equation C-2a)
Tier Methodology Start Date : 2019-01-01
Tier Methodology End Date : 2019-12-31
Frequency of HHV determinations : Quarterly

Tier 2 Monthly HHV Details :
JanuaryFebruaryMarchAprilMayJuneJulyAugustSeptemberOctoberNovemberDecember
N N N N N N N N N N N N

Fuel Emission Details :
Total CO2 emissionsTotal CH4 emissionsTotal N2O emissionsTotal CH4 emissions CO2eTotal N2O emissions CO2e
496.2 (Metric Tons) 0.01 (Metric Tons) 0.001 (Metric Tons) 0.2 (Metric Tons) 0.3 (Metric Tons)


Unit Name : SDO_HET2 Heater
Unit Type : PRH (Process Heater)
Unit Description :
Individual Unit Details:
Use Ivt Indicator: Y
Maximum Rated Heat Input Capacity: 12.8 (mmBtu/hr)

Emission Details:
Annual CO2 mass emissions from sorbent: 0 (Metric Tons)
Annual Biogenic CO2 Emissions: 0 (metric tons)

Tier Fuel Details:
Fuel : Natural Gas (Weighted U.S. Average)
Tier Name : Tier 2 (Equation C-2a)
Tier Methodology Start Date : 2019-01-01
Tier Methodology End Date : 2019-12-31
Frequency of HHV determinations : Quarterly

Tier 2 Monthly HHV Details :
JanuaryFebruaryMarchAprilMayJuneJulyAugustSeptemberOctoberNovemberDecember
N N N N N N N N N N N N

Fuel Emission Details :
Total CO2 emissionsTotal CH4 emissionsTotal N2O emissionsTotal CH4 emissions CO2eTotal N2O emissions CO2e
846.6 (Metric Tons) 0.02 (Metric Tons) 0.002 (Metric Tons) 0.4 (Metric Tons) 0.5 (Metric Tons)


Unit Name : SDO_HSBH Heater
Unit Type : PRH (Process Heater)
Unit Description :
Individual Unit Details:
Use Ivt Indicator: Y
Maximum Rated Heat Input Capacity: 6.6 (mmBtu/hr)

Emission Details:
Annual CO2 mass emissions from sorbent: 0 (Metric Tons)
Annual Biogenic CO2 Emissions: 0 (metric tons)

Tier Fuel Details:
Fuel : Natural Gas (Weighted U.S. Average)
Tier Name : Tier 2 (Equation C-2a)
Tier Methodology Start Date : 2019-01-01
Tier Methodology End Date : 2019-12-31
Frequency of HHV determinations : Quarterly

Tier 2 Monthly HHV Details :
JanuaryFebruaryMarchAprilMayJuneJulyAugustSeptemberOctoberNovemberDecember
N N N N N N N N N N N N

Fuel Emission Details :
Total CO2 emissionsTotal CH4 emissionsTotal N2O emissionsTotal CH4 emissions CO2eTotal N2O emissions CO2e
225.3 (Metric Tons) 0.00 (Metric Tons) 0.000 (Metric Tons) 0.1 (Metric Tons) 0.1 (Metric Tons)


Unit Name : SDO_C-14 ICE
Unit Type : RICE (Reciprocating internal combustion engine)
Unit Description :
Individual Unit Details:
Use Ivt Indicator: Y
Maximum Rated Heat Input Capacity: 7.2 (mmBtu/hr)

Emission Details:
Annual CO2 mass emissions from sorbent: 0 (Metric Tons)
Annual Biogenic CO2 Emissions: 0 (metric tons)

Tier Fuel Details:
Fuel : Natural Gas (Weighted U.S. Average)
Tier Name : Tier 2 (Equation C-2a)
Tier Methodology Start Date : 2019-01-01
Tier Methodology End Date : 2019-12-31
Frequency of HHV determinations : Quarterly

Tier 2 Monthly HHV Details :
JanuaryFebruaryMarchAprilMayJuneJulyAugustSeptemberOctoberNovemberDecember
N N N N N N N N N N N N

Fuel Emission Details :
Total CO2 emissionsTotal CH4 emissionsTotal N2O emissionsTotal CH4 emissions CO2eTotal N2O emissions CO2e
263.6 (Metric Tons) 0.00 (Metric Tons) 0.000 (Metric Tons) 0.1 (Metric Tons) 0.1 (Metric Tons)


Unit Name : LHC7_FS2 Flare
Unit Type : FLR (Flare)
Unit Description :
Individual Unit Details:
Use Ivt Indicator: Y
Maximum Rated Heat Input Capacity: 14 (mmBtu/hr)

Emission Details:
Annual CO2 mass emissions from sorbent: 0 (Metric Tons)
Annual Biogenic CO2 Emissions: 0 (metric tons)

Tier Fuel Details:
Fuel : Natural Gas (Weighted U.S. Average)
Tier Name : Tier 2 (Equation C-2a)
Tier Methodology Start Date : 2019-01-01
Tier Methodology End Date : 2019-12-31
Frequency of HHV determinations : Quarterly

Tier 2 Monthly HHV Details :
JanuaryFebruaryMarchAprilMayJuneJulyAugustSeptemberOctoberNovemberDecember
N N N N N N N N N N N N

Fuel Emission Details :
Total CO2 emissionsTotal CH4 emissionsTotal N2O emissionsTotal CH4 emissions CO2eTotal N2O emissions CO2e
281.8 (Metric Tons) 0.01 (Metric Tons) 0.001 (Metric Tons) 0.1 (Metric Tons) 0.2 (Metric Tons)


Unit Name : LHC8_Ground Flare
Unit Type : FLR (Flare)
Unit Description :
Individual Unit Details:
Use Ivt Indicator: Y
Maximum Rated Heat Input Capacity: 4590 (mmBtu/hr)

Emission Details:
Annual CO2 mass emissions from sorbent: 0 (Metric Tons)
Annual Biogenic CO2 Emissions: 0 (metric tons)

Tier Fuel Details:
Fuel : Natural Gas (Weighted U.S. Average)
Tier Name : Tier 2 (Equation C-2a)
Tier Methodology Start Date : 2019-01-01
Tier Methodology End Date : 2019-12-31
Frequency of HHV determinations : Quarterly

Tier 2 Monthly HHV Details :
JanuaryFebruaryMarchAprilMayJuneJulyAugustSeptemberOctoberNovemberDecember
N N N N N N N N N N N N

Fuel Emission Details :
Total CO2 emissionsTotal CH4 emissionsTotal N2O emissionsTotal CH4 emissions CO2eTotal N2O emissions CO2e
568.7 (Metric Tons) 0.01 (Metric Tons) 0.001 (Metric Tons) 0.3 (Metric Tons) 0.3 (Metric Tons)


Unit Name : PWR8_GT81
Unit Type : SCCT (CT (Turbine, simple cycle combustion))
Unit Description :
Individual Unit Details:
Use Ivt Indicator: Y
Maximum Rated Heat Input Capacity: 1451 (mmBtu/hr)

Emission Details:
Annual CO2 mass emissions from sorbent: 0 (Metric Tons)
Annual Biogenic CO2 Emissions: 0 (metric tons)

Tier Fuel Details:
Fuel : Natural Gas (Weighted U.S. Average)
Tier Name : Tier 2 (Equation C-2a)
Tier Methodology Start Date : 2019-01-01
Tier Methodology End Date : 2019-12-31
Frequency of HHV determinations : Quarterly

Tier 2 Monthly HHV Details :
JanuaryFebruaryMarchAprilMayJuneJulyAugustSeptemberOctoberNovemberDecember
N N N N N N N N N N N N

Fuel Emission Details :
Total CO2 emissionsTotal CH4 emissionsTotal N2O emissionsTotal CH4 emissions CO2eTotal N2O emissions CO2e
412748.3 (Metric Tons) 7.78 (Metric Tons) 0.778 (Metric Tons) 194.5 (Metric Tons) 231.8 (Metric Tons)


Unit Name : PWR8_GT82
Unit Type : SCCT (CT (Turbine, simple cycle combustion))
Unit Description :
Individual Unit Details:
Use Ivt Indicator: Y
Maximum Rated Heat Input Capacity: 1451 (mmBtu/hr)

Emission Details:
Annual CO2 mass emissions from sorbent: 0 (Metric Tons)
Annual Biogenic CO2 Emissions: 0 (metric tons)

Tier Fuel Details:
Fuel : Natural Gas (Weighted U.S. Average)
Tier Name : Tier 2 (Equation C-2a)
Tier Methodology Start Date : 2019-01-01
Tier Methodology End Date : 2019-12-31
Frequency of HHV determinations : Quarterly

Tier 2 Monthly HHV Details :
JanuaryFebruaryMarchAprilMayJuneJulyAugustSeptemberOctoberNovemberDecember
N N N N N N N N N N N N

Fuel Emission Details :
Total CO2 emissionsTotal CH4 emissionsTotal N2O emissionsTotal CH4 emissions CO2eTotal N2O emissions CO2e
497526.3 (Metric Tons) 9.38 (Metric Tons) 0.938 (Metric Tons) 234.4 (Metric Tons) 279.4 (Metric Tons)


Unit Name : PWR8_GT83
Unit Type : SCCT (CT (Turbine, simple cycle combustion))
Unit Description :
Individual Unit Details:
Use Ivt Indicator: Y
Maximum Rated Heat Input Capacity: 1451 (mmBtu/hr)

Emission Details:
Annual CO2 mass emissions from sorbent: 0 (Metric Tons)
Annual Biogenic CO2 Emissions: 0 (metric tons)

Tier Fuel Details:
Fuel : Natural Gas (Weighted U.S. Average)
Tier Name : Tier 2 (Equation C-2a)
Tier Methodology Start Date : 2019-01-01
Tier Methodology End Date : 2019-12-31
Frequency of HHV determinations : Quarterly

Tier 2 Monthly HHV Details :
JanuaryFebruaryMarchAprilMayJuneJulyAugustSeptemberOctoberNovemberDecember
N N N N N N N N N N N N

Fuel Emission Details :
Total CO2 emissionsTotal CH4 emissionsTotal N2O emissionsTotal CH4 emissions CO2eTotal N2O emissions CO2e
482085.8 (Metric Tons) 9.09 (Metric Tons) 0.909 (Metric Tons) 227.1 (Metric Tons) 270.8 (Metric Tons)


Unit Name : VER_WGB 500 Boiler
Unit Type : OB (Boiler, other)
Unit Description :
Individual Unit Details:
Use Ivt Indicator: Y
Maximum Rated Heat Input Capacity: 50 (mmBtu/hr)

Emission Details:
Annual CO2 mass emissions from sorbent: 0 (Metric Tons)
Annual Biogenic CO2 Emissions: 0 (metric tons)

Tier Fuel Details:
Fuel : Natural Gas (Weighted U.S. Average)
Tier Name : Tier 2 (Equation C-2a)
Tier Methodology Start Date : 2019-01-01
Tier Methodology End Date : 2019-12-31
Frequency of HHV determinations : Quarterly

Tier 2 Monthly HHV Details :
JanuaryFebruaryMarchAprilMayJuneJulyAugustSeptemberOctoberNovemberDecember
N N N N N N N N N N N N

Fuel Emission Details :
Total CO2 emissionsTotal CH4 emissionsTotal N2O emissionsTotal CH4 emissions CO2eTotal N2O emissions CO2e
18648.4 (Metric Tons) 0.35 (Metric Tons) 0.035 (Metric Tons) 8.8 (Metric Tons) 10.5 (Metric Tons)


Unit Name : PWR9_GT96
Unit Type : SCCT (CT (Turbine, simple cycle combustion))
Unit Description :
Individual Unit Details:
Use Ivt Indicator: Y
Maximum Rated Heat Input Capacity: 1800 (mmBtu/hr)

Emission Details:
Annual CO2 mass emissions from sorbent: 0 (Metric Tons)
Annual Biogenic CO2 Emissions: 0 (metric tons)

Tier Fuel Details:
Fuel : Natural Gas (Weighted U.S. Average)
Tier Name : Tier 2 (Equation C-2a)
Tier Methodology Start Date : 2019-01-01
Tier Methodology End Date : 2019-12-31
Frequency of HHV determinations : Quarterly

Tier 2 Monthly HHV Details :
JanuaryFebruaryMarchAprilMayJuneJulyAugustSeptemberOctoberNovemberDecember
N N N N N N N N N N N N

Fuel Emission Details :
Total CO2 emissionsTotal CH4 emissionsTotal N2O emissionsTotal CH4 emissions CO2eTotal N2O emissions CO2e
517111.2 (Metric Tons) 9.75 (Metric Tons) 0.975 (Metric Tons) 243.6 (Metric Tons) 290.4 (Metric Tons)


Unit Name : LHC8_F1 Flare
Unit Type : FLR (Flare)
Unit Description :
Individual Unit Details:
Use Ivt Indicator: Y
Maximum Rated Heat Input Capacity: 142 (mmBtu/hr)

Emission Details:
Annual CO2 mass emissions from sorbent: 0 (Metric Tons)
Annual Biogenic CO2 Emissions: 0 (metric tons)

Tier Fuel Details:
Fuel : Natural Gas (Weighted U.S. Average)
Tier Name : Tier 2 (Equation C-2a)
Tier Methodology Start Date : 2019-01-01
Tier Methodology End Date : 2019-12-31
Frequency of HHV determinations : Quarterly

Tier 2 Monthly HHV Details :
JanuaryFebruaryMarchAprilMayJuneJulyAugustSeptemberOctoberNovemberDecember
N N N N N N N N N N N N

Fuel Emission Details :
Total CO2 emissionsTotal CH4 emissionsTotal N2O emissionsTotal CH4 emissions CO2eTotal N2O emissions CO2e
142.2 (Metric Tons) 0.00 (Metric Tons) 0.000 (Metric Tons) 0.1 (Metric Tons) 0.1 (Metric Tons)


Unit Name : LHC7_FS1 Flare
Unit Type : FLR (Flare)
Unit Description :
Individual Unit Details:
Use Ivt Indicator: Y
Maximum Rated Heat Input Capacity: 2345 (mmBtu/hr)

Emission Details:
Annual CO2 mass emissions from sorbent: 0 (Metric Tons)
Annual Biogenic CO2 Emissions: 0 (metric tons)

Tier Fuel Details:
Fuel : Natural Gas (Weighted U.S. Average)
Tier Name : Tier 2 (Equation C-2a)
Tier Methodology Start Date : 2019-01-01
Tier Methodology End Date : 2019-12-31
Frequency of HHV determinations : Quarterly

Tier 2 Monthly HHV Details :
JanuaryFebruaryMarchAprilMayJuneJulyAugustSeptemberOctoberNovemberDecember
N N N N N N N N N N N N

Fuel Emission Details :
Total CO2 emissionsTotal CH4 emissionsTotal N2O emissionsTotal CH4 emissions CO2eTotal N2O emissions CO2e
161.1 (Metric Tons) 0.00 (Metric Tons) 0.000 (Metric Tons) 0.1 (Metric Tons) 0.1 (Metric Tons)


Unit Name : LHC8_Furnace 8
Unit Type : F (Furnace)
Unit Description :
Individual Unit Details:
Use Ivt Indicator: Y
Maximum Rated Heat Input Capacity: 292 (mmBtu/hr)

Emission Details:
Annual CO2 mass emissions from sorbent: 0 (Metric Tons)
Annual Biogenic CO2 Emissions: 0 (metric tons)

Tier Fuel Details:
Fuel : Natural Gas (Weighted U.S. Average)
Tier Name : Tier 2 (Equation C-2a)
Tier Methodology Start Date : 2019-01-01
Tier Methodology End Date : 2019-12-31
Frequency of HHV determinations : Quarterly

Tier 2 Monthly HHV Details :
JanuaryFebruaryMarchAprilMayJuneJulyAugustSeptemberOctoberNovemberDecember
N N N N N N N N N N N N

Fuel Emission Details :
Total CO2 emissionsTotal CH4 emissionsTotal N2O emissionsTotal CH4 emissions CO2eTotal N2O emissions CO2e
1133.9 (Metric Tons) 0.02 (Metric Tons) 0.002 (Metric Tons) 0.5 (Metric Tons) 0.6 (Metric Tons)


Unit Name : LHC8_TO 1
Unit Type : TODF (Thermal oxidizer, direct fired, no heat recovery)
Unit Description :
Individual Unit Details:
Use Ivt Indicator: Y
Maximum Rated Heat Input Capacity: 15 (mmBtu/hr)

Emission Details:
Annual CO2 mass emissions from sorbent: 0 (Metric Tons)
Annual Biogenic CO2 Emissions: 0 (metric tons)

Tier Fuel Details:
Fuel : Natural Gas (Weighted U.S. Average)
Tier Name : Tier 2 (Equation C-2a)
Tier Methodology Start Date : 2019-01-01
Tier Methodology End Date : 2019-12-31
Frequency of HHV determinations : Quarterly

Tier 2 Monthly HHV Details :
JanuaryFebruaryMarchAprilMayJuneJulyAugustSeptemberOctoberNovemberDecember
N N N N N N N N N N N N

Fuel Emission Details :
Total CO2 emissionsTotal CH4 emissionsTotal N2O emissionsTotal CH4 emissions CO2eTotal N2O emissions CO2e
2953.5 (Metric Tons) 0.06 (Metric Tons) 0.006 (Metric Tons) 1.4 (Metric Tons) 1.7 (Metric Tons)


Unit Name : LHC8_Vent Flare
Unit Type : FLR (Flare)
Unit Description :
Individual Unit Details:
Use Ivt Indicator: Y
Maximum Rated Heat Input Capacity: 374 (mmBtu/hr)

Emission Details:
Annual CO2 mass emissions from sorbent: 0 (Metric Tons)
Annual Biogenic CO2 Emissions: 0 (metric tons)

Tier Fuel Details:
Fuel : Natural Gas (Weighted U.S. Average)
Tier Name : Tier 2 (Equation C-2a)
Tier Methodology Start Date : 2019-01-01
Tier Methodology End Date : 2019-12-31
Frequency of HHV determinations : Quarterly

Tier 2 Monthly HHV Details :
JanuaryFebruaryMarchAprilMayJuneJulyAugustSeptemberOctoberNovemberDecember
N N N N N N N N N N N N

Fuel Emission Details :
Total CO2 emissionsTotal CH4 emissionsTotal N2O emissionsTotal CH4 emissions CO2eTotal N2O emissions CO2e
28.4 (Metric Tons) 0.00 (Metric Tons) 0.000 (Metric Tons) 0 (Metric Tons) 0 (Metric Tons)


Unit Name : LHC8_Furnace 7
Unit Type : F (Furnace)
Unit Description :
Individual Unit Details:
Use Ivt Indicator: Y
Maximum Rated Heat Input Capacity: 413 (mmBtu/hr)

Emission Details:
Annual CO2 mass emissions from sorbent: 0 (Metric Tons)
Annual Biogenic CO2 Emissions: 0 (metric tons)

Tier Fuel Details:
Fuel : Natural Gas (Weighted U.S. Average)
Tier Name : Tier 2 (Equation C-2a)
Tier Methodology Start Date : 2019-01-01
Tier Methodology End Date : 2019-12-31
Frequency of HHV determinations : Quarterly

Tier 2 Monthly HHV Details :
JanuaryFebruaryMarchAprilMayJuneJulyAugustSeptemberOctoberNovemberDecember
N N N N N N N N N N N N

Fuel Emission Details :
Total CO2 emissionsTotal CH4 emissionsTotal N2O emissionsTotal CH4 emissions CO2eTotal N2O emissions CO2e
1060.3 (Metric Tons) 0.02 (Metric Tons) 0.002 (Metric Tons) 0.5 (Metric Tons) 0.6 (Metric Tons)


Unit Name : LHC8_Furnace 9
Unit Type : F (Furnace)
Unit Description :
Individual Unit Details:
Use Ivt Indicator: Y
Maximum Rated Heat Input Capacity: 310 (mmBtu/hr)

Emission Details:
Annual CO2 mass emissions from sorbent: 0 (Metric Tons)
Annual Biogenic CO2 Emissions: 0 (metric tons)

Tier Fuel Details:
Fuel : Natural Gas (Weighted U.S. Average)
Tier Name : Tier 2 (Equation C-2a)
Tier Methodology Start Date : 2019-01-01
Tier Methodology End Date : 2019-12-31
Frequency of HHV determinations : Quarterly

Tier 2 Monthly HHV Details :
JanuaryFebruaryMarchAprilMayJuneJulyAugustSeptemberOctoberNovemberDecember
N N N N N N N N N N N N

Fuel Emission Details :
Total CO2 emissionsTotal CH4 emissionsTotal N2O emissionsTotal CH4 emissions CO2eTotal N2O emissions CO2e
0 (Metric Tons) 0 (Metric Tons) 0 (Metric Tons) 0 (Metric Tons) 0 (Metric Tons)


Unit Name : LHC8_F902 Flare
Unit Type : FLR (Flare)
Unit Description :
Individual Unit Details:
Use Ivt Indicator: Y
Maximum Rated Heat Input Capacity: 10 (mmBtu/hr)

Emission Details:
Annual CO2 mass emissions from sorbent: 0 (Metric Tons)
Annual Biogenic CO2 Emissions: 0 (metric tons)

Tier Fuel Details:
Fuel : Natural Gas (Weighted U.S. Average)
Tier Name : Tier 2 (Equation C-2a)
Tier Methodology Start Date : 2019-01-01
Tier Methodology End Date : 2019-12-31
Frequency of HHV determinations : Quarterly

Tier 2 Monthly HHV Details :
JanuaryFebruaryMarchAprilMayJuneJulyAugustSeptemberOctoberNovemberDecember
N N N N N N N N N N N N

Fuel Emission Details :
Total CO2 emissionsTotal CH4 emissionsTotal N2O emissionsTotal CH4 emissions CO2eTotal N2O emissions CO2e
28.4 (Metric Tons) 0.00 (Metric Tons) 0.000 (Metric Tons) 0 (Metric Tons) 0 (Metric Tons)


Unit Name : SDO_C-13 ICE
Unit Type : RICE (Reciprocating internal combustion engine)
Unit Description :
Individual Unit Details:
Use Ivt Indicator: Y
Maximum Rated Heat Input Capacity: 6.5 (mmBtu/hr)

Emission Details:
Annual CO2 mass emissions from sorbent: 0 (Metric Tons)
Annual Biogenic CO2 Emissions: 0 (metric tons)

Tier Fuel Details:
Fuel : Natural Gas (Weighted U.S. Average)
Tier Name : Tier 2 (Equation C-2a)
Tier Methodology Start Date : 2019-01-01
Tier Methodology End Date : 2019-12-31
Frequency of HHV determinations : Quarterly

Tier 2 Monthly HHV Details :
JanuaryFebruaryMarchAprilMayJuneJulyAugustSeptemberOctoberNovemberDecember
N N N N N N N N N N N N

Fuel Emission Details :
Total CO2 emissionsTotal CH4 emissionsTotal N2O emissionsTotal CH4 emissions CO2eTotal N2O emissions CO2e
0 (Metric Tons) 0 (Metric Tons) 0 (Metric Tons) 0 (Metric Tons) 0 (Metric Tons)


Unit Name : GP-LPFG HEADER AGGREGATE
Unit Type : OCS (Other combustion source)
Unit Description :
Other Unit Name :
Small Unit Aggregation Details:
Use Ivt Indicator: Y
Highest Maximum Rated Heat Input Capacity: 120
Cumulative Maximum Rated Heat Input Capacity: 463

Emission Details:
Annual CO2 mass emissions from sorbent: 0 (Metric Tons)
Annual Biogenic CO2 Emissions: 0 (metric tons)
Annual Fossil fuel based CO2 Emissions: 160014 (metric tons)

Tier Fuel Details:
Fuel : Natural Gas (Weighted U.S. Average)
Tier Name : Tier 2 (Equation C-2a)
Tier Methodology Start Date : 2019-01-01
Tier Methodology End Date : 2019-12-31
Frequency of HHV determinations : Quarterly

Tier 2 Monthly HHV Details :
JanuaryFebruaryMarchAprilMayJuneJulyAugustSeptemberOctoberNovemberDecember
N N N N N N N N N N N N

Fuel Emission Details :
Total CO2 emissionsTotal CH4 emissionsTotal N2O emissionsTotal CH4 emissions CO2eTotal N2O emissions CO2e
160017.7 (Metric Tons) 3.02 (Metric Tons) 0.302 (Metric Tons) 75.4 (Metric Tons) 89.9 (Metric Tons)


Unit Name : GP-TIER I DIESEL ENGINE AGGREGATE
Unit Type : OCS (Other combustion source)
Unit Description :
Other Unit Name :
Small Unit Aggregation Details:
Use Ivt Indicator: Y
Highest Maximum Rated Heat Input Capacity: 1.55
Cumulative Maximum Rated Heat Input Capacity:

Emission Details:
Annual CO2 mass emissions from sorbent: 0 (Metric Tons)
Annual Biogenic CO2 Emissions: 0 (metric tons)
Annual Fossil fuel based CO2 Emissions: 26.3 (metric tons)

Tier Fuel Details:
Fuel : Distillate Fuel Oil No. 2
Tier Name : Tier 1 (Equation C-1)
Tier Methodology Start Date : 2019-01-01
Tier Methodology End Date : 2019-12-31

Fuel Emission Details :
Total CO2 emissionsTotal CH4 emissionsTotal N2O emissionsTotal CH4 emissions CO2eTotal N2O emissions CO2e
26.3 (Metric Tons) 0.00 (Metric Tons) 0.000 (Metric Tons) 0 (Metric Tons) 0.1 (Metric Tons)


Unit Name : EOWD_A2500A
Unit Type : RICE (Reciprocating internal combustion engine)
Unit Description :
Individual Unit Details:
Use Ivt Indicator: Y
Maximum Rated Heat Input Capacity: 1.54 (mmBtu/hr)

Emission Details:
Annual CO2 mass emissions from sorbent: 0 (Metric Tons)
Annual Biogenic CO2 Emissions: 0 (metric tons)

Tier Fuel Details:
Fuel : Natural Gas (Weighted U.S. Average)
Tier Name : Tier 2 (Equation C-2a)
Tier Methodology Start Date : 2019-01-01
Tier Methodology End Date : 2019-12-31
Frequency of HHV determinations : Quarterly

Tier 2 Monthly HHV Details :
JanuaryFebruaryMarchAprilMayJuneJulyAugustSeptemberOctoberNovemberDecember
N N N N N N N N N N N N

Fuel Emission Details :
Total CO2 emissionsTotal CH4 emissionsTotal N2O emissionsTotal CH4 emissions CO2eTotal N2O emissions CO2e
0.0 (Metric Tons) 0.00 (Metric Tons) 0.000 (Metric Tons) 0 (Metric Tons) 0 (Metric Tons)


Unit Name : EOWD_B2000
Unit Type : RICE (Reciprocating internal combustion engine)
Unit Description :
Individual Unit Details:
Use Ivt Indicator: Y
Maximum Rated Heat Input Capacity: 0.51 (mmBtu/hr)

Emission Details:
Annual CO2 mass emissions from sorbent: 0 (Metric Tons)
Annual Biogenic CO2 Emissions: 0 (metric tons)

Tier Fuel Details:
Fuel : Natural Gas (Weighted U.S. Average)
Tier Name : Tier 2 (Equation C-2a)
Tier Methodology Start Date : 2019-01-01
Tier Methodology End Date : 2019-12-31
Frequency of HHV determinations : Quarterly

Tier 2 Monthly HHV Details :
JanuaryFebruaryMarchAprilMayJuneJulyAugustSeptemberOctoberNovemberDecember
N N N N N N N N N N N N

Fuel Emission Details :
Total CO2 emissionsTotal CH4 emissionsTotal N2O emissionsTotal CH4 emissions CO2eTotal N2O emissions CO2e
0.1 (Metric Tons) 0.00 (Metric Tons) 0.000 (Metric Tons) 0 (Metric Tons) 0 (Metric Tons)


Unit Name : USCP_TO 35
Unit Type : TODF (Thermal oxidizer, direct fired, no heat recovery)
Unit Description :
Individual Unit Details:
Use Ivt Indicator: Y
Maximum Rated Heat Input Capacity: 14 (mmBtu/hr)

Emission Details:
Annual CO2 mass emissions from sorbent: 0 (Metric Tons)
Annual Biogenic CO2 Emissions: 0 (metric tons)

Tier Fuel Details:
Fuel : Natural Gas (Weighted U.S. Average)
Tier Name : Tier 2 (Equation C-2a)
Tier Methodology Start Date : 2019-01-01
Tier Methodology End Date : 2019-12-31
Frequency of HHV determinations : Quarterly

Tier 2 Monthly HHV Details :
JanuaryFebruaryMarchAprilMayJuneJulyAugustSeptemberOctoberNovemberDecember
N N N N N N N N N N N N

Fuel Emission Details :
Total CO2 emissionsTotal CH4 emissionsTotal N2O emissionsTotal CH4 emissions CO2eTotal N2O emissions CO2e
1415.8 (Metric Tons) 0.03 (Metric Tons) 0.003 (Metric Tons) 0.7 (Metric Tons) 0.8 (Metric Tons)


Unit Name : DPO_F61
Unit Type : F (Furnace)
Unit Description :
Individual Unit Details:
Use Ivt Indicator: Y
Maximum Rated Heat Input Capacity: 10 (mmBtu/hr)

Emission Details:
Annual CO2 mass emissions from sorbent: 0 (Metric Tons)
Annual Biogenic CO2 Emissions: 0 (metric tons)

Tier Fuel Details:
Fuel : Natural Gas (Weighted U.S. Average)
Tier Name : Tier 2 (Equation C-2a)
Tier Methodology Start Date : 2019-01-01
Tier Methodology End Date : 2019-12-31
Frequency of HHV determinations : Quarterly

Tier 2 Monthly HHV Details :
JanuaryFebruaryMarchAprilMayJuneJulyAugustSeptemberOctoberNovemberDecember
N N N N N N N N N N N N

Fuel Emission Details :
Total CO2 emissionsTotal CH4 emissionsTotal N2O emissionsTotal CH4 emissions CO2eTotal N2O emissions CO2e
2660.2 (Metric Tons) 0.05 (Metric Tons) 0.005 (Metric Tons) 1.3 (Metric Tons) 1.5 (Metric Tons)


Unit Name : DPO_F62
Unit Type : F (Furnace)
Unit Description :
Individual Unit Details:
Use Ivt Indicator: Y
Maximum Rated Heat Input Capacity: 10 (mmBtu/hr)

Emission Details:
Annual CO2 mass emissions from sorbent: 0 (Metric Tons)
Annual Biogenic CO2 Emissions: 0 (metric tons)

Tier Fuel Details:
Fuel : Natural Gas (Weighted U.S. Average)
Tier Name : Tier 2 (Equation C-2a)
Tier Methodology Start Date : 2019-01-01
Tier Methodology End Date : 2019-12-31
Frequency of HHV determinations : Quarterly

Tier 2 Monthly HHV Details :
JanuaryFebruaryMarchAprilMayJuneJulyAugustSeptemberOctoberNovemberDecember
N N N N N N N N N N N N

Fuel Emission Details :
Total CO2 emissionsTotal CH4 emissionsTotal N2O emissionsTotal CH4 emissions CO2eTotal N2O emissions CO2e
2506.6 (Metric Tons) 0.05 (Metric Tons) 0.005 (Metric Tons) 1.2 (Metric Tons) 1.4 (Metric Tons)


Unit Name : DPO_TO
Unit Type : TODF (Thermal oxidizer, direct fired, no heat recovery)
Unit Description :
Individual Unit Details:
Use Ivt Indicator: Y
Maximum Rated Heat Input Capacity: 6 (mmBtu/hr)

Emission Details:
Annual CO2 mass emissions from sorbent: 0 (Metric Tons)
Annual Biogenic CO2 Emissions: 0 (metric tons)

Tier Fuel Details:
Fuel : Natural Gas (Weighted U.S. Average)
Tier Name : Tier 2 (Equation C-2a)
Tier Methodology Start Date : 2019-01-01
Tier Methodology End Date : 2019-12-31
Frequency of HHV determinations : Quarterly

Tier 2 Monthly HHV Details :
JanuaryFebruaryMarchAprilMayJuneJulyAugustSeptemberOctoberNovemberDecember
N N N N N N N N N N N N

Fuel Emission Details :
Total CO2 emissionsTotal CH4 emissionsTotal N2O emissionsTotal CH4 emissions CO2eTotal N2O emissions CO2e
912.4 (Metric Tons) 0.02 (Metric Tons) 0.002 (Metric Tons) 0.4 (Metric Tons) 0.5 (Metric Tons)


Unit Name : CP-PWR9 Boilers
Unit Type : OCS (Other combustion source)
Unit Description :
Other Unit Name :
Common Pipe Details:
Use Ivt Indicator: Y
Maximum Rated Heat Input Capacity: 550
Cumulative Maximum Rated Heat Input Capacity: 2200

Emission Details:
Annual Biogenic CO2 Emissions: 0 (metric tons)
Annual Fossil fuel based CO2 Emissions: 43 (metric tons)

Tier Fuel Details:
Fuel : Natural Gas (Weighted U.S. Average)
Tier Name : Tier 2 (Equation C-2a)
Tier Methodology Start Date : 2019-01-01
Tier Methodology End Date : 2019-12-31
Frequency of HHV determinations : Quarterly

Tier 2 Monthly HHV Details :
JanuaryFebruaryMarchAprilMayJuneJulyAugustSeptemberOctoberNovemberDecember
N N N N N N N N N N N N

Fuel Emission Details :
Total CO2 emissionsTotal CH4 emissionsTotal N2O emissionsTotal CH4 emissions CO2eTotal N2O emissions CO2e
5.3 (Metric Tons) 0.00 (Metric Tons) 0.000 (Metric Tons) 0 (Metric Tons) 0 (Metric Tons)


Fuel : Hydrogen (Other (gas))
Tier Name : Tier 3 (Equation C-5, gaseous fuel)
Tier Methodology Start Date : 2019-01-01
Tier Methodology End Date : 2019-12-31

Fuel Emission Details :
Total CO2 emissionsTotal CH4 emissionsTotal N2O emissionsTotal CH4 emissions CO2eTotal N2O emissions CO2e
37.7 (Metric Tons) () () () ()

Carbon Content Substitute Data Information :
Total number of valid carbon content determinations : 12
Total number of carbon content substitute data values : 0
Frequency of carbon content determinations : Monthly
Total number of operating hours in the reporting year for which missing data substitution was used for fuel usage : 0

Molecular Weight Information :
Total number of valid molecular weight determinations : 12
Total number of molecular weight substitute data values : 0
Frequency of molecular weight determinations : Monthly
Molar Volume Constant (MVC) used : 849.5 (scf/kg-mole)

Unit Name : CP-PDH1 HEATERS
Unit Type : OCS (Other combustion source)
Unit Description :
Other Unit Name :
Common Pipe Details:
Use Ivt Indicator: Y
Maximum Rated Heat Input Capacity: 230
Cumulative Maximum Rated Heat Input Capacity: 920

Emission Details:
Annual Biogenic CO2 Emissions: 0 (metric tons)
Annual Fossil fuel based CO2 Emissions: 168118.8 (metric tons)

Tier Fuel Details:
Fuel : Fuel Gas
Tier Name : Tier 3 (Equation C-5, gaseous fuel)
Tier Methodology Start Date : 2019-01-01
Tier Methodology End Date : 2019-12-31

Fuel Emission Details :
Total CO2 emissionsTotal CH4 emissionsTotal N2O emissionsTotal CH4 emissions CO2eTotal N2O emissions CO2e
170825.2 (Metric Tons) 14.21 (Metric Tons) 2.841 (Metric Tons) 355.2 (Metric Tons) 846.7 (Metric Tons)

Carbon Content Substitute Data Information :
Total number of valid carbon content determinations : 12
Total number of carbon content substitute data values : 0
Frequency of carbon content determinations : Monthly
Total number of operating hours in the reporting year for which missing data substitution was used for fuel usage : 0

Molecular Weight Information :
Total number of valid molecular weight determinations : 12
Total number of molecular weight substitute data values : 0
Frequency of molecular weight determinations : Monthly
Molar Volume Constant (MVC) used : 849.5 (scf/kg-mole)

Unit Name : PE5_Furnace 510
Unit Type : F (Furnace)
Unit Description :
Individual Unit Details:
Use Ivt Indicator: Y
Maximum Rated Heat Input Capacity: 73 (mmBtu/hr)

Emission Details:
Annual CO2 mass emissions from sorbent: 0 (Metric Tons)
Annual Biogenic CO2 Emissions: 0 (metric tons)

Tier Fuel Details:
Fuel : Natural Gas (Weighted U.S. Average)
Tier Name : Tier 2 (Equation C-2a)
Tier Methodology Start Date : 2019-01-01
Tier Methodology End Date : 2019-12-31
Frequency of HHV determinations : Quarterly

Tier 2 Monthly HHV Details :
JanuaryFebruaryMarchAprilMayJuneJulyAugustSeptemberOctoberNovemberDecember
N N N N N N N N N N N N

Fuel Emission Details :
Total CO2 emissionsTotal CH4 emissionsTotal N2O emissionsTotal CH4 emissions CO2eTotal N2O emissions CO2e
2116.8 (Metric Tons) 0.04 (Metric Tons) 0.004 (Metric Tons) 1 (Metric Tons) 1.2 (Metric Tons)



Subpart W: Petroleum and Natural Gas Systems

Gas Information Details

Gas NameCarbon Dioxide
Gas Quantity15.8 (Metric Tons)
Own Result?

Gas NameMethane
Gas Quantity546.64 (Metric Tons)
Own Result?

Gas NameNitrous Oxide
Gas Quantity0 (Metric Tons)
Own Result?


SubpartWSummaryDetails:
Industry Segment Number5
Industry Segment NameUnderground natural gas storage [98.230(a)(5)]
Total Reported CO2 Emissions (mt CO2)15.8
Total CO2e Emissions (mt CO2e)13681.8
Total Reported CH4 Emissions (mt CH4)546.64
Total Reported N2O Emissions (mt N2O)0.000


SubpartWSourceReportingFormRowDetails:
Source Reporting FormOnshore Production [98.236(aa)(1)]
Required for Selected Industry SegmentNo
Source Reporting FormFacility Overview [98.236(aa)(2-11)]
Required for Selected Industry SegmentYes
Source Reporting FormNatural Gas Pneumatic Devices [98.236(b)]
Required for Selected Industry SegmentYes
Total Reported CO2 Emissions (mt CO2)0.0
Total Reported CH4 Emissions (mt CH4)0.00
Source Reporting FormNatural Gas Driven Pneumatic Pumps [98.236(c)]
Required for Selected Industry SegmentNo
Total Reported CO2 Emissions (mt CO2)0.0
Total Reported CH4 Emissions (mt CH4)0.00
Source Reporting FormAcid Gas Removal Units [98.236(d)]
Required for Selected Industry SegmentNo
Total Reported CO2 Emissions (mt CO2)0.0
Source Reporting FormDehydrators [98.236(e)]
Required for Selected Industry SegmentNo
Total Reported CO2 Emissions (mt CO2)0.0
Total Reported CH4 Emissions (mt CH4)0.00
Total Reported N2O Emissions (mt N2O)0.000
Source Reporting FormWell Venting for Liquids Unloading [98.236(f)]
Required for Selected Industry SegmentNo
Total Reported CO2 Emissions (mt CO2)0.0
Total Reported CH4 Emissions (mt CH4)0.00
Source Reporting FormCompletions and Workovers with Hydraulic Fracturing [98.236(g)]
Required for Selected Industry SegmentNo
Total Reported CO2 Emissions (mt CO2)0.0
Total Reported CH4 Emissions (mt CH4)0.00
Total Reported N2O Emissions (mt N2O)0.000
Source Reporting FormCompletions and Workovers without Hydraulic Fracturing [98.236(h)]
Required for Selected Industry SegmentNo
Total Reported CO2 Emissions (mt CO2)0.0
Total Reported CH4 Emissions (mt CH4)0.00
Total Reported N2O Emissions (mt N2O)0.000
Source Reporting FormBlowdown Vent Stacks [98.236(i)]
Required for Selected Industry SegmentNo
Total Reported CO2 Emissions (mt CO2)0.0
Total Reported CH4 Emissions (mt CH4)0.00
Source Reporting FormAtmospheric Storage Tanks [98.236(j)]
Required for Selected Industry SegmentNo
Total Reported CO2 Emissions (mt CO2)0.0
Total Reported CH4 Emissions (mt CH4)0.00
Total Reported N2O Emissions (mt N2O)0.000
Source Reporting FormTransmission Storage Tanks [98.236(k)]
Required for Selected Industry SegmentNo
Total Reported CO2 Emissions (mt CO2)0.0
Total Reported CH4 Emissions (mt CH4)0.00
Total Reported N2O Emissions (mt N2O)0.000
Source Reporting FormWell Testing [98.236(l)]
Required for Selected Industry SegmentNo
Total Reported CO2 Emissions (mt CO2)0.0
Total Reported CH4 Emissions (mt CH4)0.00
Total Reported N2O Emissions (mt N2O)0.000
Source Reporting FormAssociated Gas Venting and Flaring [98.236(m)]
Required for Selected Industry SegmentNo
Total Reported CO2 Emissions (mt CO2)0.0
Total Reported CH4 Emissions (mt CH4)0.00
Total Reported N2O Emissions (mt N2O)0.000
Source Reporting FormFlare Stacks [98.236(n)]
Required for Selected Industry SegmentYes
Total Reported CO2 Emissions (mt CO2)0.0
Total Reported CH4 Emissions (mt CH4)0.00
Total Reported N2O Emissions (mt N2O)0.000
Source Reporting FormCentrifugal Compressors [98.236(o)]
Required for Selected Industry SegmentYes
Total Reported CO2 Emissions (mt CO2)0.0
Total Reported CH4 Emissions (mt CH4)0.00
Source Reporting FormReciprocating Compressors [98.236(p)]
Required for Selected Industry SegmentYes
Total Reported CO2 Emissions (mt CO2)15.5
Total Reported CH4 Emissions (mt CH4)537.29
Source Reporting FormEquipment Leaks Surveys and Population Counts [98.236(q,r)]
Required for Selected Industry SegmentYes
Total Reported CO2 Emissions (mt CO2)0.3
Total Reported CH4 Emissions (mt CH4)9.35
Source Reporting FormOffshore Petroleum and Natural Gas Production [98.236(s)]
Required for Selected Industry SegmentNo
Total Reported CO2 Emissions (mt CO2)0.0
Total Reported CH4 Emissions (mt CH4)0.00
Total Reported N2O Emissions (mt N2O)0.000
Source Reporting FormEnhanced Oil Recovery Injection Pumps [98.236(w)]
Required for Selected Industry SegmentNo
Total Reported CO2 Emissions (mt CO2)0.0
Source Reporting FormEnhanced Oil Recovery Hydrocarbon Liquids [98.236(x)]
Required for Selected Industry SegmentNo
Total Reported CO2 Emissions (mt CO2)0.0
Source Reporting FormCombustion Equipment at Onshore Petroleum and Natural Gas Production Facilities, Onshore Petroleum and Natural Gas Gathering and Boosting Facilities, and Natural gas Distribution Facilities [98.236(z)]
Required for Selected Industry SegmentNo
Total Reported CO2 Emissions (mt CO2)0.0
Total Reported CH4 Emissions (mt CH4)0.00
Total Reported N2O Emissions (mt N2O)0.000


FacilityOverviewDetails:


FacilityOverviewUndergroundNaturalGasRowDetails:
Quantity of gas injected into storage in the calendar year (thousand standard cubic feet) [98.236(aa)(5)(i)]354632
Quantity of gas withdrawn from storage in the calendar year (thousand standard cubic feet) [98.236(aa)(5)(ii)]294855
Total storage capacity (thousand standard cubic feet) [98.236(aa)(5)(iii)]2003000


PneumaticDeviceVentingDetails:
mt CO20.0
mt CH40.00
Did the Facility have any continuous high-bleed pneumatic devices subject to reporting under 98.232 [98.236(b)]?No
Did the Facility have any intermittent bleed pneumatic devices subject to reporting under 98.232 [98.236(b)]?No
Did the Facility have any continuous low-bleed pneumatic devices subject to reporting under 98.232 [98.236(b)]?No


PneumaticDeviceTypesRowDetails:
Type of Pneumatic DeviceHigh-bleed Pneumatic Devices
Type of Pneumatic DeviceIntermittent Bleed Pneumatic Devices
Type of Pneumatic DeviceLow-Bleed Pneumatic Devices


FlareStacksDetails:
mt CO20.0
mt CH40.00
mt N2O0.000
Did the facility have flare stacks subject to reporting under 98.232 [98.236(n)]?No


CentrifugalCompressorsDetails:
mt CO20.0
mt CH40.00
Did the facility have any centrifugal compressors subject to reporting under 98.232 [98.236(o)]?No


ReciprocatingCompressorsDetails:
mt CO215.5
mt CH4537.29
Did the facility have any reciprocating compressors subject to reporting under 98.232 [98.236(p)]?Yes
Were missing data procedures used for any parameters to calculate GHG emissions? [98.235]No


ReciprocatingCompressorsActivityDataRowDetails:
Unique name or ID for reciprocating compressor [98.236(p)(1)(i)]Compressor C14
Total time in operating-mode (hours) [98.236(p)(1)(ii)]1075
Total time in standby-pressurized-mode (hours) [98.236(p)(1)(iii)]2969
Total time in not-operating-depressurized-mode (hours) [98.236(p)(1)(iv)]4716
Compressor measured in operating-mode? [98.236(p)(1)(v)]Yes
Compressor measured in standby-pressurized-mode? [98.236(p)(1)(vi)]No
Compressor measured in not-operating-depressurized-mode? [98.236(p)(1)(vii)]Yes
Compressor had blind flanges installed? [98.236(p)(1)(xii)]Yes
Dates for blind flange installation (mm/dd/yyyy - mm/dd/yyyy) [98.236(p)(1)(xii)]10/14/2019 - 12/12/2019
Power output of compressor driver (hp) [98.236(p)(1)(xiii)]1000
Compressor had scheduled depressurized shutdown during reporting year? [98.236(p)(1)(xiv)]Yes


ReciprocatingCompressorSourceRowDetails:
Unique name or ID for reciprocating compressor [98.236(p)(2)(i)(A)]Compressor C14
Reciprocating compressor source [98.236(p)(2)(i)(B)]Blowdown valve
Unique Name or ID for leak or vent [98.236(p)(2)(i)(C)]Station Vent Stack OPR
Unique name or ID for reciprocating compressor [98.236(p)(2)(i)(A)]Compressor C14
Reciprocating compressor source [98.236(p)(2)(i)(B)]Isolation valve
Unique Name or ID for leak or vent [98.236(p)(2)(i)(C)]Station Vent Stack SHDN
Unique name or ID for reciprocating compressor [98.236(p)(2)(i)(A)]Compressor C14
Reciprocating compressor source [98.236(p)(2)(i)(B)]Rod packing
Unique Name or ID for leak or vent [98.236(p)(2)(i)(C)]C14 Rod Packing Vent


ReciprocatingCompressorsLeakOrVentSampleDataRowDetails:
Unique Name or ID for leak or vent (Specify) [98.236(p)(2)(i)(C)] [98.236(p)(3)(i)(A)]Station Vent Stack OPR
Measurement date (mm/dd/yyyy) [98.236(p)(3)(i)(B)]2019-05-06
Measurement method [98.236(p)(3)(i)(C)]Temporary meter
Measured flow rate (standard cubic feet/hour) [98.236(p)(3)(i)(D)]4498
Is the measurement location prior to or after commingling with non-compressor emission sources? [98.236(p)(3)(i)(F)]After commingling
Compressors in “Operating mode”Compressor C14
Unique Name or ID for leak or vent (Specify) [98.236(p)(2)(i)(C)] [98.236(p)(3)(i)(A)]Station Vent Stack SHDN
Measurement date (mm/dd/yyyy) [98.236(p)(3)(i)(B)]2019-05-06
Measurement method [98.236(p)(3)(i)(C)]Temporary meter
Measured flow rate (standard cubic feet/hour) [98.236(p)(3)(i)(D)]4267
Is the measurement location prior to or after commingling with non-compressor emission sources? [98.236(p)(3)(i)(F)]After commingling
Compressors in “Not-operating mode”Compressor C14
Unique Name or ID for leak or vent (Specify) [98.236(p)(2)(i)(C)] [98.236(p)(3)(i)(A)]C14 Rod Packing Vent
Measurement date (mm/dd/yyyy) [98.236(p)(3)(i)(B)]2019-05-06
Measurement method [98.236(p)(3)(i)(C)]Calibrated bagging
Measured flow rate (standard cubic feet/hour) [98.236(p)(3)(i)(D)]0
Is the measurement location prior to or after commingling with non-compressor emission sources? [98.236(p)(3)(i)(F)]Not manifolded
Compressors in “Operating mode”Compressor C14


ReciprocatingCompressorsEmissionFactorsSampleDataRowDetails:
Compressor Mode [98.236(p)(3)(ii)(A)]Operating
Compressor Source [98.236(p)(3)(ii)(A)]Blowdown valve
Compressor mode-source combination reporter emission factor, EFs,m (standard cubic feet per hour) [98.236(p)(3)(ii)(B)]1515.1333333
Total number of compressors measured in the compressor mode-source combination in current reporting year and preceding two reporting years, Countm [98.236(p)(3)(ii)(C)]3
Is the reporter emission factor facility-specific or based on all of the reporter's applicable facilities? [98.236(p)(3)(ii)(D)]Facility-specific
Compressor Mode [98.236(p)(3)(ii)(A)]Operating
Compressor Source [98.236(p)(3)(ii)(A)]Rod packing
Compressor mode-source combination reporter emission factor, EFs,m (standard cubic feet per hour) [98.236(p)(3)(ii)(B)]0.0366667
Total number of compressors measured in the compressor mode-source combination in current reporting year and preceding two reporting years, Countm [98.236(p)(3)(ii)(C)]3
Is the reporter emission factor facility-specific or based on all of the reporter's applicable facilities? [98.236(p)(3)(ii)(D)]Facility-specific
Compressor Mode [98.236(p)(3)(ii)(A)]Standby-pressurized
Compressor Source [98.236(p)(3)(ii)(A)]Blowdown valve
Compressor mode-source combination reporter emission factor, EFs,m (standard cubic feet per hour) [98.236(p)(3)(ii)(B)]1515.1333333
Total number of compressors measured in the compressor mode-source combination in current reporting year and preceding two reporting years, Countm [98.236(p)(3)(ii)(C)]3
Is the reporter emission factor facility-specific or based on all of the reporter's applicable facilities? [98.236(p)(3)(ii)(D)]Facility-specific
Compressor Mode [98.236(p)(3)(ii)(A)]Not-operating-depressurized
Compressor Source [98.236(p)(3)(ii)(A)]Isolation valve
Compressor mode-source combination reporter emission factor, EFs,m (standard cubic feet per hour) [98.236(p)(3)(ii)(B)]1422.4066667
Total number of compressors measured in the compressor mode-source combination in current reporting year and preceding two reporting years, Countm [98.236(p)(3)(ii)(C)]3
Is the reporter emission factor facility-specific or based on all of the reporter's applicable facilities? [98.236(p)(3)(ii)(D)]Facility-specific


ReciprocatingCompressorsLeakOrVentDataRowDetails:
Unique Name or ID for leak or vent [98.236(p)(2)(i)(C)]Station Vent Stack OPR
Leak or vent for a single compressor source or a manifolded group? [98.236(p)(2)(ii)(A)] [98.236(p)(1)(viii)]Single
Where are leak or vent emissions released? [98.236(p)(2)(ii)(A)] [98.236(p)(1)(ix) through (xi)]Atmosphere
Was an "as found" measurement conducted on the leak or vent? [98.236(p)(2)(ii)(B)]Yes
Were continuous measurements conducted on the leak or vent? [98.236(p)(2)(ii)(C)]No
CO2 Emissions vented to atmosphere (mt CO2) [98.236(p)(2)(ii)(D)(1)]4.9095687
CH4 Emissions vented to atmosphere (mt CH4) [98.236(p)(2)(ii)(D)(2)]170.248163
Unique Name or ID for leak or vent [98.236(p)(2)(i)(C)]Station Vent Stack SHDN
Leak or vent for a single compressor source or a manifolded group? [98.236(p)(2)(ii)(A)] [98.236(p)(1)(viii)]Single
Where are leak or vent emissions released? [98.236(p)(2)(ii)(A)] [98.236(p)(1)(ix) through (xi)]Atmosphere
Was an "as found" measurement conducted on the leak or vent? [98.236(p)(2)(ii)(B)]Yes
Were continuous measurements conducted on the leak or vent? [98.236(p)(2)(ii)(C)]No
CO2 Emissions vented to atmosphere (mt CO2) [98.236(p)(2)(ii)(D)(1)]10.5847885
CH4 Emissions vented to atmosphere (mt CH4) [98.236(p)(2)(ii)(D)(2)]367.0466573
Unique Name or ID for leak or vent [98.236(p)(2)(i)(C)]C14 Rod Packing Vent
Leak or vent for a single compressor source or a manifolded group? [98.236(p)(2)(ii)(A)] [98.236(p)(1)(viii)]Single
Where are leak or vent emissions released? [98.236(p)(2)(ii)(A)] [98.236(p)(1)(ix) through (xi)]Atmosphere
Was an "as found" measurement conducted on the leak or vent? [98.236(p)(2)(ii)(B)]Yes
Were continuous measurements conducted on the leak or vent? [98.236(p)(2)(ii)(C)]No
CO2 Emissions vented to atmosphere (mt CO2) [98.236(p)(2)(ii)(D)(1)]0
CH4 Emissions vented to atmosphere (mt CH4) [98.236(p)(2)(ii)(D)(2)]0


OtherEmissionsFromEquipmentLeaksDetails:
mt CO20.3
mt CH49.35
Did this facility use leak surveys to calculate emissions from equipment leaks in accordance with 98.232 [per 98.236(q)]?Yes
Did this facility use population counts to calculate emissions from equipment leaks in accordance with 98.232 [per 98.236(r)]?Yes
Did the facility elect to comply with 98.236(q) according to 98.233(q)(1)(iv) for any components at the facility [per 98.236(q)(1)(iv)]?Yes
Were missing data procedures used for any parameters to calculate GHG emissions? [98.235]No
Number of complete equipment leak surveys performed during the calendar year [98.236(q)(1)(i)]1
Method 21 [98.234(a)(2)]Yes


UndergroundStorageEmissionsFactorsRowDetails:
Component Type [98.236(q)(2)(i)]Storage Station, Gas Service - Valve
Total number of surveyed component type identified as leaking, xp [98.236(q)(2)(ii)]2
Average time the surveyed components are assumed to be leaking and operational, Tp,z (hours) [98.236(q)(2)(iii)]4380
CO2 Emissions (surveyed components identified as leaking only) (mt CO2) [98.236(q)(2)(iv)]0.0752171
CH4 Emissions (surveyed components identified as leaking only) (mt CH4) [98.236(q)(2)(v)]2.43357
Component Type [98.236(q)(2)(i)]Storage Station, Gas Service - Connector (other)
Total number of surveyed component type identified as leaking, xp [98.236(q)(2)(ii)]0
Average time the surveyed components are assumed to be leaking and operational, Tp,z (hours) [98.236(q)(2)(iii)]0
CO2 Emissions (surveyed components identified as leaking only) (mt CO2) [98.236(q)(2)(iv)]0
CH4 Emissions (surveyed components identified as leaking only) (mt CH4) [98.236(q)(2)(v)]0
Component Type [98.236(q)(2)(i)]Storage Station, Gas Service - Open-ended Line
Total number of surveyed component type identified as leaking, xp [98.236(q)(2)(ii)]0
Average time the surveyed components are assumed to be leaking and operational, Tp,z (hours) [98.236(q)(2)(iii)]0
CO2 Emissions (surveyed components identified as leaking only) (mt CO2) [98.236(q)(2)(iv)]0
CH4 Emissions (surveyed components identified as leaking only) (mt CH4) [98.236(q)(2)(v)]0
Component Type [98.236(q)(2)(i)]Storage Station, Gas Service - Pressure Relief Valve
Total number of surveyed component type identified as leaking, xp [98.236(q)(2)(ii)]0
Average time the surveyed components are assumed to be leaking and operational, Tp,z (hours) [98.236(q)(2)(iii)]0
CO2 Emissions (surveyed components identified as leaking only) (mt CO2) [98.236(q)(2)(iv)]0
CH4 Emissions (surveyed components identified as leaking only) (mt CH4) [98.236(q)(2)(v)]0
Component Type [98.236(q)(2)(i)]Storage Station, Gas Service - Meter and Instrument
Total number of surveyed component type identified as leaking, xp [98.236(q)(2)(ii)]0
Average time the surveyed components are assumed to be leaking and operational, Tp,z (hours) [98.236(q)(2)(iii)]0
CO2 Emissions (surveyed components identified as leaking only) (mt CO2) [98.236(q)(2)(iv)]0
CH4 Emissions (surveyed components identified as leaking only) (mt CH4) [98.236(q)(2)(v)]0
Component Type [98.236(q)(2)(i)]Storage Station, Gas Service - Other
Total number of surveyed component type identified as leaking, xp [98.236(q)(2)(ii)]0
Average time the surveyed components are assumed to be leaking and operational, Tp,z (hours) [98.236(q)(2)(iii)]0
CO2 Emissions (surveyed components identified as leaking only) (mt CO2) [98.236(q)(2)(iv)]0
CH4 Emissions (surveyed components identified as leaking only) (mt CH4) [98.236(q)(2)(v)]0
Component Type [98.236(q)(2)(i)]Storage Wellheads, Gas Service - Valve
Total number of surveyed component type identified as leaking, xp [98.236(q)(2)(ii)]0
Average time the surveyed components are assumed to be leaking and operational, Tp,z (hours) [98.236(q)(2)(iii)]0
CO2 Emissions (surveyed components identified as leaking only) (mt CO2) [98.236(q)(2)(iv)]0
CH4 Emissions (surveyed components identified as leaking only) (mt CH4) [98.236(q)(2)(v)]0
Component Type [98.236(q)(2)(i)]Storage Wellheads, Gas Service - Connector (other than flanges)
Total number of surveyed component type identified as leaking, xp [98.236(q)(2)(ii)]0
Average time the surveyed components are assumed to be leaking and operational, Tp,z (hours) [98.236(q)(2)(iii)]0
CO2 Emissions (surveyed components identified as leaking only) (mt CO2) [98.236(q)(2)(iv)]0
CH4 Emissions (surveyed components identified as leaking only) (mt CH4) [98.236(q)(2)(v)]0
Component Type [98.236(q)(2)(i)]Storage Wellheads, Gas Service - Flange
Total number of surveyed component type identified as leaking, xp [98.236(q)(2)(ii)]0
Average time the surveyed components are assumed to be leaking and operational, Tp,z (hours) [98.236(q)(2)(iii)]0
CO2 Emissions (surveyed components identified as leaking only) (mt CO2) [98.236(q)(2)(iv)]0
CH4 Emissions (surveyed components identified as leaking only) (mt CH4) [98.236(q)(2)(v)]0
Component Type [98.236(q)(2)(i)]Storage Wellheads, Gas Service - Open-Ended Line
Total number of surveyed component type identified as leaking, xp [98.236(q)(2)(ii)]0
Average time the surveyed components are assumed to be leaking and operational, Tp,z (hours) [98.236(q)(2)(iii)]0
CO2 Emissions (surveyed components identified as leaking only) (mt CO2) [98.236(q)(2)(iv)]0
CH4 Emissions (surveyed components identified as leaking only) (mt CH4) [98.236(q)(2)(v)]0
Component Type [98.236(q)(2)(i)]Storage Wellheads, Gas Service - Pressure Relief Valve
Total number of surveyed component type identified as leaking, xp [98.236(q)(2)(ii)]0
Average time the surveyed components are assumed to be leaking and operational, Tp,z (hours) [98.236(q)(2)(iii)]0
CO2 Emissions (surveyed components identified as leaking only) (mt CO2) [98.236(q)(2)(iv)]0
CH4 Emissions (surveyed components identified as leaking only) (mt CH4) [98.236(q)(2)(v)]0
Component Type [98.236(q)(2)(i)]Storage Wellheads, Gas Service - Other
Total number of surveyed component type identified as leaking, xp [98.236(q)(2)(ii)]0
Average time the surveyed components are assumed to be leaking and operational, Tp,z (hours) [98.236(q)(2)(iii)]0
CO2 Emissions (surveyed components identified as leaking only) (mt CO2) [98.236(q)(2)(iv)]0
CH4 Emissions (surveyed components identified as leaking only) (mt CH4) [98.236(q)(2)(v)]0


GasEstimatingEmissionsRowDetails:
Emission Source Type (Eq. W-32A) [98.232] [98.233(r)(1)]Storage wellheads, Gas Service - Valves
Total number of emission source type, Counte [98.236(r)(1)(ii)]278
Average estimated time that the emission source type was operational in the calendar year, Te (hours) [98.236(r)(1)(iii)]8760
CO2 Emissions (mt CO2) [98.236(r)(1)(iv)]0.1409053
CH4 Emissions (mt CH4) [98.236(r)(1)(v)]4.5588442
Emission Source Type (Eq. W-32A) [98.232] [98.233(r)(1)]Storage wellheads, Gas Service - Connector
Total number of emission source type, Counte [98.236(r)(1)(ii)]1334
Average estimated time that the emission source type was operational in the calendar year, Te (hours) [98.236(r)(1)(iii)]8760
CO2 Emissions (mt CO2) [98.236(r)(1)(iv)]0.0676143
CH4 Emissions (mt CH4) [98.236(r)(1)(v)]2.1875892
Emission Source Type (Eq. W-32A) [98.232] [98.233(r)(1)]Storage wellheads, Gas Service - Open-ended line
Total number of emission source type, Counte [98.236(r)(1)(ii)]0
Average estimated time that the emission source type was operational in the calendar year, Te (hours) [98.236(r)(1)(iii)]8760
CO2 Emissions (mt CO2) [98.236(r)(1)(iv)]0
CH4 Emissions (mt CH4) [98.236(r)(1)(v)]0
Emission Source Type (Eq. W-32A) [98.232] [98.233(r)(1)]Storage wellheads, Gas Service - Pressure Relief Valve
Total number of emission source type, Counte [98.236(r)(1)(ii)]6
Average estimated time that the emission source type was operational in the calendar year, Te (hours) [98.236(r)(1)(iii)]8760
CO2 Emissions (mt CO2) [98.236(r)(1)(iv)]0.0051699
CH4 Emissions (mt CH4) [98.236(r)(1)(v)]0.1672669


Subpart X: Petrochemical Production


CEMS Monitoring Location (CML) Details for Subpart X

Gas Information Details

Gas NameCarbon Dioxide
Gas Quantity1,084,533.3 (Metric Tons)
Own Result?

Gas NameBiogenic Carbon dioxide
Gas Quantity0 (Metric Tons)
Own Result?

Gas NameMethane
Gas Quantity31.52 (Metric Tons)
Own Result?

Gas NameNitrous Oxide
Gas Quantity0.093 (Metric Tons)
Own Result?


Petrochemical Process Units

Petrochemical process units monitored using the mass balance methodology:

Name or ID:LHC 7 Mass Balance
Description:
Type:Petrochemical process unit
Identify combustion units:GP-LPFG Header Aggregate LHC7_FS1 LHC7_FS2 LHC7_H1 thru H5 Furnaces
AnnualCO2Emissions:50184.0 Metric Tons
Type of petrochemical produced:
Annual quantity of the petrochemical produced: 
Annual average carbon content of the wastewater: 
Annual average flow of wastewater:
Unit of measure for average flow of wastewater:
Annual mass of carbon released in fugitive emissions not controlled with a combustion device: 
Annual mass of carbon released in process vents not controlled with a combustion device: 

Feedstocks/Products:

Type:
State of Feedstock or product:
Identify each method (i.e., method number, title or other description) used to determine the flow or mass of each carbon-containing product or feedstock: Vortex
Annual quantity of feedstock or product: 
If applicable, dates for each process change that reduced the composition to less than 99.5%:
MonthVolume for month based on missing data procedureVolume measurement methodOther volume measurement methodCarbon content or composition for month based on missing data procedureCarbon content or composition determination methodSpecify the practiceOther MethodName or title of the alternative carbon content determination methodExplanation as to why an alternative carbon content determination method was neededFile name of the copy of the alternative carbon content determination methodMolecular weight for month based on missing data procedure, if applicableMolecular weight determination method, if applicableOther methodName or title of the alternative molecular weight determination methodExplanation as to why an alternative molecular weight determination method was neededFile name of the copy of the alternative molecular weight determination methodTemperature at which volume was measured
January N Flow meter N ASTM D1945-03 N Other (specify)GC Composition68 degrees Fahrenheit
February N Flow meter N ASTM D1945-03 N Other (specify)GC Composition68 degrees Fahrenheit
March N Flow meter N ASTM D1945-03 N Other (specify)GC Composition68 degrees Fahrenheit
April N Flow meter N ASTM D1945-03 N Other (specify)GC Composition68 degrees Fahrenheit
May N Flow meter N ASTM D1945-03 N Other (specify)GC Composition68 degrees Fahrenheit
June N Flow meter N ASTM D1945-03 N Other (specify)GC Composition68 degrees Fahrenheit
July N Flow meter N ASTM D1945-03 N Other (specify)GC Composition68 degrees Fahrenheit
August N Flow meter N ASTM D1945-03 N Other (specify)GC Composition68 degrees Fahrenheit
September N Flow meter N ASTM D1945-03 N Other (specify)GC Composition68 degrees Fahrenheit
October N Flow meter N ASTM D1945-03 N Other (specify)GC Composition68 degrees Fahrenheit
November N Flow meter N ASTM D1945-03 N Other (specify)GC Composition68 degrees Fahrenheit
December N Flow meter N ASTM D1945-03 N Other (specify)GC Composition68 degrees Fahrenheit

Type:
State of Feedstock or product:
Identify each method (i.e., method number, title or other description) used to determine the flow or mass of each carbon-containing product or feedstock: Orifice
Annual quantity of feedstock or product: 
If applicable, dates for each process change that reduced the composition to less than 99.5%:
MonthVolume for month based on missing data procedureVolume measurement methodOther volume measurement methodCarbon content or composition for month based on missing data procedureCarbon content or composition determination methodSpecify the practiceOther MethodName or title of the alternative carbon content determination methodExplanation as to why an alternative carbon content determination method was neededFile name of the copy of the alternative carbon content determination methodMolecular weight for month based on missing data procedure, if applicableMolecular weight determination method, if applicableOther methodName or title of the alternative molecular weight determination methodExplanation as to why an alternative molecular weight determination method was neededFile name of the copy of the alternative molecular weight determination methodTemperature at which volume was measured
January N Flow meter N Chromatographic analysis N
February N Flow meter N Chromatographic analysis N
March N Flow meter N Chromatographic analysis N
April N Flow meter N Chromatographic analysis N
May N Flow meter N Chromatographic analysis N
June N Flow meter N Chromatographic analysis N
July N Flow meter N Chromatographic analysis N
August N Flow meter N Chromatographic analysis N
September N Flow meter N Chromatographic analysis N
October N Flow meter N Chromatographic analysis N
November N Flow meter N Chromatographic analysis N
December N Flow meter N Chromatographic analysis N

Type:
State of Feedstock or product:
Identify each method (i.e., method number, title or other description) used to determine the flow or mass of each carbon-containing product or feedstock: Orifice
Annual quantity of feedstock or product: 
If applicable, dates for each process change that reduced the composition to less than 99.5%:
MonthVolume for month based on missing data procedureVolume measurement methodOther volume measurement methodCarbon content or composition for month based on missing data procedureCarbon content or composition determination methodSpecify the practiceOther MethodName or title of the alternative carbon content determination methodExplanation as to why an alternative carbon content determination method was neededFile name of the copy of the alternative carbon content determination methodMolecular weight for month based on missing data procedure, if applicableMolecular weight determination method, if applicableOther methodName or title of the alternative molecular weight determination methodExplanation as to why an alternative molecular weight determination method was neededFile name of the copy of the alternative molecular weight determination methodTemperature at which volume was measured
January N Flow meter N Chromatographic analysis N
February N Flow meter N Chromatographic analysis N
March N Flow meter N Chromatographic analysis N
April N Flow meter N Chromatographic analysis N
May N Flow meter N Chromatographic analysis N
June N Flow meter N Chromatographic analysis N
July N Flow meter N Chromatographic analysis N
August N Flow meter N Chromatographic analysis N
September N Flow meter N Chromatographic analysis N
October N Flow meter N Chromatographic analysis N
November N Flow meter N Chromatographic analysis N
December N Flow meter N Chromatographic analysis N

Type:
State of Feedstock or product:
Identify each method (i.e., method number, title or other description) used to determine the flow or mass of each carbon-containing product or feedstock: Calibrated Tank Level Sight Glass
Annual quantity of feedstock or product: 
If applicable, dates for each process change that reduced the composition to less than 99.5%:
MonthVolume for month based on missing data procedureVolume measurement methodOther volume measurement methodCarbon content or composition for month based on missing data procedureCarbon content or composition determination methodSpecify the practiceOther MethodName or title of the alternative carbon content determination methodExplanation as to why an alternative carbon content determination method was neededFile name of the copy of the alternative carbon content determination methodMolecular weight for month based on missing data procedure, if applicableMolecular weight determination method, if applicableOther methodName or title of the alternative molecular weight determination methodExplanation as to why an alternative molecular weight determination method was neededFile name of the copy of the alternative molecular weight determination methodTemperature at which volume was measured
January N Tank level measurements N ASTM D5291-02 (Reapproved 2007) N
February N Tank level measurements N ASTM D5291-02 (Reapproved 2007) N
March N Tank level measurements N ASTM D5291-02 (Reapproved 2007) N
April N Tank level measurements N ASTM D5291-02 (Reapproved 2007) N
May N Tank level measurements N ASTM D5291-02 (Reapproved 2007) N
June N Tank level measurements N ASTM D5291-02 (Reapproved 2007) N
July N Tank level measurements N ASTM D5291-02 (Reapproved 2007) N
August N Tank level measurements N ASTM D5291-02 (Reapproved 2007) N
September N Tank level measurements N ASTM D5291-02 (Reapproved 2007) N
October N Tank level measurements N ASTM D5291-02 (Reapproved 2007) N
November N Tank level measurements N ASTM D5291-02 (Reapproved 2007) N
December N Tank level measurements N ASTM D5291-02 (Reapproved 2007) N

Type:
State of Feedstock or product:
Identify each method (i.e., method number, title or other description) used to determine the flow or mass of each carbon-containing product or feedstock: Calibrated Tank Level Sight Glass
Annual quantity of feedstock or product: 
If applicable, dates for each process change that reduced the composition to less than 99.5%:
MonthVolume for month based on missing data procedureVolume measurement methodOther volume measurement methodCarbon content or composition for month based on missing data procedureCarbon content or composition determination methodSpecify the practiceOther MethodName or title of the alternative carbon content determination methodExplanation as to why an alternative carbon content determination method was neededFile name of the copy of the alternative carbon content determination methodMolecular weight for month based on missing data procedure, if applicableMolecular weight determination method, if applicableOther methodName or title of the alternative molecular weight determination methodExplanation as to why an alternative molecular weight determination method was neededFile name of the copy of the alternative molecular weight determination methodTemperature at which volume was measured
January N Tank level measurements N ASTM D5291-02 (Reapproved 2007) N
February N Tank level measurements N ASTM D5291-02 (Reapproved 2007) N
March N Tank level measurements N ASTM D5291-02 (Reapproved 2007) N
April N Tank level measurements N ASTM D5291-02 (Reapproved 2007) N
May N Tank level measurements N ASTM D5291-02 (Reapproved 2007) N
June N Tank level measurements N ASTM D5291-02 (Reapproved 2007) N
July N Tank level measurements N ASTM D5291-02 (Reapproved 2007) N
August N Tank level measurements N ASTM D5291-02 (Reapproved 2007) N
September N Tank level measurements N ASTM D5291-02 (Reapproved 2007) N
October N Tank level measurements N ASTM D5291-02 (Reapproved 2007) N
November N Tank level measurements N ASTM D5291-02 (Reapproved 2007) N
December N Tank level measurements N ASTM D5291-02 (Reapproved 2007) N

Type:
State of Feedstock or product:
Identify each method (i.e., method number, title or other description) used to determine the flow or mass of each carbon-containing product or feedstock: Calibrated Tank Level Sight Glass
Annual quantity of feedstock or product: 
If applicable, dates for each process change that reduced the composition to less than 99.5%:
MonthVolume for month based on missing data procedureVolume measurement methodOther volume measurement methodCarbon content or composition for month based on missing data procedureCarbon content or composition determination methodSpecify the practiceOther MethodName or title of the alternative carbon content determination methodExplanation as to why an alternative carbon content determination method was neededFile name of the copy of the alternative carbon content determination methodMolecular weight for month based on missing data procedure, if applicableMolecular weight determination method, if applicableOther methodName or title of the alternative molecular weight determination methodExplanation as to why an alternative molecular weight determination method was neededFile name of the copy of the alternative molecular weight determination methodTemperature at which volume was measured
January N Tank level measurements N ASTM D5291-02 (Reapproved 2007) N
February N Tank level measurements N ASTM D5291-02 (Reapproved 2007) N
March N Tank level measurements N ASTM D5291-02 (Reapproved 2007) N
April N Tank level measurements N ASTM D5291-02 (Reapproved 2007) N
May N Tank level measurements N ASTM D5291-02 (Reapproved 2007) N
June N Tank level measurements N ASTM D5291-02 (Reapproved 2007) N
July N Tank level measurements N ASTM D5291-02 (Reapproved 2007) N
August N Tank level measurements N ASTM D5291-02 (Reapproved 2007) N
September N Tank level measurements N ASTM D5291-02 (Reapproved 2007) N
October N Tank level measurements N ASTM D5291-02 (Reapproved 2007) N
November N Tank level measurements N ASTM D5291-02 (Reapproved 2007) N
December N Tank level measurements N ASTM D5291-02 (Reapproved 2007) N

Type:
State of Feedstock or product:
Identify each method (i.e., method number, title or other description) used to determine the flow or mass of each carbon-containing product or feedstock: Calibrated Tank Level Sight Glass
Annual quantity of feedstock or product: 
If applicable, dates for each process change that reduced the composition to less than 99.5%:
MonthVolume for month based on missing data procedureVolume measurement methodOther volume measurement methodCarbon content or composition for month based on missing data procedureCarbon content or composition determination methodSpecify the practiceOther MethodName or title of the alternative carbon content determination methodExplanation as to why an alternative carbon content determination method was neededFile name of the copy of the alternative carbon content determination methodMolecular weight for month based on missing data procedure, if applicableMolecular weight determination method, if applicableOther methodName or title of the alternative molecular weight determination methodExplanation as to why an alternative molecular weight determination method was neededFile name of the copy of the alternative molecular weight determination methodTemperature at which volume was measured
January N Tank level measurements N ASTM D5291-02 (Reapproved 2007) N
February N Tank level measurements N ASTM D5291-02 (Reapproved 2007) N
March N Tank level measurements N ASTM D5291-02 (Reapproved 2007) N
April N Tank level measurements N ASTM D5291-02 (Reapproved 2007) N
May N Tank level measurements N ASTM D5291-02 (Reapproved 2007) N
June N Tank level measurements N ASTM D5291-02 (Reapproved 2007) N
July N Tank level measurements N ASTM D5291-02 (Reapproved 2007) N
August N Tank level measurements N ASTM D5291-02 (Reapproved 2007) N
September N Tank level measurements N ASTM D5291-02 (Reapproved 2007) N
October N Tank level measurements N ASTM D5291-02 (Reapproved 2007) N
November N Tank level measurements N ASTM D5291-02 (Reapproved 2007) N
December N Tank level measurements N ASTM D5291-02 (Reapproved 2007) N

Type:
State of Feedstock or product:
Identify each method (i.e., method number, title or other description) used to determine the flow or mass of each carbon-containing product or feedstock: Vendor Delivery Amounts
Annual quantity of feedstock or product: 
If applicable, dates for each process change that reduced the composition to less than 99.5%:
MonthVolume for month based on missing data procedureVolume measurement methodOther volume measurement methodCarbon content or composition for month based on missing data procedureCarbon content or composition determination methodSpecify the practiceOther MethodName or title of the alternative carbon content determination methodExplanation as to why an alternative carbon content determination method was neededFile name of the copy of the alternative carbon content determination methodMolecular weight for month based on missing data procedure, if applicableMolecular weight determination method, if applicableOther methodName or title of the alternative molecular weight determination methodExplanation as to why an alternative molecular weight determination method was neededFile name of the copy of the alternative molecular weight determination methodTemperature at which volume was measured
January N Other (specify)Vendor Delivery Amounts N ASTM D5291-02 (Reapproved 2007) N
February N Other (specify)Vendor Delivery Amounts N ASTM D5291-02 (Reapproved 2007) N
March N Other (specify)Vendor Delivery Amounts N ASTM D5291-02 (Reapproved 2007) N
April N Other (specify)Vendor Delivery Amounts N ASTM D5291-02 (Reapproved 2007) N
May N Other (specify)Vendor Delivery Amounts N ASTM D5291-02 (Reapproved 2007) N
June N Other (specify)Vendor Delivery Amounts N ASTM D5291-02 (Reapproved 2007) N
July N Other (specify)Vendor Delivery Amounts N ASTM D5291-02 (Reapproved 2007) N
August N Other (specify)Vendor Delivery Amounts N ASTM D5291-02 (Reapproved 2007) N
September N Other (specify)Vendor Delivery Amounts N ASTM D5291-02 (Reapproved 2007) N
October N Other (specify)Vendor Delivery Amounts N ASTM D5291-02 (Reapproved 2007) N
November N Other (specify)Vendor Delivery Amounts N ASTM D5291-02 (Reapproved 2007) N
December N Other (specify)Vendor Delivery Amounts N ASTM D5291-02 (Reapproved 2007) N

Type:
State of Feedstock or product:
Identify each method (i.e., method number, title or other description) used to determine the flow or mass of each carbon-containing product or feedstock: Orifice
Annual quantity of feedstock or product: 
If applicable, dates for each process change that reduced the composition to less than 99.5%:
MonthVolume for month based on missing data procedureVolume measurement methodOther volume measurement methodCarbon content or composition for month based on missing data procedureCarbon content or composition determination methodSpecify the practiceOther MethodName or title of the alternative carbon content determination methodExplanation as to why an alternative carbon content determination method was neededFile name of the copy of the alternative carbon content determination methodMolecular weight for month based on missing data procedure, if applicableMolecular weight determination method, if applicableOther methodName or title of the alternative molecular weight determination methodExplanation as to why an alternative molecular weight determination method was neededFile name of the copy of the alternative molecular weight determination methodTemperature at which volume was measured
January N Flow meter N Chromatographic analysis N
February N Flow meter N Chromatographic analysis N
March N Flow meter N Chromatographic analysis N
April N Flow meter N Chromatographic analysis N
May N Flow meter N Chromatographic analysis N
June N Flow meter N Chromatographic analysis N
July N Flow meter N Chromatographic analysis N
August N Flow meter N Chromatographic analysis N
September N Flow meter N Chromatographic analysis N
October N Flow meter N Chromatographic analysis N
November N Flow meter N Chromatographic analysis N
December N Flow meter N Chromatographic analysis N

Type:
State of Feedstock or product:
Identify each method (i.e., method number, title or other description) used to determine the flow or mass of each carbon-containing product or feedstock: Coriolis
Annual quantity of feedstock or product: 
If applicable, dates for each process change that reduced the composition to less than 99.5%:
MonthVolume for month based on missing data procedureVolume measurement methodOther volume measurement methodCarbon content or composition for month based on missing data procedureCarbon content or composition determination methodSpecify the practiceOther MethodName or title of the alternative carbon content determination methodExplanation as to why an alternative carbon content determination method was neededFile name of the copy of the alternative carbon content determination methodMolecular weight for month based on missing data procedure, if applicableMolecular weight determination method, if applicableOther methodName or title of the alternative molecular weight determination methodExplanation as to why an alternative molecular weight determination method was neededFile name of the copy of the alternative molecular weight determination methodTemperature at which volume was measured
January N Flow meter N ASTM D1945-03 N Other (specify)GC Analysis68 degrees Fahrenheit
February N Flow meter N ASTM D1945-03 N Other (specify)GC Analysis68 degrees Fahrenheit
March N Flow meter N ASTM D1945-03 N Other (specify)GC Analysis68 degrees Fahrenheit
April N Flow meter N ASTM D1945-03 N Other (specify)GC Analysis68 degrees Fahrenheit
May N Flow meter N ASTM D1945-03 N Other (specify)GC Analysis68 degrees Fahrenheit
June N Flow meter N ASTM D1945-03 N Other (specify)GC Analysis68 degrees Fahrenheit
July N Flow meter N ASTM D1945-03 N Other (specify)GC Analysis68 degrees Fahrenheit
August N Flow meter N ASTM D1945-03 N Other (specify)GC Analysis68 degrees Fahrenheit
September N Flow meter N ASTM D1945-03 N Other (specify)GC Analysis68 degrees Fahrenheit
October N Flow meter N ASTM D1945-03 N Other (specify)GC Analysis68 degrees Fahrenheit
November N Flow meter N ASTM D1945-03 N Other (specify)GC Analysis68 degrees Fahrenheit
December N Flow meter N ASTM D1945-03 N Other (specify)GC Analysis68 degrees Fahrenheit

Type:
State of Feedstock or product:
Identify each method (i.e., method number, title or other description) used to determine the flow or mass of each carbon-containing product or feedstock: Orifice
Annual quantity of feedstock or product: 
If applicable, dates for each process change that reduced the composition to less than 99.5%:
MonthVolume for month based on missing data procedureVolume measurement methodOther volume measurement methodCarbon content or composition for month based on missing data procedureCarbon content or composition determination methodSpecify the practiceOther MethodName or title of the alternative carbon content determination methodExplanation as to why an alternative carbon content determination method was neededFile name of the copy of the alternative carbon content determination methodMolecular weight for month based on missing data procedure, if applicableMolecular weight determination method, if applicableOther methodName or title of the alternative molecular weight determination methodExplanation as to why an alternative molecular weight determination method was neededFile name of the copy of the alternative molecular weight determination methodTemperature at which volume was measured
January N Flow meter N Other (specify)95% Pure Rule N
February N Flow meter N Other (specify)95% Pure Rule N
March N Flow meter N Other (specify)95% Pure Rule N
April N Flow meter N Other (specify)95% Pure Rule N
May N Flow meter N Other (specify)95% Pure Rule N
June N Flow meter N Other (specify)95% Pure Rule N
July N Flow meter N Other (specify)95% Pure Rule N
August N Flow meter N Other (specify)95% Pure Rule N
September N Flow meter N Other (specify)95% Pure Rule N
October N Flow meter N Other (specify)95% Pure Rule N
November N Flow meter N Other (specify)95% Pure Rule N
December N Flow meter N Other (specify)95% Pure Rule N

Type:
State of Feedstock or product:
Identify each method (i.e., method number, title or other description) used to determine the flow or mass of each carbon-containing product or feedstock: Orifice
Annual quantity of feedstock or product: 
If applicable, dates for each process change that reduced the composition to less than 99.5%:
MonthVolume for month based on missing data procedureVolume measurement methodOther volume measurement methodCarbon content or composition for month based on missing data procedureCarbon content or composition determination methodSpecify the practiceOther MethodName or title of the alternative carbon content determination methodExplanation as to why an alternative carbon content determination method was neededFile name of the copy of the alternative carbon content determination methodMolecular weight for month based on missing data procedure, if applicableMolecular weight determination method, if applicableOther methodName or title of the alternative molecular weight determination methodExplanation as to why an alternative molecular weight determination method was neededFile name of the copy of the alternative molecular weight determination methodTemperature at which volume was measured
January N Flow meter N Chromatographic analysis N
February N Flow meter N Chromatographic analysis N
March N Flow meter N Chromatographic analysis N
April N Flow meter N Chromatographic analysis N
May N Flow meter N Chromatographic analysis N
June N Flow meter N Chromatographic analysis N
July N Flow meter N Chromatographic analysis N
August N Flow meter N Chromatographic analysis N
September N Flow meter N Chromatographic analysis N
October N Flow meter N Chromatographic analysis N
November N Flow meter N Chromatographic analysis N
December N Flow meter N Chromatographic analysis N

Type:
State of Feedstock or product:
Identify each method (i.e., method number, title or other description) used to determine the flow or mass of each carbon-containing product or feedstock: Coriolis
Annual quantity of feedstock or product: 
If applicable, dates for each process change that reduced the composition to less than 99.5%:
MonthVolume for month based on missing data procedureVolume measurement methodOther volume measurement methodCarbon content or composition for month based on missing data procedureCarbon content or composition determination methodSpecify the practiceOther MethodName or title of the alternative carbon content determination methodExplanation as to why an alternative carbon content determination method was neededFile name of the copy of the alternative carbon content determination methodMolecular weight for month based on missing data procedure, if applicableMolecular weight determination method, if applicableOther methodName or title of the alternative molecular weight determination methodExplanation as to why an alternative molecular weight determination method was neededFile name of the copy of the alternative molecular weight determination methodTemperature at which volume was measured
January N Flow meter N Chromatographic analysis N
February N Flow meter N Chromatographic analysis N
March N Flow meter N Chromatographic analysis N
April N Flow meter N Chromatographic analysis N
May N Flow meter N Chromatographic analysis N
June N Flow meter N Chromatographic analysis N
July N Flow meter N Chromatographic analysis N
August N Flow meter N Chromatographic analysis N
September N Flow meter N Chromatographic analysis N
October N Flow meter N Chromatographic analysis N
November N Flow meter N Chromatographic analysis N
December N Flow meter N Chromatographic analysis N

Type:
State of Feedstock or product:
Identify each method (i.e., method number, title or other description) used to determine the flow or mass of each carbon-containing product or feedstock: Orifice
Annual quantity of feedstock or product: 
If applicable, dates for each process change that reduced the composition to less than 99.5%:
MonthVolume for month based on missing data procedureVolume measurement methodOther volume measurement methodCarbon content or composition for month based on missing data procedureCarbon content or composition determination methodSpecify the practiceOther MethodName or title of the alternative carbon content determination methodExplanation as to why an alternative carbon content determination method was neededFile name of the copy of the alternative carbon content determination methodMolecular weight for month based on missing data procedure, if applicableMolecular weight determination method, if applicableOther methodName or title of the alternative molecular weight determination methodExplanation as to why an alternative molecular weight determination method was neededFile name of the copy of the alternative molecular weight determination methodTemperature at which volume was measured
January N Flow meter N Chromatographic analysis N
February N Flow meter N Chromatographic analysis N
March N Flow meter N Chromatographic analysis N
April N Flow meter N Chromatographic analysis N
May N Flow meter N Chromatographic analysis N
June N Flow meter N Chromatographic analysis N
July N Flow meter N Chromatographic analysis N
August N Flow meter N Chromatographic analysis N
September N Flow meter N Chromatographic analysis N
October N Flow meter N Chromatographic analysis N
November N Flow meter N Chromatographic analysis N
December N Flow meter N Chromatographic analysis N

Type:
State of Feedstock or product:
Identify each method (i.e., method number, title or other description) used to determine the flow or mass of each carbon-containing product or feedstock: Orifice
Annual quantity of feedstock or product: 
If applicable, dates for each process change that reduced the composition to less than 99.5%:
MonthVolume for month based on missing data procedureVolume measurement methodOther volume measurement methodCarbon content or composition for month based on missing data procedureCarbon content or composition determination methodSpecify the practiceOther MethodName or title of the alternative carbon content determination methodExplanation as to why an alternative carbon content determination method was neededFile name of the copy of the alternative carbon content determination methodMolecular weight for month based on missing data procedure, if applicableMolecular weight determination method, if applicableOther methodName or title of the alternative molecular weight determination methodExplanation as to why an alternative molecular weight determination method was neededFile name of the copy of the alternative molecular weight determination methodTemperature at which volume was measured
January N Flow meter N Other (specify)95% Rule N Calculated based on chemical formula and atomic weights68 degrees Fahrenheit
February N Flow meter N Other (specify)95% Rule N Calculated based on chemical formula and atomic weights68 degrees Fahrenheit
March N Flow meter N Other (specify)95% Rule N Calculated based on chemical formula and atomic weights68 degrees Fahrenheit
April N Flow meter N Other (specify)95% Rule N Calculated based on chemical formula and atomic weights68 degrees Fahrenheit
May N Flow meter N Other (specify)95% Rule N Calculated based on chemical formula and atomic weights68 degrees Fahrenheit
June N Flow meter N Other (specify)95% Rule N Calculated based on chemical formula and atomic weights68 degrees Fahrenheit
July N Flow meter N Other (specify)95% Rule N Calculated based on chemical formula and atomic weights68 degrees Fahrenheit
August N Flow meter N Other (specify)95% Rule N Calculated based on chemical formula and atomic weights68 degrees Fahrenheit
September N Flow meter N Other (specify)95% Rule N Calculated based on chemical formula and atomic weights68 degrees Fahrenheit
October N Flow meter N Other (specify)95% Rule N Calculated based on chemical formula and atomic weights68 degrees Fahrenheit
November N Flow meter N Other (specify)95% Rule N Calculated based on chemical formula and atomic weights68 degrees Fahrenheit
December N Flow meter N Other (specify)95% Rule N Calculated based on chemical formula and atomic weights68 degrees Fahrenheit


Name or ID:LHC 8 Mass Balance
Description:
Type:Petrochemical process unit
Identify combustion units:GP-LPFG Header Aggregate LHC8_F1 Flare LHC8_F902 Flare LHC8_Ground Flare LHC8_Vent Flare LHC8_TO1 LHC8_Furnace 1 thru Furnace 10 CP-PDH1 Heaters
AnnualCO2Emissions:1025056.5 Metric Tons
Type of petrochemical produced:
Annual quantity of the petrochemical produced: 
Annual average carbon content of the wastewater: 
Annual average flow of wastewater:
Unit of measure for average flow of wastewater:
Annual mass of carbon released in fugitive emissions not controlled with a combustion device: 
Annual mass of carbon released in process vents not controlled with a combustion device: 

Feedstocks/Products:

Type:
State of Feedstock or product:
Identify each method (i.e., method number, title or other description) used to determine the flow or mass of each carbon-containing product or feedstock: Coriolis
Annual quantity of feedstock or product: 
If applicable, dates for each process change that reduced the composition to less than 99.5%:
MonthVolume for month based on missing data procedureVolume measurement methodOther volume measurement methodCarbon content or composition for month based on missing data procedureCarbon content or composition determination methodSpecify the practiceOther MethodName or title of the alternative carbon content determination methodExplanation as to why an alternative carbon content determination method was neededFile name of the copy of the alternative carbon content determination methodMolecular weight for month based on missing data procedure, if applicableMolecular weight determination method, if applicableOther methodName or title of the alternative molecular weight determination methodExplanation as to why an alternative molecular weight determination method was neededFile name of the copy of the alternative molecular weight determination methodTemperature at which volume was measured
January N Flow meter N Chromatographic analysis N
February N Flow meter N Chromatographic analysis N
March N Flow meter N Chromatographic analysis N
April N Flow meter N Chromatographic analysis N
May N Flow meter N Chromatographic analysis N
June N Flow meter N Chromatographic analysis N
July N Flow meter N Chromatographic analysis N
August N Flow meter N Chromatographic analysis N
September N Flow meter N Chromatographic analysis N
October N Flow meter N Chromatographic analysis N
November N Flow meter N Chromatographic analysis N
December N Flow meter N Chromatographic analysis N

Type:
State of Feedstock or product:
Identify each method (i.e., method number, title or other description) used to determine the flow or mass of each carbon-containing product or feedstock: Venturi
Annual quantity of feedstock or product: 
If applicable, dates for each process change that reduced the composition to less than 99.5%:
MonthVolume for month based on missing data procedureVolume measurement methodOther volume measurement methodCarbon content or composition for month based on missing data procedureCarbon content or composition determination methodSpecify the practiceOther MethodName or title of the alternative carbon content determination methodExplanation as to why an alternative carbon content determination method was neededFile name of the copy of the alternative carbon content determination methodMolecular weight for month based on missing data procedure, if applicableMolecular weight determination method, if applicableOther methodName or title of the alternative molecular weight determination methodExplanation as to why an alternative molecular weight determination method was neededFile name of the copy of the alternative molecular weight determination methodTemperature at which volume was measured
January N Flow meter N Chromatographic analysis N
February N Flow meter N Chromatographic analysis N
March N Flow meter N Chromatographic analysis N
April N Flow meter N Chromatographic analysis N
May N Flow meter N Chromatographic analysis N
June N Flow meter N Chromatographic analysis N
July N Flow meter N Chromatographic analysis N
August N Flow meter N Chromatographic analysis N
September N Flow meter N Chromatographic analysis N
October N Flow meter N Chromatographic analysis N
November N Flow meter N Chromatographic analysis N
December N Flow meter N Chromatographic analysis N

Type:
State of Feedstock or product:
Identify each method (i.e., method number, title or other description) used to determine the flow or mass of each carbon-containing product or feedstock: Venturi
Annual quantity of feedstock or product: 
If applicable, dates for each process change that reduced the composition to less than 99.5%:
MonthVolume for month based on missing data procedureVolume measurement methodOther volume measurement methodCarbon content or composition for month based on missing data procedureCarbon content or composition determination methodSpecify the practiceOther MethodName or title of the alternative carbon content determination methodExplanation as to why an alternative carbon content determination method was neededFile name of the copy of the alternative carbon content determination methodMolecular weight for month based on missing data procedure, if applicableMolecular weight determination method, if applicableOther methodName or title of the alternative molecular weight determination methodExplanation as to why an alternative molecular weight determination method was neededFile name of the copy of the alternative molecular weight determination methodTemperature at which volume was measured
January N Flow meter N Chromatographic analysis N
February N Flow meter N Chromatographic analysis N
March N Flow meter N Chromatographic analysis N
April N Flow meter N Chromatographic analysis N
May N Flow meter N Chromatographic analysis N
June N Flow meter N Chromatographic analysis N
July N Flow meter N Chromatographic analysis N
August N Flow meter N Chromatographic analysis N
September N Flow meter N Chromatographic analysis N
October N Flow meter N Chromatographic analysis N
November N Flow meter N Chromatographic analysis N
December N Flow meter N Chromatographic analysis N

Type:
State of Feedstock or product:
Identify each method (i.e., method number, title or other description) used to determine the flow or mass of each carbon-containing product or feedstock: Venturi
Annual quantity of feedstock or product: 
If applicable, dates for each process change that reduced the composition to less than 99.5%:
MonthVolume for month based on missing data procedureVolume measurement methodOther volume measurement methodCarbon content or composition for month based on missing data procedureCarbon content or composition determination methodSpecify the practiceOther MethodName or title of the alternative carbon content determination methodExplanation as to why an alternative carbon content determination method was neededFile name of the copy of the alternative carbon content determination methodMolecular weight for month based on missing data procedure, if applicableMolecular weight determination method, if applicableOther methodName or title of the alternative molecular weight determination methodExplanation as to why an alternative molecular weight determination method was neededFile name of the copy of the alternative molecular weight determination methodTemperature at which volume was measured
January N Flow meter N Chromatographic analysis N
February N Flow meter N Chromatographic analysis N
March N Flow meter N Chromatographic analysis N
April N Flow meter N Chromatographic analysis N
May N Flow meter N Chromatographic analysis N
June N Flow meter N Chromatographic analysis N
July N Flow meter N Chromatographic analysis N
August N Flow meter N Chromatographic analysis N
September N Flow meter N Chromatographic analysis N
October N Flow meter N Chromatographic analysis N
November N Flow meter N Chromatographic analysis N
December N Flow meter N Chromatographic analysis N

Type:
State of Feedstock or product:
Identify each method (i.e., method number, title or other description) used to determine the flow or mass of each carbon-containing product or feedstock: Coriolis
Annual quantity of feedstock or product: 
If applicable, dates for each process change that reduced the composition to less than 99.5%:
MonthVolume for month based on missing data procedureVolume measurement methodOther volume measurement methodCarbon content or composition for month based on missing data procedureCarbon content or composition determination methodSpecify the practiceOther MethodName or title of the alternative carbon content determination methodExplanation as to why an alternative carbon content determination method was neededFile name of the copy of the alternative carbon content determination methodMolecular weight for month based on missing data procedure, if applicableMolecular weight determination method, if applicableOther methodName or title of the alternative molecular weight determination methodExplanation as to why an alternative molecular weight determination method was neededFile name of the copy of the alternative molecular weight determination methodTemperature at which volume was measured
January N Flow meter N ASTM D5291-02 (Reapproved 2007) N
February N Flow meter N ASTM D5291-02 (Reapproved 2007) N
March N Flow meter N ASTM D5291-02 (Reapproved 2007) N
April N Flow meter N ASTM D5291-02 (Reapproved 2007) N
May N Flow meter N ASTM D5291-02 (Reapproved 2007) N
June N Flow meter N ASTM D5291-02 (Reapproved 2007) N
July N Flow meter N ASTM D5291-02 (Reapproved 2007) N
August N Flow meter N ASTM D5291-02 (Reapproved 2007) N
September N Flow meter N ASTM D5291-02 (Reapproved 2007) N
October N Flow meter N ASTM D5291-02 (Reapproved 2007) N
November N Flow meter N ASTM D5291-02 (Reapproved 2007) N
December N Flow meter N ASTM D5291-02 (Reapproved 2007) N

Type:
State of Feedstock or product:
Identify each method (i.e., method number, title or other description) used to determine the flow or mass of each carbon-containing product or feedstock: Coriolis
Annual quantity of feedstock or product: 
If applicable, dates for each process change that reduced the composition to less than 99.5%:
MonthVolume for month based on missing data procedureVolume measurement methodOther volume measurement methodCarbon content or composition for month based on missing data procedureCarbon content or composition determination methodSpecify the practiceOther MethodName or title of the alternative carbon content determination methodExplanation as to why an alternative carbon content determination method was neededFile name of the copy of the alternative carbon content determination methodMolecular weight for month based on missing data procedure, if applicableMolecular weight determination method, if applicableOther methodName or title of the alternative molecular weight determination methodExplanation as to why an alternative molecular weight determination method was neededFile name of the copy of the alternative molecular weight determination methodTemperature at which volume was measured
January N Flow meter N Chromatographic analysis N
February N Flow meter N Chromatographic analysis N
March N Flow meter N Chromatographic analysis N
April N Flow meter N Chromatographic analysis N
May N Flow meter N Chromatographic analysis N
June N Flow meter N Chromatographic analysis N
July N Flow meter N Chromatographic analysis N
August N Flow meter N Chromatographic analysis N
September N Flow meter N Chromatographic analysis N
October N Flow meter N Chromatographic analysis N
November N Flow meter N Chromatographic analysis N
December N Flow meter N Chromatographic analysis N

Type:
State of Feedstock or product:
Identify each method (i.e., method number, title or other description) used to determine the flow or mass of each carbon-containing product or feedstock: Coriolis
Annual quantity of feedstock or product: 
If applicable, dates for each process change that reduced the composition to less than 99.5%:
MonthVolume for month based on missing data procedureVolume measurement methodOther volume measurement methodCarbon content or composition for month based on missing data procedureCarbon content or composition determination methodSpecify the practiceOther MethodName or title of the alternative carbon content determination methodExplanation as to why an alternative carbon content determination method was neededFile name of the copy of the alternative carbon content determination methodMolecular weight for month based on missing data procedure, if applicableMolecular weight determination method, if applicableOther methodName or title of the alternative molecular weight determination methodExplanation as to why an alternative molecular weight determination method was neededFile name of the copy of the alternative molecular weight determination methodTemperature at which volume was measured
January N Flow meter N ASTM D5291-02 (Reapproved 2007) N
February N Flow meter N ASTM D5291-02 (Reapproved 2007) N
March N Flow meter N ASTM D5291-02 (Reapproved 2007) N
April N Flow meter N ASTM D5291-02 (Reapproved 2007) N
May N Flow meter N ASTM D5291-02 (Reapproved 2007) N
June N Flow meter N ASTM D5291-02 (Reapproved 2007) N
July N Flow meter N ASTM D5291-02 (Reapproved 2007) N
August N Flow meter N ASTM D5291-02 (Reapproved 2007) N
September N Flow meter N ASTM D5291-02 (Reapproved 2007) N
October N Flow meter N ASTM D5291-02 (Reapproved 2007) N
November N Flow meter N ASTM D5291-02 (Reapproved 2007) N
December N Flow meter N ASTM D5291-02 (Reapproved 2007) N

Type:
State of Feedstock or product:
Identify each method (i.e., method number, title or other description) used to determine the flow or mass of each carbon-containing product or feedstock: Ultrasonic
Annual quantity of feedstock or product: 
If applicable, dates for each process change that reduced the composition to less than 99.5%:
MonthVolume for month based on missing data procedureVolume measurement methodOther volume measurement methodCarbon content or composition for month based on missing data procedureCarbon content or composition determination methodSpecify the practiceOther MethodName or title of the alternative carbon content determination methodExplanation as to why an alternative carbon content determination method was neededFile name of the copy of the alternative carbon content determination methodMolecular weight for month based on missing data procedure, if applicableMolecular weight determination method, if applicableOther methodName or title of the alternative molecular weight determination methodExplanation as to why an alternative molecular weight determination method was neededFile name of the copy of the alternative molecular weight determination methodTemperature at which volume was measured
January N Flow meter N ASTM D5291-02 (Reapproved 2007) N
February N Flow meter N ASTM D5291-02 (Reapproved 2007) N
March N Flow meter N ASTM D5291-02 (Reapproved 2007) N
April N Flow meter N ASTM D5291-02 (Reapproved 2007) N
May N Flow meter N ASTM D5291-02 (Reapproved 2007) N
June N Flow meter N ASTM D5291-02 (Reapproved 2007) N
July N Flow meter N ASTM D5291-02 (Reapproved 2007) N
August N Flow meter N ASTM D5291-02 (Reapproved 2007) N
September N Flow meter N ASTM D5291-02 (Reapproved 2007) N
October N Flow meter N ASTM D5291-02 (Reapproved 2007) N
November N Flow meter N ASTM D5291-02 (Reapproved 2007) N
December N Flow meter N ASTM D5291-02 (Reapproved 2007) N

Type:
State of Feedstock or product:
Identify each method (i.e., method number, title or other description) used to determine the flow or mass of each carbon-containing product or feedstock:
Annual quantity of feedstock or product: 
If applicable, dates for each process change that reduced the composition to less than 99.5%:
MonthVolume for month based on missing data procedureVolume measurement methodOther volume measurement methodCarbon content or composition for month based on missing data procedureCarbon content or composition determination methodSpecify the practiceOther MethodName or title of the alternative carbon content determination methodExplanation as to why an alternative carbon content determination method was neededFile name of the copy of the alternative carbon content determination methodMolecular weight for month based on missing data procedure, if applicableMolecular weight determination method, if applicableOther methodName or title of the alternative molecular weight determination methodExplanation as to why an alternative molecular weight determination method was neededFile name of the copy of the alternative molecular weight determination methodTemperature at which volume was measured
January N Other (specify)Monthly Delivery Amounts N ASTM D5291-02 (Reapproved 2007) N
February N Other (specify)Monthly Delivery Amounts N ASTM D5291-02 (Reapproved 2007) N
March N Other (specify)Monthly Delivery Amounts N ASTM D5291-02 (Reapproved 2007) N
April N Other (specify)Monthly Delivery Amounts N ASTM D5291-02 (Reapproved 2007) N
May N Other (specify)Monthly Delivery Amounts N ASTM D5291-02 (Reapproved 2007) N
June N Other (specify)Monthly Delivery Amounts N ASTM D5291-02 (Reapproved 2007) N
July N Other (specify)Monthly Delivery Amounts N ASTM D5291-02 (Reapproved 2007) N
August N Other (specify)Monthly Delivery Amounts N ASTM D5291-02 (Reapproved 2007) N
September N Other (specify)Monthly Delivery Amounts N ASTM D5291-02 (Reapproved 2007) N
October N Other (specify)Monthly Delivery Amounts N ASTM D5291-02 (Reapproved 2007) N
November N Other (specify)Monthly Delivery Amounts N ASTM D5291-02 (Reapproved 2007) N
December N Other (specify)Monthly Delivery Amounts N ASTM D5291-02 (Reapproved 2007) N

Type:
State of Feedstock or product:
Identify each method (i.e., method number, title or other description) used to determine the flow or mass of each carbon-containing product or feedstock: Calibrated Sight Glass
Annual quantity of feedstock or product: 
If applicable, dates for each process change that reduced the composition to less than 99.5%:
MonthVolume for month based on missing data procedureVolume measurement methodOther volume measurement methodCarbon content or composition for month based on missing data procedureCarbon content or composition determination methodSpecify the practiceOther MethodName or title of the alternative carbon content determination methodExplanation as to why an alternative carbon content determination method was neededFile name of the copy of the alternative carbon content determination methodMolecular weight for month based on missing data procedure, if applicableMolecular weight determination method, if applicableOther methodName or title of the alternative molecular weight determination methodExplanation as to why an alternative molecular weight determination method was neededFile name of the copy of the alternative molecular weight determination methodTemperature at which volume was measured
January N Tank level measurements N ASTM D5291-02 (Reapproved 2007) N
February N Tank level measurements N ASTM D5291-02 (Reapproved 2007) N
March N Tank level measurements N ASTM D5291-02 (Reapproved 2007) N
April N Tank level measurements N ASTM D5291-02 (Reapproved 2007) N
May N Tank level measurements N ASTM D5291-02 (Reapproved 2007) N
June N Tank level measurements N ASTM D5291-02 (Reapproved 2007) N
July N Tank level measurements N ASTM D5291-02 (Reapproved 2007) N
August N Tank level measurements N ASTM D5291-02 (Reapproved 2007) N
September N Tank level measurements N ASTM D5291-02 (Reapproved 2007) N
October N Tank level measurements N ASTM D5291-02 (Reapproved 2007) N
November N Tank level measurements N ASTM D5291-02 (Reapproved 2007) N
December N Tank level measurements N ASTM D5291-02 (Reapproved 2007) N

Type:
State of Feedstock or product:
Identify each method (i.e., method number, title or other description) used to determine the flow or mass of each carbon-containing product or feedstock: Calibrated Sight Glass
Annual quantity of feedstock or product: 
If applicable, dates for each process change that reduced the composition to less than 99.5%:
MonthVolume for month based on missing data procedureVolume measurement methodOther volume measurement methodCarbon content or composition for month based on missing data procedureCarbon content or composition determination methodSpecify the practiceOther MethodName or title of the alternative carbon content determination methodExplanation as to why an alternative carbon content determination method was neededFile name of the copy of the alternative carbon content determination methodMolecular weight for month based on missing data procedure, if applicableMolecular weight determination method, if applicableOther methodName or title of the alternative molecular weight determination methodExplanation as to why an alternative molecular weight determination method was neededFile name of the copy of the alternative molecular weight determination methodTemperature at which volume was measured
January N Tank level measurements N ASTM D5291-02 (Reapproved 2007) N
February N Tank level measurements N ASTM D5291-02 (Reapproved 2007) N
March N Tank level measurements N ASTM D5291-02 (Reapproved 2007) N
April N Tank level measurements N ASTM D5291-02 (Reapproved 2007) N
May N Tank level measurements N ASTM D5291-02 (Reapproved 2007) N
June N Tank level measurements N ASTM D5291-02 (Reapproved 2007) N
July N Tank level measurements N ASTM D5291-02 (Reapproved 2007) N
August N Tank level measurements N ASTM D5291-02 (Reapproved 2007) N
September N Tank level measurements N ASTM D5291-02 (Reapproved 2007) N
October N Tank level measurements N ASTM D5291-02 (Reapproved 2007) N
November N Tank level measurements N ASTM D5291-02 (Reapproved 2007) N
December N Tank level measurements N ASTM D5291-02 (Reapproved 2007) N

Type:
State of Feedstock or product:
Identify each method (i.e., method number, title or other description) used to determine the flow or mass of each carbon-containing product or feedstock: Calibrated sight glass
Annual quantity of feedstock or product: 
If applicable, dates for each process change that reduced the composition to less than 99.5%:
MonthVolume for month based on missing data procedureVolume measurement methodOther volume measurement methodCarbon content or composition for month based on missing data procedureCarbon content or composition determination methodSpecify the practiceOther MethodName or title of the alternative carbon content determination methodExplanation as to why an alternative carbon content determination method was neededFile name of the copy of the alternative carbon content determination methodMolecular weight for month based on missing data procedure, if applicableMolecular weight determination method, if applicableOther methodName or title of the alternative molecular weight determination methodExplanation as to why an alternative molecular weight determination method was neededFile name of the copy of the alternative molecular weight determination methodTemperature at which volume was measured
January N Tank level measurements N ASTM D5291-02 (Reapproved 2007) N
February N Tank level measurements N ASTM D5291-02 (Reapproved 2007) N
March N Tank level measurements N ASTM D5291-02 (Reapproved 2007) N
April N Tank level measurements N ASTM D5291-02 (Reapproved 2007) N
May N Tank level measurements N ASTM D5291-02 (Reapproved 2007) N
June N Tank level measurements N ASTM D5291-02 (Reapproved 2007) N
July N Tank level measurements N ASTM D5291-02 (Reapproved 2007) N
August N Tank level measurements N ASTM D5291-02 (Reapproved 2007) N
September N Tank level measurements N ASTM D5291-02 (Reapproved 2007) N
October N Tank level measurements N ASTM D5291-02 (Reapproved 2007) N
November N Tank level measurements N ASTM D5291-02 (Reapproved 2007) N
December N Tank level measurements N ASTM D5291-02 (Reapproved 2007) N

Type:
State of Feedstock or product:
Identify each method (i.e., method number, title or other description) used to determine the flow or mass of each carbon-containing product or feedstock: Calibrated sight glass
Annual quantity of feedstock or product: 
If applicable, dates for each process change that reduced the composition to less than 99.5%:
MonthVolume for month based on missing data procedureVolume measurement methodOther volume measurement methodCarbon content or composition for month based on missing data procedureCarbon content or composition determination methodSpecify the practiceOther MethodName or title of the alternative carbon content determination methodExplanation as to why an alternative carbon content determination method was neededFile name of the copy of the alternative carbon content determination methodMolecular weight for month based on missing data procedure, if applicableMolecular weight determination method, if applicableOther methodName or title of the alternative molecular weight determination methodExplanation as to why an alternative molecular weight determination method was neededFile name of the copy of the alternative molecular weight determination methodTemperature at which volume was measured
January N Tank level measurements N ASTM D5291-02 (Reapproved 2007) N
February N Tank level measurements N ASTM D5291-02 (Reapproved 2007) N
March N Tank level measurements N ASTM D5291-02 (Reapproved 2007) N
April N Tank level measurements N ASTM D5291-02 (Reapproved 2007) N
May N Tank level measurements N ASTM D5291-02 (Reapproved 2007) N
June N Tank level measurements N ASTM D5291-02 (Reapproved 2007) N
July N Tank level measurements N ASTM D5291-02 (Reapproved 2007) N
August N Tank level measurements N ASTM D5291-02 (Reapproved 2007) N
September N Tank level measurements N ASTM D5291-02 (Reapproved 2007) N
October N Tank level measurements N ASTM D5291-02 (Reapproved 2007) N
November N Tank level measurements N ASTM D5291-02 (Reapproved 2007) N
December N Tank level measurements N ASTM D5291-02 (Reapproved 2007) N

Type:
State of Feedstock or product:
Identify each method (i.e., method number, title or other description) used to determine the flow or mass of each carbon-containing product or feedstock: calibrated sight glass
Annual quantity of feedstock or product: 
If applicable, dates for each process change that reduced the composition to less than 99.5%:
MonthVolume for month based on missing data procedureVolume measurement methodOther volume measurement methodCarbon content or composition for month based on missing data procedureCarbon content or composition determination methodSpecify the practiceOther MethodName or title of the alternative carbon content determination methodExplanation as to why an alternative carbon content determination method was neededFile name of the copy of the alternative carbon content determination methodMolecular weight for month based on missing data procedure, if applicableMolecular weight determination method, if applicableOther methodName or title of the alternative molecular weight determination methodExplanation as to why an alternative molecular weight determination method was neededFile name of the copy of the alternative molecular weight determination methodTemperature at which volume was measured
January N Tank level measurements N ASTM D5291-02 (Reapproved 2007) N
February N Tank level measurements N ASTM D5291-02 (Reapproved 2007) N
March N Tank level measurements N ASTM D5291-02 (Reapproved 2007) N
April N Tank level measurements N ASTM D5291-02 (Reapproved 2007) N
May N Tank level measurements N ASTM D5291-02 (Reapproved 2007) N
June N Tank level measurements N ASTM D5291-02 (Reapproved 2007) N
July N Tank level measurements N ASTM D5291-02 (Reapproved 2007) N
August N Tank level measurements N ASTM D5291-02 (Reapproved 2007) N
September N Tank level measurements N ASTM D5291-02 (Reapproved 2007) N
October N Tank level measurements N ASTM D5291-02 (Reapproved 2007) N
November N Tank level measurements N ASTM D5291-02 (Reapproved 2007) N
December N Tank level measurements N ASTM D5291-02 (Reapproved 2007) N

Type:
State of Feedstock or product:
Identify each method (i.e., method number, title or other description) used to determine the flow or mass of each carbon-containing product or feedstock: Calibration Sight Glass
Annual quantity of feedstock or product: 
If applicable, dates for each process change that reduced the composition to less than 99.5%:
MonthVolume for month based on missing data procedureVolume measurement methodOther volume measurement methodCarbon content or composition for month based on missing data procedureCarbon content or composition determination methodSpecify the practiceOther MethodName or title of the alternative carbon content determination methodExplanation as to why an alternative carbon content determination method was neededFile name of the copy of the alternative carbon content determination methodMolecular weight for month based on missing data procedure, if applicableMolecular weight determination method, if applicableOther methodName or title of the alternative molecular weight determination methodExplanation as to why an alternative molecular weight determination method was neededFile name of the copy of the alternative molecular weight determination methodTemperature at which volume was measured
January N Tank level measurements N ASTM D5291-02 (Reapproved 2007) N
February N Tank level measurements N ASTM D5291-02 (Reapproved 2007) N
March N Tank level measurements N ASTM D5291-02 (Reapproved 2007) N
April N Tank level measurements N ASTM D5291-02 (Reapproved 2007) N
May N Tank level measurements N ASTM D5291-02 (Reapproved 2007) N
June N Tank level measurements N ASTM D5291-02 (Reapproved 2007) N
July N Tank level measurements N ASTM D5291-02 (Reapproved 2007) N
August N Tank level measurements N ASTM D5291-02 (Reapproved 2007) N
September N Tank level measurements N ASTM D5291-02 (Reapproved 2007) N
October N Tank level measurements N ASTM D5291-02 (Reapproved 2007) N
November N Tank level measurements N ASTM D5291-02 (Reapproved 2007) N
December N Tank level measurements N ASTM D5291-02 (Reapproved 2007) N

Type:
State of Feedstock or product:
Identify each method (i.e., method number, title or other description) used to determine the flow or mass of each carbon-containing product or feedstock: Ultrasonic
Annual quantity of feedstock or product: 
If applicable, dates for each process change that reduced the composition to less than 99.5%:
MonthVolume for month based on missing data procedureVolume measurement methodOther volume measurement methodCarbon content or composition for month based on missing data procedureCarbon content or composition determination methodSpecify the practiceOther MethodName or title of the alternative carbon content determination methodExplanation as to why an alternative carbon content determination method was neededFile name of the copy of the alternative carbon content determination methodMolecular weight for month based on missing data procedure, if applicableMolecular weight determination method, if applicableOther methodName or title of the alternative molecular weight determination methodExplanation as to why an alternative molecular weight determination method was neededFile name of the copy of the alternative molecular weight determination methodTemperature at which volume was measured
January N Flow meter N ASTM D1945-03 N Other (specify)GC Composition analysis68 degrees Fahrenheit
February N Flow meter N ASTM D1945-03 N Other (specify)GC Composition analysis68 degrees Fahrenheit
March N Flow meter Y ASTM D1945-03 Y Other (specify)GC Composition analysis68 degrees Fahrenheit
April N Flow meter N ASTM D1945-03 N Other (specify)GC Composition analysis68 degrees Fahrenheit
May N Flow meter N ASTM D1945-03 N Other (specify)GC Composition analysis68 degrees Fahrenheit
June N Flow meter Y ASTM D1945-03 Y Other (specify)GC Composition analysis68 degrees Fahrenheit
July N Flow meter Y ASTM D1945-03 Y Other (specify)GC Composition analysis68 degrees Fahrenheit
August N Flow meter N ASTM D1945-03 N Other (specify)GC Composition analysis68 degrees Fahrenheit
September N Flow meter N ASTM D1945-03 N Other (specify)GC Composition analysis68 degrees Fahrenheit
October N Flow meter N ASTM D1945-03 N Other (specify)GC Composition analysis68 degrees Fahrenheit
November N Flow meter N ASTM D1945-03 N Other (specify)GC Composition analysis68 degrees Fahrenheit
December N Flow meter N ASTM D1945-03 N Other (specify)GC Composition analysis68 degrees Fahrenheit

Type:
State of Feedstock or product:
Identify each method (i.e., method number, title or other description) used to determine the flow or mass of each carbon-containing product or feedstock: Calibrated Sight Glass
Annual quantity of feedstock or product: 
If applicable, dates for each process change that reduced the composition to less than 99.5%:
MonthVolume for month based on missing data procedureVolume measurement methodOther volume measurement methodCarbon content or composition for month based on missing data procedureCarbon content or composition determination methodSpecify the practiceOther MethodName or title of the alternative carbon content determination methodExplanation as to why an alternative carbon content determination method was neededFile name of the copy of the alternative carbon content determination methodMolecular weight for month based on missing data procedure, if applicableMolecular weight determination method, if applicableOther methodName or title of the alternative molecular weight determination methodExplanation as to why an alternative molecular weight determination method was neededFile name of the copy of the alternative molecular weight determination methodTemperature at which volume was measured
January N Tank level measurements N ASTM D5291-02 (Reapproved 2007) N
February N Tank level measurements N ASTM D5291-02 (Reapproved 2007) N
March N Tank level measurements N ASTM D5291-02 (Reapproved 2007) N
April N Tank level measurements N ASTM D5291-02 (Reapproved 2007) N
May N Tank level measurements N ASTM D5291-02 (Reapproved 2007) N
June N Tank level measurements N ASTM D5291-02 (Reapproved 2007) N
July N Tank level measurements N ASTM D5291-02 (Reapproved 2007) N
August N Tank level measurements N ASTM D5291-02 (Reapproved 2007) N
September N Tank level measurements N ASTM D5291-02 (Reapproved 2007) N
October N Tank level measurements N ASTM D5291-02 (Reapproved 2007) N
November N Tank level measurements N ASTM D5291-02 (Reapproved 2007) N
December N Tank level measurements N ASTM D5291-02 (Reapproved 2007) N

Type:
State of Feedstock or product:
Identify each method (i.e., method number, title or other description) used to determine the flow or mass of each carbon-containing product or feedstock: Coriolis
Annual quantity of feedstock or product: 
If applicable, dates for each process change that reduced the composition to less than 99.5%:
MonthVolume for month based on missing data procedureVolume measurement methodOther volume measurement methodCarbon content or composition for month based on missing data procedureCarbon content or composition determination methodSpecify the practiceOther MethodName or title of the alternative carbon content determination methodExplanation as to why an alternative carbon content determination method was neededFile name of the copy of the alternative carbon content determination methodMolecular weight for month based on missing data procedure, if applicableMolecular weight determination method, if applicableOther methodName or title of the alternative molecular weight determination methodExplanation as to why an alternative molecular weight determination method was neededFile name of the copy of the alternative molecular weight determination methodTemperature at which volume was measured
January N Flow meter N Chromatographic analysis N
February N Flow meter N Chromatographic analysis N
March N Flow meter N Chromatographic analysis N
April N Flow meter N Chromatographic analysis N
May N Flow meter N Chromatographic analysis N
June N Flow meter N Chromatographic analysis N
July N Flow meter N Chromatographic analysis N
August N Flow meter N Chromatographic analysis N
September N Flow meter N Chromatographic analysis N
October N Flow meter N Chromatographic analysis N
November N Flow meter N Chromatographic analysis N
December N Flow meter N Chromatographic analysis N

Type:
State of Feedstock or product:
Identify each method (i.e., method number, title or other description) used to determine the flow or mass of each carbon-containing product or feedstock: Coriolis
Annual quantity of feedstock or product: 
If applicable, dates for each process change that reduced the composition to less than 99.5%:
MonthVolume for month based on missing data procedureVolume measurement methodOther volume measurement methodCarbon content or composition for month based on missing data procedureCarbon content or composition determination methodSpecify the practiceOther MethodName or title of the alternative carbon content determination methodExplanation as to why an alternative carbon content determination method was neededFile name of the copy of the alternative carbon content determination methodMolecular weight for month based on missing data procedure, if applicableMolecular weight determination method, if applicableOther methodName or title of the alternative molecular weight determination methodExplanation as to why an alternative molecular weight determination method was neededFile name of the copy of the alternative molecular weight determination methodTemperature at which volume was measured
January N Flow meter Y ASTM D5291-02 (Reapproved 2007) N
February N Flow meter N ASTM D5291-02 (Reapproved 2007) N
March N Flow meter N ASTM D5291-02 (Reapproved 2007) N
April N Flow meter Y ASTM D5291-02 (Reapproved 2007) N
May N Flow meter N ASTM D5291-02 (Reapproved 2007) N
June N Flow meter N ASTM D5291-02 (Reapproved 2007) N
July N Flow meter N ASTM D5291-02 (Reapproved 2007) N
August N Flow meter N ASTM D5291-02 (Reapproved 2007) N
September N Flow meter N ASTM D5291-02 (Reapproved 2007) N
October N Flow meter N ASTM D5291-02 (Reapproved 2007) N
November N Flow meter N ASTM D5291-02 (Reapproved 2007) N
December N Flow meter N ASTM D5291-02 (Reapproved 2007) N

Type:
State of Feedstock or product:
Identify each method (i.e., method number, title or other description) used to determine the flow or mass of each carbon-containing product or feedstock: Venturi
Annual quantity of feedstock or product: 
If applicable, dates for each process change that reduced the composition to less than 99.5%:
MonthVolume for month based on missing data procedureVolume measurement methodOther volume measurement methodCarbon content or composition for month based on missing data procedureCarbon content or composition determination methodSpecify the practiceOther MethodName or title of the alternative carbon content determination methodExplanation as to why an alternative carbon content determination method was neededFile name of the copy of the alternative carbon content determination methodMolecular weight for month based on missing data procedure, if applicableMolecular weight determination method, if applicableOther methodName or title of the alternative molecular weight determination methodExplanation as to why an alternative molecular weight determination method was neededFile name of the copy of the alternative molecular weight determination methodTemperature at which volume was measured
January N Flow meter N Chromatographic analysis N Other (specify)GC Composition Analysis68 degrees Fahrenheit
February N Flow meter N Chromatographic analysis N Other (specify)GC Composition Analysis68 degrees Fahrenheit
March N Flow meter N Chromatographic analysis N Other (specify)GC Composition Analysis68 degrees Fahrenheit
April N Flow meter N Chromatographic analysis N Other (specify)GC Composition Analysis68 degrees Fahrenheit
May N Flow meter N Chromatographic analysis N Other (specify)GC Composition Analysis68 degrees Fahrenheit
June N Flow meter N Chromatographic analysis N Other (specify)GC Composition Analysis68 degrees Fahrenheit
July N Flow meter N Chromatographic analysis N Other (specify)GC Composition Analysis68 degrees Fahrenheit
August N Flow meter N Chromatographic analysis N Other (specify)GC Composition Analysis68 degrees Fahrenheit
September N Flow meter N Chromatographic analysis N Other (specify)GC Composition Analysis68 degrees Fahrenheit
October N Flow meter N Chromatographic analysis N Other (specify)GC Composition Analysis68 degrees Fahrenheit
November N Flow meter N Chromatographic analysis N Other (specify)GC Composition Analysis68 degrees Fahrenheit
December N Flow meter N Chromatographic analysis N Other (specify)GC Composition Analysis68 degrees Fahrenheit

Type:
State of Feedstock or product:
Identify each method (i.e., method number, title or other description) used to determine the flow or mass of each carbon-containing product or feedstock: Venturi
Annual quantity of feedstock or product: 
If applicable, dates for each process change that reduced the composition to less than 99.5%:
MonthVolume for month based on missing data procedureVolume measurement methodOther volume measurement methodCarbon content or composition for month based on missing data procedureCarbon content or composition determination methodSpecify the practiceOther MethodName or title of the alternative carbon content determination methodExplanation as to why an alternative carbon content determination method was neededFile name of the copy of the alternative carbon content determination methodMolecular weight for month based on missing data procedure, if applicableMolecular weight determination method, if applicableOther methodName or title of the alternative molecular weight determination methodExplanation as to why an alternative molecular weight determination method was neededFile name of the copy of the alternative molecular weight determination methodTemperature at which volume was measured
January N Flow meter N Chromatographic analysis N
February N Flow meter N Chromatographic analysis N
March N Flow meter N Chromatographic analysis N
April N Flow meter N Chromatographic analysis N
May N Flow meter N Chromatographic analysis N
June N Flow meter N Chromatographic analysis N
July N Flow meter N Chromatographic analysis N
August N Flow meter N Chromatographic analysis N
September N Flow meter N Chromatographic analysis N
October N Flow meter N Chromatographic analysis N
November N Flow meter N Chromatographic analysis N
December N Flow meter N Chromatographic analysis N

Type:
State of Feedstock or product:
Identify each method (i.e., method number, title or other description) used to determine the flow or mass of each carbon-containing product or feedstock: Venturi
Annual quantity of feedstock or product: 
If applicable, dates for each process change that reduced the composition to less than 99.5%:
MonthVolume for month based on missing data procedureVolume measurement methodOther volume measurement methodCarbon content or composition for month based on missing data procedureCarbon content or composition determination methodSpecify the practiceOther MethodName or title of the alternative carbon content determination methodExplanation as to why an alternative carbon content determination method was neededFile name of the copy of the alternative carbon content determination methodMolecular weight for month based on missing data procedure, if applicableMolecular weight determination method, if applicableOther methodName or title of the alternative molecular weight determination methodExplanation as to why an alternative molecular weight determination method was neededFile name of the copy of the alternative molecular weight determination methodTemperature at which volume was measured
January N Flow meter N Chromatographic analysis N Other (specify)GC Composition Analysis68 degrees Fahrenheit
February N Flow meter N Chromatographic analysis N Other (specify)GC Composition Analysis68 degrees Fahrenheit
March N Flow meter N Chromatographic analysis N Other (specify)GC Composition Analysis68 degrees Fahrenheit
April N Flow meter N Chromatographic analysis N Other (specify)GC Composition Analysis68 degrees Fahrenheit
May N Flow meter N Chromatographic analysis N Other (specify)GC Composition Analysis68 degrees Fahrenheit
June N Flow meter N Chromatographic analysis N Other (specify)GC Composition Analysis68 degrees Fahrenheit
July N Flow meter N Chromatographic analysis N Other (specify)GC Composition Analysis68 degrees Fahrenheit
August N Flow meter N Chromatographic analysis N Other (specify)GC Composition Analysis68 degrees Fahrenheit
September N Flow meter N Chromatographic analysis N Other (specify)GC Composition Analysis68 degrees Fahrenheit
October N Flow meter N Chromatographic analysis N Other (specify)GC Composition Analysis68 degrees Fahrenheit
November N Flow meter N Chromatographic analysis N Other (specify)GC Composition Analysis68 degrees Fahrenheit
December N Flow meter N Chromatographic analysis N Other (specify)GC Composition Analysis68 degrees Fahrenheit

Type:
State of Feedstock or product:
Identify each method (i.e., method number, title or other description) used to determine the flow or mass of each carbon-containing product or feedstock: Orifice
Annual quantity of feedstock or product: 
If applicable, dates for each process change that reduced the composition to less than 99.5%:
MonthVolume for month based on missing data procedureVolume measurement methodOther volume measurement methodCarbon content or composition for month based on missing data procedureCarbon content or composition determination methodSpecify the practiceOther MethodName or title of the alternative carbon content determination methodExplanation as to why an alternative carbon content determination method was neededFile name of the copy of the alternative carbon content determination methodMolecular weight for month based on missing data procedure, if applicableMolecular weight determination method, if applicableOther methodName or title of the alternative molecular weight determination methodExplanation as to why an alternative molecular weight determination method was neededFile name of the copy of the alternative molecular weight determination methodTemperature at which volume was measured
January N Flow meter N Other (specify)95% Rule N
February N Flow meter N Other (specify)95% Rule N
March N Flow meter N Other (specify)95% Rule N
April N Flow meter N Other (specify)95% Rule N
May N Flow meter N Other (specify)95% Rule N
June N Flow meter N Other (specify)95% Rule N
July N Flow meter N Other (specify)95% Rule N
August N Flow meter N Other (specify)95% Rule N
September N Flow meter N Other (specify)95% Rule N
October N Flow meter N Other (specify)95% Rule N
November N Flow meter N Other (specify)95% Rule N
December N Flow meter N Other (specify)95% Rule N

Type:
State of Feedstock or product:
Identify each method (i.e., method number, title or other description) used to determine the flow or mass of each carbon-containing product or feedstock: Orifice
Annual quantity of feedstock or product: 
If applicable, dates for each process change that reduced the composition to less than 99.5%:
MonthVolume for month based on missing data procedureVolume measurement methodOther volume measurement methodCarbon content or composition for month based on missing data procedureCarbon content or composition determination methodSpecify the practiceOther MethodName or title of the alternative carbon content determination methodExplanation as to why an alternative carbon content determination method was neededFile name of the copy of the alternative carbon content determination methodMolecular weight for month based on missing data procedure, if applicableMolecular weight determination method, if applicableOther methodName or title of the alternative molecular weight determination methodExplanation as to why an alternative molecular weight determination method was neededFile name of the copy of the alternative molecular weight determination methodTemperature at which volume was measured
January N Flow meter N Chromatographic analysis N
February N Flow meter N Chromatographic analysis N
March N Flow meter N Chromatographic analysis N
April N Flow meter N Chromatographic analysis N
May N Flow meter N Chromatographic analysis N
June N Flow meter N Chromatographic analysis N
July N Flow meter N Chromatographic analysis N
August N Flow meter N Chromatographic analysis N
September N Flow meter N Chromatographic analysis N
October N Flow meter N Chromatographic analysis N
November N Flow meter N Chromatographic analysis N
December N Flow meter N Chromatographic analysis N

Type:
State of Feedstock or product:
Identify each method (i.e., method number, title or other description) used to determine the flow or mass of each carbon-containing product or feedstock: Coriolis
Annual quantity of feedstock or product: 
If applicable, dates for each process change that reduced the composition to less than 99.5%:
MonthVolume for month based on missing data procedureVolume measurement methodOther volume measurement methodCarbon content or composition for month based on missing data procedureCarbon content or composition determination methodSpecify the practiceOther MethodName or title of the alternative carbon content determination methodExplanation as to why an alternative carbon content determination method was neededFile name of the copy of the alternative carbon content determination methodMolecular weight for month based on missing data procedure, if applicableMolecular weight determination method, if applicableOther methodName or title of the alternative molecular weight determination methodExplanation as to why an alternative molecular weight determination method was neededFile name of the copy of the alternative molecular weight determination methodTemperature at which volume was measured
January N Flow meter N ASTM D5291-02 (Reapproved 2007) N
February N Flow meter N ASTM D5291-02 (Reapproved 2007) N
March N Flow meter N ASTM D5291-02 (Reapproved 2007) N
April N Flow meter N ASTM D5291-02 (Reapproved 2007) N
May N Flow meter N ASTM D5291-02 (Reapproved 2007) N
June N Flow meter N ASTM D5291-02 (Reapproved 2007) N
July N Flow meter N ASTM D5291-02 (Reapproved 2007) N
August N Flow meter N ASTM D5291-02 (Reapproved 2007) N
September N Flow meter N ASTM D5291-02 (Reapproved 2007) N
October N Flow meter N ASTM D5291-02 (Reapproved 2007) N
November N Flow meter N ASTM D5291-02 (Reapproved 2007) N
December N Flow meter N ASTM D5291-02 (Reapproved 2007) N

Type:
State of Feedstock or product:
Identify each method (i.e., method number, title or other description) used to determine the flow or mass of each carbon-containing product or feedstock: Wedge Meter
Annual quantity of feedstock or product: 
If applicable, dates for each process change that reduced the composition to less than 99.5%:
MonthVolume for month based on missing data procedureVolume measurement methodOther volume measurement methodCarbon content or composition for month based on missing data procedureCarbon content or composition determination methodSpecify the practiceOther MethodName or title of the alternative carbon content determination methodExplanation as to why an alternative carbon content determination method was neededFile name of the copy of the alternative carbon content determination methodMolecular weight for month based on missing data procedure, if applicableMolecular weight determination method, if applicableOther methodName or title of the alternative molecular weight determination methodExplanation as to why an alternative molecular weight determination method was neededFile name of the copy of the alternative molecular weight determination methodTemperature at which volume was measured
January N Flow meter N ASTM D5291-02 (Reapproved 2007) N
February N Flow meter N ASTM D5291-02 (Reapproved 2007) N
March N Flow meter N ASTM D5291-02 (Reapproved 2007) N
April N Flow meter N ASTM D5291-02 (Reapproved 2007) N
May N Flow meter N ASTM D5291-02 (Reapproved 2007) N
June N Flow meter N ASTM D5291-02 (Reapproved 2007) N
July N Flow meter N ASTM D5291-02 (Reapproved 2007) N
August N Flow meter N ASTM D5291-02 (Reapproved 2007) N
September N Flow meter N ASTM D5291-02 (Reapproved 2007) N
October N Flow meter N ASTM D5291-02 (Reapproved 2007) N
November N Flow meter N ASTM D5291-02 (Reapproved 2007) N
December N Flow meter N ASTM D5291-02 (Reapproved 2007) N

Type:
State of Feedstock or product:
Identify each method (i.e., method number, title or other description) used to determine the flow or mass of each carbon-containing product or feedstock: Coriolis
Annual quantity of feedstock or product: 
If applicable, dates for each process change that reduced the composition to less than 99.5%:
MonthVolume for month based on missing data procedureVolume measurement methodOther volume measurement methodCarbon content or composition for month based on missing data procedureCarbon content or composition determination methodSpecify the practiceOther MethodName or title of the alternative carbon content determination methodExplanation as to why an alternative carbon content determination method was neededFile name of the copy of the alternative carbon content determination methodMolecular weight for month based on missing data procedure, if applicableMolecular weight determination method, if applicableOther methodName or title of the alternative molecular weight determination methodExplanation as to why an alternative molecular weight determination method was neededFile name of the copy of the alternative molecular weight determination methodTemperature at which volume was measured
January N Flow meter N Chromatographic analysis N
February N Flow meter N Chromatographic analysis N
March N Flow meter N Chromatographic analysis N
April N Flow meter N Chromatographic analysis N
May N Flow meter N Chromatographic analysis N
June N Flow meter N Chromatographic analysis N
July N Flow meter N Chromatographic analysis N
August N Flow meter N Chromatographic analysis N
September N Flow meter N Chromatographic analysis N
October N Flow meter N Chromatographic analysis N
November N Flow meter N Chromatographic analysis N
December N Flow meter N Chromatographic analysis N

Type:
State of Feedstock or product:
Identify each method (i.e., method number, title or other description) used to determine the flow or mass of each carbon-containing product or feedstock: Orifice
Annual quantity of feedstock or product: 
If applicable, dates for each process change that reduced the composition to less than 99.5%:
MonthVolume for month based on missing data procedureVolume measurement methodOther volume measurement methodCarbon content or composition for month based on missing data procedureCarbon content or composition determination methodSpecify the practiceOther MethodName or title of the alternative carbon content determination methodExplanation as to why an alternative carbon content determination method was neededFile name of the copy of the alternative carbon content determination methodMolecular weight for month based on missing data procedure, if applicableMolecular weight determination method, if applicableOther methodName or title of the alternative molecular weight determination methodExplanation as to why an alternative molecular weight determination method was neededFile name of the copy of the alternative molecular weight determination methodTemperature at which volume was measured
January N Flow meter N Other (specify)95% Rule N Calculated based on chemical formula and atomic weights68 degrees Fahrenheit
February N Flow meter N Other (specify)95% Rule N Calculated based on chemical formula and atomic weights68 degrees Fahrenheit
March N Flow meter N Other (specify)95% Rule N Calculated based on chemical formula and atomic weights68 degrees Fahrenheit
April N Flow meter N Other (specify)95% Rule N Calculated based on chemical formula and atomic weights68 degrees Fahrenheit
May N Flow meter N Other (specify)95% Rule N Calculated based on chemical formula and atomic weights68 degrees Fahrenheit
June N Flow meter N Other (specify)95% Rule N Calculated based on chemical formula and atomic weights68 degrees Fahrenheit
July N Flow meter N Other (specify)95% Rule N Calculated based on chemical formula and atomic weights68 degrees Fahrenheit
August N Flow meter N Other (specify)95% Rule N Calculated based on chemical formula and atomic weights68 degrees Fahrenheit
September N Flow meter N Other (specify)95% Rule N Calculated based on chemical formula and atomic weights68 degrees Fahrenheit
October N Flow meter N Other (specify)95% Rule N Calculated based on chemical formula and atomic weights68 degrees Fahrenheit
November N Flow meter N Other (specify)95% Rule N Calculated based on chemical formula and atomic weights68 degrees Fahrenheit
December N Flow meter N Other (specify)95% Rule N Calculated based on chemical formula and atomic weights68 degrees Fahrenheit

Type:
State of Feedstock or product:
Identify each method (i.e., method number, title or other description) used to determine the flow or mass of each carbon-containing product or feedstock: Venturi
Annual quantity of feedstock or product: 
If applicable, dates for each process change that reduced the composition to less than 99.5%:
MonthVolume for month based on missing data procedureVolume measurement methodOther volume measurement methodCarbon content or composition for month based on missing data procedureCarbon content or composition determination methodSpecify the practiceOther MethodName or title of the alternative carbon content determination methodExplanation as to why an alternative carbon content determination method was neededFile name of the copy of the alternative carbon content determination methodMolecular weight for month based on missing data procedure, if applicableMolecular weight determination method, if applicableOther methodName or title of the alternative molecular weight determination methodExplanation as to why an alternative molecular weight determination method was neededFile name of the copy of the alternative molecular weight determination methodTemperature at which volume was measured
January N Flow meter N Other (specify)95% Rule N Calculated based on chemical formula and atomic weights68 degrees Fahrenheit
February N Flow meter N Other (specify)95% Rule N Calculated based on chemical formula and atomic weights68 degrees Fahrenheit
March N Flow meter N Other (specify)95% Rule N Calculated based on chemical formula and atomic weights68 degrees Fahrenheit
April N Flow meter N Other (specify)95% Rule N Calculated based on chemical formula and atomic weights68 degrees Fahrenheit
May N Flow meter N Other (specify)95% Rule N Calculated based on chemical formula and atomic weights68 degrees Fahrenheit
June N Flow meter N Other (specify)95% Rule N Calculated based on chemical formula and atomic weights68 degrees Fahrenheit
July N Flow meter N Other (specify)95% Rule N Calculated based on chemical formula and atomic weights68 degrees Fahrenheit
August N Flow meter N Other (specify)95% Rule N Calculated based on chemical formula and atomic weights68 degrees Fahrenheit
September N Flow meter N Other (specify)95% Rule N Calculated based on chemical formula and atomic weights68 degrees Fahrenheit
October N Flow meter N Other (specify)95% Rule N Calculated based on chemical formula and atomic weights68 degrees Fahrenheit
November N Flow meter N Other (specify)95% Rule N Calculated based on chemical formula and atomic weights68 degrees Fahrenheit
December N Flow meter N Other (specify)95% Rule N Calculated based on chemical formula and atomic weights68 degrees Fahrenheit

Type:
State of Feedstock or product:
Identify each method (i.e., method number, title or other description) used to determine the flow or mass of each carbon-containing product or feedstock: Venturi
Annual quantity of feedstock or product: 
If applicable, dates for each process change that reduced the composition to less than 99.5%:
MonthVolume for month based on missing data procedureVolume measurement methodOther volume measurement methodCarbon content or composition for month based on missing data procedureCarbon content or composition determination methodSpecify the practiceOther MethodName or title of the alternative carbon content determination methodExplanation as to why an alternative carbon content determination method was neededFile name of the copy of the alternative carbon content determination methodMolecular weight for month based on missing data procedure, if applicableMolecular weight determination method, if applicableOther methodName or title of the alternative molecular weight determination methodExplanation as to why an alternative molecular weight determination method was neededFile name of the copy of the alternative molecular weight determination methodTemperature at which volume was measured
January N Flow meter N Chromatographic analysis N Other (specify)GC Composition Analysis68 degrees Fahrenheit
February N Flow meter N Chromatographic analysis N Other (specify)GC Composition Analysis68 degrees Fahrenheit
March N Flow meter N Chromatographic analysis N Other (specify)GC Composition Analysis68 degrees Fahrenheit
April N Flow meter N Chromatographic analysis N Other (specify)GC Composition Analysis68 degrees Fahrenheit
May N Flow meter N Chromatographic analysis N Other (specify)GC Composition Analysis68 degrees Fahrenheit
June N Flow meter N Chromatographic analysis N Other (specify)GC Composition Analysis68 degrees Fahrenheit
July N Flow meter N Chromatographic analysis N Other (specify)GC Composition Analysis68 degrees Fahrenheit
August N Flow meter N Chromatographic analysis N Other (specify)GC Composition Analysis68 degrees Fahrenheit
September N Flow meter N Chromatographic analysis N Other (specify)GC Composition Analysis68 degrees Fahrenheit
October N Flow meter N Chromatographic analysis N Other (specify)GC Composition Analysis68 degrees Fahrenheit
November N Flow meter N Chromatographic analysis N Other (specify)GC Composition Analysis68 degrees Fahrenheit
December N Flow meter N Chromatographic analysis N Other (specify)GC Composition Analysis68 degrees Fahrenheit


Petrochemical process units monitored using the ethylene combustion methodology:

Name or ID:LHC9 Alternative Method
Description:
Type:Petrochemical process unit
Type of petrochemical produced:Ethylene
Annual quantity of ethylene produced: 

Subpart C stationary combustion units
The unit name or identifier of Subpart C stationary combustion unitThe fraction of the total emissions attributable to the ethylene process unit
CP-LHC9 FURNACES0.017
LHC9 OC2 TOX0.233

Carbon-containing feedstocks
The type of carbon-containing feedstock fed to the ethylene process unitThe annual quantity of the carbon-containing feedstock (Metric Tons)


Flare Gas Details

Name or ID: LHC9 LP FLARE
Description:
Type: Flare
Is the flare serviced by a flare gas recovery system ? N
Type of flare: Air-assisted
Other Flare type:

Flare service type: Unit flare
Other Flare service type:

Basis for the fraction of carbon in the flare gas contributed by methane value: Chromatographic analysis: manufacturer's instructions
Other Basis for the fraction of carbon in the flare gas contributed by methane value:

Emissions Details
CO2 Emissions Calculation Method: 98.253(b)(1)(ii)(A) - Equation Y-1a Gas Composition Monitored
NameValueOwn Result?
CO2Emissions2013.5 (Metric Tons)N

NameValueOwn Result?
CH4Emissions8.47 (Metric Tons)N

NameValueOwn Result?
N2OEmissions0.020 (Metric Tons)N

Y1a Equation Details

Were flare gas data used as inputs to Equation Y-1a collected on a mass or volumetric basis: Volumetric basis
Frequency of measurement data: Daily
Annual volume of flare gas combusted: 49501935.88 scf
Specific consensus-based standard method or describe the procedure specified by the flow meter manufacturer: Annual periodic in-situ three point verification by testing sound and gas velocity against theoretical sound and gas velocity.
Number of days missing data procedures were used for annual volume of flare gas combusted: 0
Annual average molecular weight: 18.6 kg/kg-mole
Method(s) used to determine the molecular weight of the flare gas:
Chromatographic analysis: manufacturer's instructions

Number of days missing data procedures were used for annual average molecular weight of the flare gas: 0
Annual average carbon content of the flare gas: 0.56 decimal fraction; kg carbon/kg flare gas
Method(s) used to determine the carbon content of the flare gas:
Chromatographic analysis: manufacturer's instructions

Number of days missing data procedures were used for average carbon content of the flare gas: 0

Name or ID: LHC9 MPG FLARE
Description:
Type: Flare
Is the flare serviced by a flare gas recovery system ? N
Type of flare: Air-assisted
Other Flare type:

Flare service type: Unit flare
Other Flare service type:

Basis for the fraction of carbon in the flare gas contributed by methane value: Chromatographic analysis: manufacturer's instructions
Other Basis for the fraction of carbon in the flare gas contributed by methane value:

Emissions Details
CO2 Emissions Calculation Method: 98.253(b)(1)(ii)(A) - Equation Y-1a Gas Composition Monitored
NameValueOwn Result?
CO2Emissions7279.3 (Metric Tons)N

NameValueOwn Result?
CH4Emissions23.05 (Metric Tons)N

NameValueOwn Result?
N2OEmissions0.073 (Metric Tons)N

Y1a Equation Details

Were flare gas data used as inputs to Equation Y-1a collected on a mass or volumetric basis: Volumetric basis
Frequency of measurement data: Daily
Annual volume of flare gas combusted: 204138552.17 scf
Specific consensus-based standard method or describe the procedure specified by the flow meter manufacturer: Annual periodic in-situ three point verification by testing sound and gas velocity against theoretical sound and gas velocity.
Number of days missing data procedures were used for annual volume of flare gas combusted: 0
Annual average molecular weight: 20.24 kg/kg-mole
Method(s) used to determine the molecular weight of the flare gas:
Chromatographic analysis: manufacturer's instructions

Number of days missing data procedures were used for annual average molecular weight of the flare gas: 0
Annual average carbon content of the flare gas: 0.42 decimal fraction; kg carbon/kg flare gas
Method(s) used to determine the carbon content of the flare gas:
Chromatographic analysis: manufacturer's instructions

Number of days missing data procedures were used for average carbon content of the flare gas: 0

Subpart DD: Electrical Transmission and Distribution Equipment Use

Gas Information Details

Gas NameSulfur hexafluoride
Gas CAS Registry Number2551-62-4
Gas Linear Chemical FormulaSF6
Gas Quantity0 (Metric Tons)
Own Result?

Gas NamePFC-218 (Perfluoropropane)
Gas CAS Registry Number76-19-7
Gas Linear Chemical FormulaC3F8
Gas Quantity0 (Metric Tons)
Own Result?

Gas NamePFC-3-1-10 (Perfluorobutane)
Gas CAS Registry Number355-25-9
Gas Linear Chemical FormulaC4F10
Gas Quantity0 (Metric Tons)
Own Result?

Gas NamePerfluorocyclopropane
Gas CAS Registry Number931-91-9
Gas Linear Chemical FormulaC-C3F6
Gas Quantity0 (Metric Tons)
Own Result?

Gas NamePFC-9-1-18
Gas CAS Registry Number306-94-5
Gas Linear Chemical FormulaC10F18
Gas Quantity0 (Metric Tons)
Own Result?

Gas NamePFC-14 (Perfluoromethane)
Gas CAS Registry Number75-73-0
Gas Linear Chemical FormulaCF4
Gas Quantity0 (Metric Tons)
Own Result?

Gas NamePFC-4-1-12 (Perfluoropentane)
Gas CAS Registry Number678-26-2
Gas Linear Chemical FormulaC5F12
Gas Quantity0 (Metric Tons)
Own Result?

Gas NamePFC-116 (Perfluoroethane)
Gas CAS Registry Number76-16-4
Gas Linear Chemical FormulaC2F6
Gas Quantity0 (Metric Tons)
Own Result?

Gas NamePFC-5-1-14 (Perfluorohexane)
Gas CAS Registry Number355-42-0 (a)
Gas Linear Chemical FormulaC6F14
Gas Quantity0 (Metric Tons)
Own Result?

Gas NamePerfluorocyclobutane
Gas CAS Registry Number115-25-3
Gas Linear Chemical FormulaC-C4F8
Gas Quantity0 (Metric Tons)
Own Result?


SubpartDDSummaryDetails:
Length of transmission lines carrying voltages above 35 kilovolts (miles) [98.306(b)]28.22
Were missing data methods used for the length of transmission lines carrying voltages above 35 kilovolts [98.3(c)(8)]No
If yes, report the reason the data were missing [98.3(c)(8)]
If yes, report the method used for estimating missing data [98.3(c)(8)]
Length of distribution lines carrying voltages at or below 35 kilovolts (miles) [98.306(c)]400
Were missing data methods used for the length of distribution lines carrying voltages at or below 35 kilovolts [98.3(c)(8)]No
If yes, report the reason the data were missing [98.3(c)(8)]
If yes, report the method used for estimating missing data [98.3(c)(8)]


FacilityTerritoryLiesRowDetails:
State(s) or territory in which the facility lies [98.306(m)]Texas


GHGDDSpecificInformationDetails:


MissingDataMethodsForEachApplicableGasRowDetails:
SF6 or PFCSulfur hexafluoride
Select whether the following GHGs are estimated for this facility [§98.3(c)(4)]Yes
Beginning Nameplate Capacity, excluding hermetically sealed-pressure switchgear (pounds) [98.306(a)(1)]24703.5
Were missing data methods used for nameplate capacity of new hermetically sealed-pressure switchgear during the year? [98.3(c)(8)]No
If yes, report the reason the data were missing [98.3(c)(8)]
If yes, report the method used for estimating missing data [98.3(c)(8)]
Were missing data methods used for nameplate capacity of new equipment other than hermetically sealed-pressure switchgear during the year? [98.3(c)(8)]No
If yes, report the reason the data were missing [98.3(c)(8)]
If yes, report the method used for estimating missing data [98.3(c)(8)]
Were missing data methods used for the nameplate capacity of retired hermetically sealed-pressure switchgear during the year? [98.3(c)(8)]No
If yes, report the reason the data were missing [98.3(c)(8)]
If yes, report the method used for estimating missing data [98.3(c)(8)]
Were missing data methods used for nameplate capacity of retired equipment other than hermetically sealed-pressure switchgear during the year? [98.3(c)(8)]No
If yes, report the reason the data were missing [98.3(c)(8)]
If yes, report the method used for estimating missing data [98.3(c)(8)]
Were missing data methods used for the number of new hermetically sealed-pressure switchgear? [98.3(c)(8)]No
If yes, report the reason the data were missing [98.3(c)(8)]
If yes, report the method used for estimating missing data [98.3(c)(8)]
Were missing data methods used for the number of new equipment other than hermetically sealed-pressure switchgear? [98.3(c)(8)]No
If yes, report the reason the data were missing [98.3(c)(8)]
If yes, report the method used for estimating missing data [98.3(c)(8)]
Were missing data methods used for the number of retired hermetically sealed-pressure switchgear? [98.3(c)(8)]No
If yes, report the reason the data were missing [98.3(c)(8)]
If yes, report the method used for estimating missing data [98.3(c)(8)]
Were missing data methods used for the number of retired equipment other than hermetically sealed-pressure switchgear? [98.3(c)(8)]No
If yes, report the reason the data were missing [98.3(c)(8)]
If yes, report the method used for estimating missing data [98.3(c)(8)]
Were missing data methods used for the quantity of the GHG stored in containers, but not in energized equipment, at the beginning of the year? [98.3(c)(8)]No
If yes, report the reason the data were missing [98.3(c)(8)]
If yes, report the method used for estimating missing data [98.3(c)(8)]
Were missing data methods used for the quantity of the GHG stored in containers, but not in energized equipment, at the end of the year? [98.3(c)(8)]No
If yes, report the reason the data were missing [98.3(c)(8)]
If yes, report the method used for estimating missing data [98.3(c)(8)]
Were missing data methods used for the quantity of the GHG purchased in bulk from chemical producers or distributors? [98.3(c)(8)]No
If yes, report the reason the data were missing [98.3(c)(8)]
If yes, report the method used for estimating missing data [98.3(c)(8)]
Were missing data methods used for the quantity of the GHG purchased from equipment manufacturers or distributors with or inside equipment, including hermetically sealed-pressure switchgear? [98.3(c)(8)]No
If yes, report the reason the data were missing [98.3(c)(8)]
If yes, report the method used for estimating missing data [98.3(c)(8)]
Were missing data methods used for the quantity of the GHG returned to facility after off-site recycling? [98.3(c)(8)]No
If yes, report the reason the data were missing [98.3(c)(8)]
If yes, report the method used for estimating missing data [98.3(c)(8)]
Were missing data methods used for the quantity of the GHG in bulk and contained in equipment sold to other entities? [98.3(c)(8)]No
If yes, report the reason the data were missing [98.3(c)(8)]
If yes, report the method used for estimating missing data [98.3(c)(8)]
Were missing data methods used for the quantity of the GHG returned to suppliers? [98.3(c)(8)]No
If yes, report the reason the data were missing [98.3(c)(8)]
If yes, report the method used for estimating missing data [98.3(c)(8)]
Were missing data methods used for the quantity of the GHG sent off-site for recycling? [98.3(c)(8)]No
If yes, report the reason the data were missing [98.3(c)(8)]
If yes, report the method used for estimating missing data [98.3(c)(8)]
Were missing data methods used for the quantity of the GHG sent off-site for destruction? [98.3(c)(8)]No
If yes, report the reason the data were missing [98.3(c)(8)]
If yes, report the method used for estimating missing data [98.3(c)(8)]
SF6 or PFCPFC-14 (Perfluoromethane)
Select whether the following GHGs are estimated for this facility [§98.3(c)(4)]
SF6 or PFCPFC-116 (Perfluoroethane)
Select whether the following GHGs are estimated for this facility [§98.3(c)(4)]
SF6 or PFCPFC-218 (Perfluoropropane)
Select whether the following GHGs are estimated for this facility [§98.3(c)(4)]
SF6 or PFCPerfluorocyclopropane
Select whether the following GHGs are estimated for this facility [§98.3(c)(4)]
SF6 or PFCPFC-3-1-10 (Perfluorobutane)
Select whether the following GHGs are estimated for this facility [§98.3(c)(4)]
SF6 or PFCPerfluorocyclobutane
Select whether the following GHGs are estimated for this facility [§98.3(c)(4)]
SF6 or PFCPFC-4-1-12 (Perfluoropentane)
Select whether the following GHGs are estimated for this facility [§98.3(c)(4)]
SF6 or PFCPFC-5-1-14 (Perfluorohexane)
Select whether the following GHGs are estimated for this facility [§98.3(c)(4)]
SF6 or PFCPFC-9-1-18
Select whether the following GHGs are estimated for this facility [§98.3(c)(4)]


CalculateDecreaseInSF6AndPFCRowDetails:
SF6 or PFCSulfur hexafluoride
Pounds of SF6 or PFC stored in containers, but not in energized equipment, at the beginning of the year [98.306(d)]165
Pounds of SF6 or PFC stored in containers, but not in energized equipment, at the end of the year [98.306(e)]165
Decrease in SF6 or PFC Inventory (pounds, rounded) [98.303(a)/(b)] --- Reported Value (User Override? (Y/N))0 (N)
SF6 or PFCPFC-14 (Perfluoromethane)
Pounds of SF6 or PFC stored in containers, but not in energized equipment, at the beginning of the year [98.306(d)]
Pounds of SF6 or PFC stored in containers, but not in energized equipment, at the end of the year [98.306(e)]
Decrease in SF6 or PFC Inventory (pounds, rounded) [98.303(a)/(b)] --- Reported Value (User Override? (Y/N))0 (N)
SF6 or PFCPFC-116 (Perfluoroethane)
Pounds of SF6 or PFC stored in containers, but not in energized equipment, at the beginning of the year [98.306(d)]
Pounds of SF6 or PFC stored in containers, but not in energized equipment, at the end of the year [98.306(e)]
Decrease in SF6 or PFC Inventory (pounds, rounded) [98.303(a)/(b)] --- Reported Value (User Override? (Y/N))0 (N)
SF6 or PFCPFC-218 (Perfluoropropane)
Pounds of SF6 or PFC stored in containers, but not in energized equipment, at the beginning of the year [98.306(d)]
Pounds of SF6 or PFC stored in containers, but not in energized equipment, at the end of the year [98.306(e)]
Decrease in SF6 or PFC Inventory (pounds, rounded) [98.303(a)/(b)] --- Reported Value (User Override? (Y/N))0 (N)
SF6 or PFCPerfluorocyclopropane
Pounds of SF6 or PFC stored in containers, but not in energized equipment, at the beginning of the year [98.306(d)]
Pounds of SF6 or PFC stored in containers, but not in energized equipment, at the end of the year [98.306(e)]
Decrease in SF6 or PFC Inventory (pounds, rounded) [98.303(a)/(b)] --- Reported Value (User Override? (Y/N))0 (N)
SF6 or PFCPFC-3-1-10 (Perfluorobutane)
Pounds of SF6 or PFC stored in containers, but not in energized equipment, at the beginning of the year [98.306(d)]
Pounds of SF6 or PFC stored in containers, but not in energized equipment, at the end of the year [98.306(e)]
Decrease in SF6 or PFC Inventory (pounds, rounded) [98.303(a)/(b)] --- Reported Value (User Override? (Y/N))0 (N)
SF6 or PFCPerfluorocyclobutane
Pounds of SF6 or PFC stored in containers, but not in energized equipment, at the beginning of the year [98.306(d)]
Pounds of SF6 or PFC stored in containers, but not in energized equipment, at the end of the year [98.306(e)]
Decrease in SF6 or PFC Inventory (pounds, rounded) [98.303(a)/(b)] --- Reported Value (User Override? (Y/N))0 (N)
SF6 or PFCPFC-4-1-12 (Perfluoropentane)
Pounds of SF6 or PFC stored in containers, but not in energized equipment, at the beginning of the year [98.306(d)]
Pounds of SF6 or PFC stored in containers, but not in energized equipment, at the end of the year [98.306(e)]
Decrease in SF6 or PFC Inventory (pounds, rounded) [98.303(a)/(b)] --- Reported Value (User Override? (Y/N))0 (N)
SF6 or PFCPFC-5-1-14 (Perfluorohexane)
Pounds of SF6 or PFC stored in containers, but not in energized equipment, at the beginning of the year [98.306(d)]
Pounds of SF6 or PFC stored in containers, but not in energized equipment, at the end of the year [98.306(e)]
Decrease in SF6 or PFC Inventory (pounds, rounded) [98.303(a)/(b)] --- Reported Value (User Override? (Y/N))0 (N)
SF6 or PFCPFC-9-1-18
Pounds of SF6 or PFC stored in containers, but not in energized equipment, at the beginning of the year [98.306(d)]
Pounds of SF6 or PFC stored in containers, but not in energized equipment, at the end of the year [98.306(e)]
Decrease in SF6 or PFC Inventory (pounds, rounded) [98.303(a)/(b)] --- Reported Value (User Override? (Y/N))0 (N)


CalculateAcquisitionsOfSF6AndPFCRowDetails:
SF6 or PFCSulfur hexafluoride
Pounds of SF6 or PFC purchased from chemical producers or distributors in bulk [98.306(f)]0
Pounds of SF6 or PFC purchased from equipment manufacturers or distributors with or inside equipment, including hermetically sealed-pressure switchgear [98.306(g)]507
Pounds of SF6 or PFC returned to facility after off-site recycling [98.306(h)]0
Acquisitions of SF6 or PFC (pounds, rounded) [98.303(a)/(b)] --- Reported Value (User Override? (Y/N))507 (N)
SF6 or PFCPFC-14 (Perfluoromethane)
Pounds of SF6 or PFC purchased from chemical producers or distributors in bulk [98.306(f)]
Pounds of SF6 or PFC purchased from equipment manufacturers or distributors with or inside equipment, including hermetically sealed-pressure switchgear [98.306(g)]
Pounds of SF6 or PFC returned to facility after off-site recycling [98.306(h)]
Acquisitions of SF6 or PFC (pounds, rounded) [98.303(a)/(b)] --- Reported Value (User Override? (Y/N))0 (N)
SF6 or PFCPFC-116 (Perfluoroethane)
Pounds of SF6 or PFC purchased from chemical producers or distributors in bulk [98.306(f)]
Pounds of SF6 or PFC purchased from equipment manufacturers or distributors with or inside equipment, including hermetically sealed-pressure switchgear [98.306(g)]
Pounds of SF6 or PFC returned to facility after off-site recycling [98.306(h)]
Acquisitions of SF6 or PFC (pounds, rounded) [98.303(a)/(b)] --- Reported Value (User Override? (Y/N))0 (N)
SF6 or PFCPFC-218 (Perfluoropropane)
Pounds of SF6 or PFC purchased from chemical producers or distributors in bulk [98.306(f)]
Pounds of SF6 or PFC purchased from equipment manufacturers or distributors with or inside equipment, including hermetically sealed-pressure switchgear [98.306(g)]
Pounds of SF6 or PFC returned to facility after off-site recycling [98.306(h)]
Acquisitions of SF6 or PFC (pounds, rounded) [98.303(a)/(b)] --- Reported Value (User Override? (Y/N))0 (N)
SF6 or PFCPerfluorocyclopropane
Pounds of SF6 or PFC purchased from chemical producers or distributors in bulk [98.306(f)]
Pounds of SF6 or PFC purchased from equipment manufacturers or distributors with or inside equipment, including hermetically sealed-pressure switchgear [98.306(g)]
Pounds of SF6 or PFC returned to facility after off-site recycling [98.306(h)]
Acquisitions of SF6 or PFC (pounds, rounded) [98.303(a)/(b)] --- Reported Value (User Override? (Y/N))0 (N)
SF6 or PFCPFC-3-1-10 (Perfluorobutane)
Pounds of SF6 or PFC purchased from chemical producers or distributors in bulk [98.306(f)]
Pounds of SF6 or PFC purchased from equipment manufacturers or distributors with or inside equipment, including hermetically sealed-pressure switchgear [98.306(g)]
Pounds of SF6 or PFC returned to facility after off-site recycling [98.306(h)]
Acquisitions of SF6 or PFC (pounds, rounded) [98.303(a)/(b)] --- Reported Value (User Override? (Y/N))0 (N)
SF6 or PFCPerfluorocyclobutane
Pounds of SF6 or PFC purchased from chemical producers or distributors in bulk [98.306(f)]
Pounds of SF6 or PFC purchased from equipment manufacturers or distributors with or inside equipment, including hermetically sealed-pressure switchgear [98.306(g)]
Pounds of SF6 or PFC returned to facility after off-site recycling [98.306(h)]
Acquisitions of SF6 or PFC (pounds, rounded) [98.303(a)/(b)] --- Reported Value (User Override? (Y/N))0 (N)
SF6 or PFCPFC-4-1-12 (Perfluoropentane)
Pounds of SF6 or PFC purchased from chemical producers or distributors in bulk [98.306(f)]
Pounds of SF6 or PFC purchased from equipment manufacturers or distributors with or inside equipment, including hermetically sealed-pressure switchgear [98.306(g)]
Pounds of SF6 or PFC returned to facility after off-site recycling [98.306(h)]
Acquisitions of SF6 or PFC (pounds, rounded) [98.303(a)/(b)] --- Reported Value (User Override? (Y/N))0 (N)
SF6 or PFCPFC-5-1-14 (Perfluorohexane)
Pounds of SF6 or PFC purchased from chemical producers or distributors in bulk [98.306(f)]
Pounds of SF6 or PFC purchased from equipment manufacturers or distributors with or inside equipment, including hermetically sealed-pressure switchgear [98.306(g)]
Pounds of SF6 or PFC returned to facility after off-site recycling [98.306(h)]
Acquisitions of SF6 or PFC (pounds, rounded) [98.303(a)/(b)] --- Reported Value (User Override? (Y/N))0 (N)
SF6 or PFCPFC-9-1-18
Pounds of SF6 or PFC purchased from chemical producers or distributors in bulk [98.306(f)]
Pounds of SF6 or PFC purchased from equipment manufacturers or distributors with or inside equipment, including hermetically sealed-pressure switchgear [98.306(g)]
Pounds of SF6 or PFC returned to facility after off-site recycling [98.306(h)]
Acquisitions of SF6 or PFC (pounds, rounded) [98.303(a)/(b)] --- Reported Value (User Override? (Y/N))0 (N)


CalculateDisbursementsOfSF6AndPFCRowDetails:
SF6 or PFCSulfur hexafluoride
Pounds of SF6 or PFC in bulk and contained in equipment that is sold to other entities [98.306(i)]0
Pounds of SF6 or PFC returned to suppliers [98.306(j)]0
Pounds of SF6 or PFC sent off-site for recycling [98.306(k)]0
Pounds of SF6 or PFC sent off-site for destruction [98.306(l)]0
Disbursements of SF6 or PFC (pounds, rounded) [98.303(a)/(b)] --- Reported Value (User Override? (Y/N))0 (N)
SF6 or PFCPFC-14 (Perfluoromethane)
Pounds of SF6 or PFC in bulk and contained in equipment that is sold to other entities [98.306(i)]
Pounds of SF6 or PFC returned to suppliers [98.306(j)]
Pounds of SF6 or PFC sent off-site for recycling [98.306(k)]
Pounds of SF6 or PFC sent off-site for destruction [98.306(l)]
Disbursements of SF6 or PFC (pounds, rounded) [98.303(a)/(b)] --- Reported Value (User Override? (Y/N))0 (N)
SF6 or PFCPFC-116 (Perfluoroethane)
Pounds of SF6 or PFC in bulk and contained in equipment that is sold to other entities [98.306(i)]
Pounds of SF6 or PFC returned to suppliers [98.306(j)]
Pounds of SF6 or PFC sent off-site for recycling [98.306(k)]
Pounds of SF6 or PFC sent off-site for destruction [98.306(l)]
Disbursements of SF6 or PFC (pounds, rounded) [98.303(a)/(b)] --- Reported Value (User Override? (Y/N))0 (N)
SF6 or PFCPFC-218 (Perfluoropropane)
Pounds of SF6 or PFC in bulk and contained in equipment that is sold to other entities [98.306(i)]
Pounds of SF6 or PFC returned to suppliers [98.306(j)]
Pounds of SF6 or PFC sent off-site for recycling [98.306(k)]
Pounds of SF6 or PFC sent off-site for destruction [98.306(l)]
Disbursements of SF6 or PFC (pounds, rounded) [98.303(a)/(b)] --- Reported Value (User Override? (Y/N))0 (N)
SF6 or PFCPerfluorocyclopropane
Pounds of SF6 or PFC in bulk and contained in equipment that is sold to other entities [98.306(i)]
Pounds of SF6 or PFC returned to suppliers [98.306(j)]
Pounds of SF6 or PFC sent off-site for recycling [98.306(k)]
Pounds of SF6 or PFC sent off-site for destruction [98.306(l)]
Disbursements of SF6 or PFC (pounds, rounded) [98.303(a)/(b)] --- Reported Value (User Override? (Y/N))0 (N)
SF6 or PFCPFC-3-1-10 (Perfluorobutane)
Pounds of SF6 or PFC in bulk and contained in equipment that is sold to other entities [98.306(i)]
Pounds of SF6 or PFC returned to suppliers [98.306(j)]
Pounds of SF6 or PFC sent off-site for recycling [98.306(k)]
Pounds of SF6 or PFC sent off-site for destruction [98.306(l)]
Disbursements of SF6 or PFC (pounds, rounded) [98.303(a)/(b)] --- Reported Value (User Override? (Y/N))0 (N)
SF6 or PFCPerfluorocyclobutane
Pounds of SF6 or PFC in bulk and contained in equipment that is sold to other entities [98.306(i)]
Pounds of SF6 or PFC returned to suppliers [98.306(j)]
Pounds of SF6 or PFC sent off-site for recycling [98.306(k)]
Pounds of SF6 or PFC sent off-site for destruction [98.306(l)]
Disbursements of SF6 or PFC (pounds, rounded) [98.303(a)/(b)] --- Reported Value (User Override? (Y/N))0 (N)
SF6 or PFCPFC-4-1-12 (Perfluoropentane)
Pounds of SF6 or PFC in bulk and contained in equipment that is sold to other entities [98.306(i)]
Pounds of SF6 or PFC returned to suppliers [98.306(j)]
Pounds of SF6 or PFC sent off-site for recycling [98.306(k)]
Pounds of SF6 or PFC sent off-site for destruction [98.306(l)]
Disbursements of SF6 or PFC (pounds, rounded) [98.303(a)/(b)] --- Reported Value (User Override? (Y/N))0 (N)
SF6 or PFCPFC-5-1-14 (Perfluorohexane)
Pounds of SF6 or PFC in bulk and contained in equipment that is sold to other entities [98.306(i)]
Pounds of SF6 or PFC returned to suppliers [98.306(j)]
Pounds of SF6 or PFC sent off-site for recycling [98.306(k)]
Pounds of SF6 or PFC sent off-site for destruction [98.306(l)]
Disbursements of SF6 or PFC (pounds, rounded) [98.303(a)/(b)] --- Reported Value (User Override? (Y/N))0 (N)
SF6 or PFCPFC-9-1-18
Pounds of SF6 or PFC in bulk and contained in equipment that is sold to other entities [98.306(i)]
Pounds of SF6 or PFC returned to suppliers [98.306(j)]
Pounds of SF6 or PFC sent off-site for recycling [98.306(k)]
Pounds of SF6 or PFC sent off-site for destruction [98.306(l)]
Disbursements of SF6 or PFC (pounds, rounded) [98.303(a)/(b)] --- Reported Value (User Override? (Y/N))0 (N)


CalculateNetIncreaseInTotalNameplateCapacityRowDetails:
SF6 or PFCSulfur hexafluoride
Nameplate Capacity of new hermetically sealed-pressure switchgear (pounds) [98.306(a)(2)]0
Nameplate Capacity of new equipment other than hermetically sealed-pressure switchgear (pounds) [98.306(a)(3)]507
Nameplate Capacity of retired hermetically sealed-pressure switchgear (pounds) [98.306(a)(4)]0
Nameplate Capacity of retired equipment other than hermetically sealed-pressure switchgear (pounds) [98.306(a)(5)]0
Net Increase in Total Nameplate Capacity of Equipment Operated (pounds, rounded) [98.303(a)/(b)] --- Reported Value (User Override? (Y/N))507 (N)
SF6 or PFCPFC-14 (Perfluoromethane)
Nameplate Capacity of new hermetically sealed-pressure switchgear (pounds) [98.306(a)(2)]
Nameplate Capacity of new equipment other than hermetically sealed-pressure switchgear (pounds) [98.306(a)(3)]
Nameplate Capacity of retired hermetically sealed-pressure switchgear (pounds) [98.306(a)(4)]
Nameplate Capacity of retired equipment other than hermetically sealed-pressure switchgear (pounds) [98.306(a)(5)]
Net Increase in Total Nameplate Capacity of Equipment Operated (pounds, rounded) [98.303(a)/(b)] --- Reported Value (User Override? (Y/N))0 (N)
SF6 or PFCPFC-116 (Perfluoroethane)
Nameplate Capacity of new hermetically sealed-pressure switchgear (pounds) [98.306(a)(2)]
Nameplate Capacity of new equipment other than hermetically sealed-pressure switchgear (pounds) [98.306(a)(3)]
Nameplate Capacity of retired hermetically sealed-pressure switchgear (pounds) [98.306(a)(4)]
Nameplate Capacity of retired equipment other than hermetically sealed-pressure switchgear (pounds) [98.306(a)(5)]
Net Increase in Total Nameplate Capacity of Equipment Operated (pounds, rounded) [98.303(a)/(b)] --- Reported Value (User Override? (Y/N))0 (N)
SF6 or PFCPFC-218 (Perfluoropropane)
Nameplate Capacity of new hermetically sealed-pressure switchgear (pounds) [98.306(a)(2)]
Nameplate Capacity of new equipment other than hermetically sealed-pressure switchgear (pounds) [98.306(a)(3)]
Nameplate Capacity of retired hermetically sealed-pressure switchgear (pounds) [98.306(a)(4)]
Nameplate Capacity of retired equipment other than hermetically sealed-pressure switchgear (pounds) [98.306(a)(5)]
Net Increase in Total Nameplate Capacity of Equipment Operated (pounds, rounded) [98.303(a)/(b)] --- Reported Value (User Override? (Y/N))0 (N)
SF6 or PFCPerfluorocyclopropane
Nameplate Capacity of new hermetically sealed-pressure switchgear (pounds) [98.306(a)(2)]
Nameplate Capacity of new equipment other than hermetically sealed-pressure switchgear (pounds) [98.306(a)(3)]
Nameplate Capacity of retired hermetically sealed-pressure switchgear (pounds) [98.306(a)(4)]
Nameplate Capacity of retired equipment other than hermetically sealed-pressure switchgear (pounds) [98.306(a)(5)]
Net Increase in Total Nameplate Capacity of Equipment Operated (pounds, rounded) [98.303(a)/(b)] --- Reported Value (User Override? (Y/N))0 (N)
SF6 or PFCPFC-3-1-10 (Perfluorobutane)
Nameplate Capacity of new hermetically sealed-pressure switchgear (pounds) [98.306(a)(2)]
Nameplate Capacity of new equipment other than hermetically sealed-pressure switchgear (pounds) [98.306(a)(3)]
Nameplate Capacity of retired hermetically sealed-pressure switchgear (pounds) [98.306(a)(4)]
Nameplate Capacity of retired equipment other than hermetically sealed-pressure switchgear (pounds) [98.306(a)(5)]
Net Increase in Total Nameplate Capacity of Equipment Operated (pounds, rounded) [98.303(a)/(b)] --- Reported Value (User Override? (Y/N))0 (N)
SF6 or PFCPerfluorocyclobutane
Nameplate Capacity of new hermetically sealed-pressure switchgear (pounds) [98.306(a)(2)]
Nameplate Capacity of new equipment other than hermetically sealed-pressure switchgear (pounds) [98.306(a)(3)]
Nameplate Capacity of retired hermetically sealed-pressure switchgear (pounds) [98.306(a)(4)]
Nameplate Capacity of retired equipment other than hermetically sealed-pressure switchgear (pounds) [98.306(a)(5)]
Net Increase in Total Nameplate Capacity of Equipment Operated (pounds, rounded) [98.303(a)/(b)] --- Reported Value (User Override? (Y/N))0 (N)
SF6 or PFCPFC-4-1-12 (Perfluoropentane)
Nameplate Capacity of new hermetically sealed-pressure switchgear (pounds) [98.306(a)(2)]
Nameplate Capacity of new equipment other than hermetically sealed-pressure switchgear (pounds) [98.306(a)(3)]
Nameplate Capacity of retired hermetically sealed-pressure switchgear (pounds) [98.306(a)(4)]
Nameplate Capacity of retired equipment other than hermetically sealed-pressure switchgear (pounds) [98.306(a)(5)]
Net Increase in Total Nameplate Capacity of Equipment Operated (pounds, rounded) [98.303(a)/(b)] --- Reported Value (User Override? (Y/N))0 (N)
SF6 or PFCPFC-5-1-14 (Perfluorohexane)
Nameplate Capacity of new hermetically sealed-pressure switchgear (pounds) [98.306(a)(2)]
Nameplate Capacity of new equipment other than hermetically sealed-pressure switchgear (pounds) [98.306(a)(3)]
Nameplate Capacity of retired hermetically sealed-pressure switchgear (pounds) [98.306(a)(4)]
Nameplate Capacity of retired equipment other than hermetically sealed-pressure switchgear (pounds) [98.306(a)(5)]
Net Increase in Total Nameplate Capacity of Equipment Operated (pounds, rounded) [98.303(a)/(b)] --- Reported Value (User Override? (Y/N))0 (N)
SF6 or PFCPFC-9-1-18
Nameplate Capacity of new hermetically sealed-pressure switchgear (pounds) [98.306(a)(2)]
Nameplate Capacity of new equipment other than hermetically sealed-pressure switchgear (pounds) [98.306(a)(3)]
Nameplate Capacity of retired hermetically sealed-pressure switchgear (pounds) [98.306(a)(4)]
Nameplate Capacity of retired equipment other than hermetically sealed-pressure switchgear (pounds) [98.306(a)(5)]
Net Increase in Total Nameplate Capacity of Equipment Operated (pounds, rounded) [98.303(a)/(b)] --- Reported Value (User Override? (Y/N))0 (N)


Sf6PfcEquipmentCategoriesRowDetails:
SF6 or PFCSulfur hexafluoride
New hermetically sealed-pressure switchgear [98.306(n)(1)]0
New equipment other than hermetically sealed-pressure switchgear [98.306(n)(2)]1
Retired hermetically sealed-pressure switchgear [98.306(n)(3)]0
Retired equipment other than hermetically sealed-pressure switchgear [98.306(n)(4)]0
SF6 or PFCPFC-14 (Perfluoromethane)
New hermetically sealed-pressure switchgear [98.306(n)(1)]
New equipment other than hermetically sealed-pressure switchgear [98.306(n)(2)]
Retired hermetically sealed-pressure switchgear [98.306(n)(3)]
Retired equipment other than hermetically sealed-pressure switchgear [98.306(n)(4)]
SF6 or PFCPFC-116 (Perfluoroethane)
New hermetically sealed-pressure switchgear [98.306(n)(1)]
New equipment other than hermetically sealed-pressure switchgear [98.306(n)(2)]
Retired hermetically sealed-pressure switchgear [98.306(n)(3)]
Retired equipment other than hermetically sealed-pressure switchgear [98.306(n)(4)]
SF6 or PFCPFC-218 (Perfluoropropane)
New hermetically sealed-pressure switchgear [98.306(n)(1)]
New equipment other than hermetically sealed-pressure switchgear [98.306(n)(2)]
Retired hermetically sealed-pressure switchgear [98.306(n)(3)]
Retired equipment other than hermetically sealed-pressure switchgear [98.306(n)(4)]
SF6 or PFCPerfluorocyclopropane
New hermetically sealed-pressure switchgear [98.306(n)(1)]
New equipment other than hermetically sealed-pressure switchgear [98.306(n)(2)]
Retired hermetically sealed-pressure switchgear [98.306(n)(3)]
Retired equipment other than hermetically sealed-pressure switchgear [98.306(n)(4)]
SF6 or PFCPFC-3-1-10 (Perfluorobutane)
New hermetically sealed-pressure switchgear [98.306(n)(1)]
New equipment other than hermetically sealed-pressure switchgear [98.306(n)(2)]
Retired hermetically sealed-pressure switchgear [98.306(n)(3)]
Retired equipment other than hermetically sealed-pressure switchgear [98.306(n)(4)]
SF6 or PFCPerfluorocyclobutane
New hermetically sealed-pressure switchgear [98.306(n)(1)]
New equipment other than hermetically sealed-pressure switchgear [98.306(n)(2)]
Retired hermetically sealed-pressure switchgear [98.306(n)(3)]
Retired equipment other than hermetically sealed-pressure switchgear [98.306(n)(4)]
SF6 or PFCPFC-4-1-12 (Perfluoropentane)
New hermetically sealed-pressure switchgear [98.306(n)(1)]
New equipment other than hermetically sealed-pressure switchgear [98.306(n)(2)]
Retired hermetically sealed-pressure switchgear [98.306(n)(3)]
Retired equipment other than hermetically sealed-pressure switchgear [98.306(n)(4)]
SF6 or PFCPFC-5-1-14 (Perfluorohexane)
New hermetically sealed-pressure switchgear [98.306(n)(1)]
New equipment other than hermetically sealed-pressure switchgear [98.306(n)(2)]
Retired hermetically sealed-pressure switchgear [98.306(n)(3)]
Retired equipment other than hermetically sealed-pressure switchgear [98.306(n)(4)]
SF6 or PFCPFC-9-1-18
New hermetically sealed-pressure switchgear [98.306(n)(1)]
New equipment other than hermetically sealed-pressure switchgear [98.306(n)(2)]
Retired hermetically sealed-pressure switchgear [98.306(n)(3)]
Retired equipment other than hermetically sealed-pressure switchgear [98.306(n)(4)]


CalculatedValueOfUserEmissionsPerGasRowDetails:
SF6 or PFCSulfur hexafluoride
Decrease in SF6 or PFC Inventory (pounds, rounded) [98.303(a)/(b)] [F2=B4 or B6]0
Acquisitions of SF6 or PFC (pounds, rounded) [98.303(a)/(b)] [F3=C5 or C7]507
Disbursements of SF6 or PFC (pounds, rounded) [98.303(a)/(b)] [F4=D6 or D8]0
Net Increase in Total Nameplate Capacity of Equipment Operated (pounds, rounded) [98.303(a)/(b)] [F5=E6 or E8]507
User Emissions (pounds, rounded) [98.303(a)/(b) and 98.3(c)(4)(iii)] --- Output of Eq. DD-1 [F6=F2+F3−F4−F5]0
SF6 or PFCPFC-14 (Perfluoromethane)
Decrease in SF6 or PFC Inventory (pounds, rounded) [98.303(a)/(b)] [F2=B4 or B6]0
Acquisitions of SF6 or PFC (pounds, rounded) [98.303(a)/(b)] [F3=C5 or C7]0
Disbursements of SF6 or PFC (pounds, rounded) [98.303(a)/(b)] [F4=D6 or D8]0
Net Increase in Total Nameplate Capacity of Equipment Operated (pounds, rounded) [98.303(a)/(b)] [F5=E6 or E8]0
User Emissions (pounds, rounded) [98.303(a)/(b) and 98.3(c)(4)(iii)] --- Output of Eq. DD-1 [F6=F2+F3−F4−F5]0
SF6 or PFCPFC-116 (Perfluoroethane)
Decrease in SF6 or PFC Inventory (pounds, rounded) [98.303(a)/(b)] [F2=B4 or B6]0
Acquisitions of SF6 or PFC (pounds, rounded) [98.303(a)/(b)] [F3=C5 or C7]0
Disbursements of SF6 or PFC (pounds, rounded) [98.303(a)/(b)] [F4=D6 or D8]0
Net Increase in Total Nameplate Capacity of Equipment Operated (pounds, rounded) [98.303(a)/(b)] [F5=E6 or E8]0
User Emissions (pounds, rounded) [98.303(a)/(b) and 98.3(c)(4)(iii)] --- Output of Eq. DD-1 [F6=F2+F3−F4−F5]0
SF6 or PFCPFC-218 (Perfluoropropane)
Decrease in SF6 or PFC Inventory (pounds, rounded) [98.303(a)/(b)] [F2=B4 or B6]0
Acquisitions of SF6 or PFC (pounds, rounded) [98.303(a)/(b)] [F3=C5 or C7]0
Disbursements of SF6 or PFC (pounds, rounded) [98.303(a)/(b)] [F4=D6 or D8]0
Net Increase in Total Nameplate Capacity of Equipment Operated (pounds, rounded) [98.303(a)/(b)] [F5=E6 or E8]0
User Emissions (pounds, rounded) [98.303(a)/(b) and 98.3(c)(4)(iii)] --- Output of Eq. DD-1 [F6=F2+F3−F4−F5]0
SF6 or PFCPerfluorocyclopropane
Decrease in SF6 or PFC Inventory (pounds, rounded) [98.303(a)/(b)] [F2=B4 or B6]0
Acquisitions of SF6 or PFC (pounds, rounded) [98.303(a)/(b)] [F3=C5 or C7]0
Disbursements of SF6 or PFC (pounds, rounded) [98.303(a)/(b)] [F4=D6 or D8]0
Net Increase in Total Nameplate Capacity of Equipment Operated (pounds, rounded) [98.303(a)/(b)] [F5=E6 or E8]0
User Emissions (pounds, rounded) [98.303(a)/(b) and 98.3(c)(4)(iii)] --- Output of Eq. DD-1 [F6=F2+F3−F4−F5]0
SF6 or PFCPFC-3-1-10 (Perfluorobutane)
Decrease in SF6 or PFC Inventory (pounds, rounded) [98.303(a)/(b)] [F2=B4 or B6]0
Acquisitions of SF6 or PFC (pounds, rounded) [98.303(a)/(b)] [F3=C5 or C7]0
Disbursements of SF6 or PFC (pounds, rounded) [98.303(a)/(b)] [F4=D6 or D8]0
Net Increase in Total Nameplate Capacity of Equipment Operated (pounds, rounded) [98.303(a)/(b)] [F5=E6 or E8]0
User Emissions (pounds, rounded) [98.303(a)/(b) and 98.3(c)(4)(iii)] --- Output of Eq. DD-1 [F6=F2+F3−F4−F5]0
SF6 or PFCPerfluorocyclobutane
Decrease in SF6 or PFC Inventory (pounds, rounded) [98.303(a)/(b)] [F2=B4 or B6]0
Acquisitions of SF6 or PFC (pounds, rounded) [98.303(a)/(b)] [F3=C5 or C7]0
Disbursements of SF6 or PFC (pounds, rounded) [98.303(a)/(b)] [F4=D6 or D8]0
Net Increase in Total Nameplate Capacity of Equipment Operated (pounds, rounded) [98.303(a)/(b)] [F5=E6 or E8]0
User Emissions (pounds, rounded) [98.303(a)/(b) and 98.3(c)(4)(iii)] --- Output of Eq. DD-1 [F6=F2+F3−F4−F5]0
SF6 or PFCPFC-4-1-12 (Perfluoropentane)
Decrease in SF6 or PFC Inventory (pounds, rounded) [98.303(a)/(b)] [F2=B4 or B6]0
Acquisitions of SF6 or PFC (pounds, rounded) [98.303(a)/(b)] [F3=C5 or C7]0
Disbursements of SF6 or PFC (pounds, rounded) [98.303(a)/(b)] [F4=D6 or D8]0
Net Increase in Total Nameplate Capacity of Equipment Operated (pounds, rounded) [98.303(a)/(b)] [F5=E6 or E8]0
User Emissions (pounds, rounded) [98.303(a)/(b) and 98.3(c)(4)(iii)] --- Output of Eq. DD-1 [F6=F2+F3−F4−F5]0
SF6 or PFCPFC-5-1-14 (Perfluorohexane)
Decrease in SF6 or PFC Inventory (pounds, rounded) [98.303(a)/(b)] [F2=B4 or B6]0
Acquisitions of SF6 or PFC (pounds, rounded) [98.303(a)/(b)] [F3=C5 or C7]0
Disbursements of SF6 or PFC (pounds, rounded) [98.303(a)/(b)] [F4=D6 or D8]0
Net Increase in Total Nameplate Capacity of Equipment Operated (pounds, rounded) [98.303(a)/(b)] [F5=E6 or E8]0
User Emissions (pounds, rounded) [98.303(a)/(b) and 98.3(c)(4)(iii)] --- Output of Eq. DD-1 [F6=F2+F3−F4−F5]0
SF6 or PFCPFC-9-1-18
Decrease in SF6 or PFC Inventory (pounds, rounded) [98.303(a)/(b)] [F2=B4 or B6]0
Acquisitions of SF6 or PFC (pounds, rounded) [98.303(a)/(b)] [F3=C5 or C7]0
Disbursements of SF6 or PFC (pounds, rounded) [98.303(a)/(b)] [F4=D6 or D8]0
Net Increase in Total Nameplate Capacity of Equipment Operated (pounds, rounded) [98.303(a)/(b)] [F5=E6 or E8]0
User Emissions (pounds, rounded) [98.303(a)/(b) and 98.3(c)(4)(iii)] --- Output of Eq. DD-1 [F6=F2+F3−F4−F5]0


Subpart TT: Industrial Waste Landfills

Gas Information Details

Gas NameCarbon Dioxide
Gas Quantity0 (Metric Tons)
Own Result?

Gas NameBiogenic Carbon dioxide
Gas Quantity0 (Metric Tons)
Own Result?

Gas NameMethane
Gas Quantity4,808.67 (Metric Tons)
Own Result?

Gas NameNitrous Oxide
Gas Quantity0 (Metric Tons)
Own Result?

Landfill Details:
Was the landfill open or closed Open
First year the landfill accepted waste1975
If the landfill is open, the estimated year of landfill closure2036
Landfill Capacity4462443 (Metric Tons)
Does the landfill have a landfill gas collection systemN
Passive vents and/or flares are present (vents or flares that are not considered part of the gas collection system)N
An indication of whether leachate recirculation was used during the reporting yearN
The typical frequency of use of leachate recirculation over the past ten (10) yearsNot used for the past ten (10) years
Each type of cover material used and Landfill surface area containing waste
Clay cover64000 (Square Meters)
Number of waste streams5
Annual modeled methane generation TT15342.97 (Metric Tons)
Annual modeled methane generation TT1 user overrided valueN

Equation TT-1 Details:
The fraction of CH4 in landfill gas (F), is it based on a measured value or default valueDefault
Fraction by volume of CH4 in landfill gas ()
An MCF value other than the default of 1 was usedN

Waste Stream For Method3 Details:
Capacity of the landfill used (or the total quantity of waste-in-place) at the end of the "YrData" from design drawings or engineering estimates1124933 (Metric Tons)
Are waste quantity data available?Waste quantity data are available for some years
The year prior to the year when waste disposal data are first available(YrData)1993
Do you know the year when the landfill opened?Yes
The year the landfill first received waste from company records, or 1960 (whichever is more recent)1975

Waste Stream For Method4 Details:
Do you know the year when the landfill opened?Y

Methane Generation and Emissions for Landfills without LFG Collection Systems

Methane Oxidation Fraction
Methane Oxidation Fraction TT-6 0.10


Gas Collection Systems details
Methane Generation Equation TT64808.67 (Metric Tons)

Waste Stream Summary:

Stream Identification and Method(s) used to determine historical waste stream quantity for TXOP_Construction & Demo

Stream NameTXOP_Construction & Demo
Stream Descriptioncontaminated soil, lined pipe, building material and rubble
Type(s) Of Waste Present In The Waste Stream
construction and demolition
Range of years for which both disposal and production data were used in Equation TT-2 to calculate the average waste disposal factor for the landfill1994-2005
First year this waste stream was placed in the landfill1975
Last year this waste stream was placed in the landfill2019
Method(s) used to determine historical waste stream quantity
Reporting YearMethod #1Method #2Method #3Method #4DecayrateWaste disposed quantity (UOM)Waste stream DOC value (UOM)Is defaulted value from table TT1Is value measured using 60 day anaerobic biodegradation testIs based on total volatile solids measurements
1975NNYN0.04947 (Metric Tons)0.08 (Metric Tons)YNN
1976NNYN0.04947 (Metric Tons)0.08 (Metric Tons)YNN
1977NNYN0.04947 (Metric Tons)0.08 (Metric Tons)YNN
1978NNYN0.04947 (Metric Tons)0.08 (Metric Tons)YNN
1979NNYN0.04947 (Metric Tons)0.08 (Metric Tons)YNN
1980NNYN0.04947 (Metric Tons)0.08 (Metric Tons)YNN
1981NNYN0.04947 (Metric Tons)0.08 (Metric Tons)YNN
1982NNYN0.04947 (Metric Tons)0.08 (Metric Tons)YNN
1983NNYN0.04947 (Metric Tons)0.08 (Metric Tons)YNN
1984NNYN0.04947 (Metric Tons)0.08 (Metric Tons)YNN
1985NNYN0.04947 (Metric Tons)0.08 (Metric Tons)YNN
1986NNYN0.04947 (Metric Tons)0.08 (Metric Tons)YNN
1987NNYN0.04947 (Metric Tons)0.08 (Metric Tons)YNN
1988NNYN0.04947 (Metric Tons)0.08 (Metric Tons)YNN
1989NNYN0.04947 (Metric Tons)0.08 (Metric Tons)YNN
1990NNYN0.04947 (Metric Tons)0.08 (Metric Tons)YNN
1991NNYN0.04947 (Metric Tons)0.08 (Metric Tons)YNN
1992NNYN0.04947 (Metric Tons)0.08 (Metric Tons)YNN
1993NNYN0.04947 (Metric Tons)0.08 (Metric Tons)YNN
1994NYNN0.041199 (Metric Tons)0.08 (Metric Tons)YNN
1995NYNN0.041325 (Metric Tons)0.08 (Metric Tons)YNN
1996NYNN0.041373 (Metric Tons)0.08 (Metric Tons)YNN
1997NYNN0.041418 (Metric Tons)0.08 (Metric Tons)YNN
1998NYNN0.041392 (Metric Tons)0.08 (Metric Tons)YNN
1999NYNN0.041456 (Metric Tons)0.08 (Metric Tons)YNN
2000NYNN0.041541 (Metric Tons)0.08 (Metric Tons)YNN
2001NYNN0.041412 (Metric Tons)0.08 (Metric Tons)YNN
2002NYNN0.041381 (Metric Tons)0.08 (Metric Tons)YNN
2003NYNN0.041537 (Metric Tons)0.08 (Metric Tons)YNN
2004NYNN0.041625 (Metric Tons)0.08 (Metric Tons)YNN
2005NYNN0.041496 (Metric Tons)0.08 (Metric Tons)YNN
2006YNNN0.041249 (Metric Tons)0.08 (Metric Tons)YNN
2007YNNN0.041065 (Metric Tons)0.08 (Metric Tons)YNN
2008YNNN0.042332 (Metric Tons)0.08 (Metric Tons)YNN
2009YNNN0.04498 (Metric Tons)0.08 (Metric Tons)YNN
2010YNNN0.041330 (Metric Tons)0.08 (Metric Tons)YNN
2011YNNN0.041214 (Metric Tons)0.08 (Metric Tons)YNN
2012YNNN0.0433077 (Metric Tons)0.08 (Metric Tons)YNN
2013YNNN0.0457479 (Metric Tons)0.08 (Metric Tons)YNN
2014YNNN0.0433935 (Metric Tons)0.08 (Metric Tons)YNN
2015YNNN0.0431654 (Metric Tons)0.08 (Metric Tons)YNN
2016YNNN0.0451679 (Metric Tons)0.08 (Metric Tons)YNN
2017YNNN0.0447513 (Metric Tons)0.08 (Metric Tons)YNN
2018YNNN0.0421087 (Metric Tons)0.08 (Metric Tons)YNN
2019YNNN0.0413327 (Metric Tons)0.08 (Metric Tons)YNN

Stream Identification and Method(s) used to determine historical waste stream quantity for TXOP_Inert Waste Streams

Stream NameTXOP_Inert Waste Streams
Stream DescriptionAsbestos, insulation,transite type material and UNCONTAMINATED soil & rubble
Type(s) Of Waste Present In The Waste Stream
inert waste
Range of years for which both disposal and production data were used in Equation TT-2 to calculate the average waste disposal factor for the landfill1994-2005
First year this waste stream was placed in the landfill1975
Last year this waste stream was placed in the landfill2019
Method(s) used to determine historical waste stream quantity
Reporting YearMethod #1Method #2Method #3Method #4DecayrateWaste disposed quantity (UOM)Waste stream DOC value (UOM)Is defaulted value from table TT1Is value measured using 60 day anaerobic biodegradation testIs based on total volatile solids measurements
1975NNYN02901 (Metric Tons)0 (Metric Tons)YNN
1976NNYN02901 (Metric Tons)0 (Metric Tons)YNN
1977NNYN02901 (Metric Tons)0 (Metric Tons)YNN
1978NNYN02901 (Metric Tons)0 (Metric Tons)YNN
1979NNYN02901 (Metric Tons)0 (Metric Tons)YNN
1980NNYN02901 (Metric Tons)0 (Metric Tons)YNN
1981NNYN02901 (Metric Tons)0 (Metric Tons)YNN
1982NNYN02901 (Metric Tons)0 (Metric Tons)YNN
1983NNYN02901 (Metric Tons)0 (Metric Tons)YNN
1984NNYN02901 (Metric Tons)0 (Metric Tons)YNN
1985NNYN02901 (Metric Tons)0 (Metric Tons)YNN
1986NNYN02901 (Metric Tons)0 (Metric Tons)YNN
1987NNYN02901 (Metric Tons)0 (Metric Tons)YNN
1988NNYN02901 (Metric Tons)0 (Metric Tons)YNN
1989NNYN02901 (Metric Tons)0 (Metric Tons)YNN
1990NNYN02901 (Metric Tons)0 (Metric Tons)YNN
1991NNYN02901 (Metric Tons)0 (Metric Tons)YNN
1992NNYN02901 (Metric Tons)0 (Metric Tons)YNN
1993NNYN02901 (Metric Tons)0 (Metric Tons)YNN
1994NYNN03631 (Metric Tons)0 (Metric Tons)YNN
1995NYNN04058 (Metric Tons)0 (Metric Tons)YNN
1996NYNN04202 (Metric Tons)0 (Metric Tons)YNN
1997NYNN04344 (Metric Tons)0 (Metric Tons)YNN
1998NYNN04262 (Metric Tons)0 (Metric Tons)YNN
1999NYNN04459 (Metric Tons)0 (Metric Tons)YNN
2000NYNN04719 (Metric Tons)0 (Metric Tons)YNN
2001NYNN04323 (Metric Tons)0 (Metric Tons)YNN
2002NYNN04229 (Metric Tons)0 (Metric Tons)YNN
2003NYNN04708 (Metric Tons)0 (Metric Tons)YNN
2004NYNN04975 (Metric Tons)0 (Metric Tons)YNN
2005NYNN04583 (Metric Tons)0 (Metric Tons)YNN
2006YNNN06694 (Metric Tons)0 (Metric Tons)YNN
2007YNNN03908 (Metric Tons)0 (Metric Tons)YNN
2008YNNN03873 (Metric Tons)0 (Metric Tons)YNN
2009YNNN01494 (Metric Tons)0 (Metric Tons)YNN
2010YNNN02666 (Metric Tons)0 (Metric Tons)YNN
2011YNNN05489 (Metric Tons)0 (Metric Tons)YNN
2012YNNN04252 (Metric Tons)0 (Metric Tons)YNN
2013YNNN01220 (Metric Tons)0 (Metric Tons)YNN
2014YNNN0941 (Metric Tons)0 (Metric Tons)YNN
2015YNNN01990 (Metric Tons)0 (Metric Tons)YNN
2016YNNN02445 (Metric Tons)0 (Metric Tons)YNN
2017YNNN04485 (Metric Tons)0 (Metric Tons)YNN
2018YNNN02972 (Metric Tons)0 (Metric Tons)YNN
2019YNNN0265.3 (Metric Tons)0 (Metric Tons)YNN

Stream Identification and Method(s) used to determine historical waste stream quantity for TXOP_Other Industrial Solid Waste

Stream NameTXOP_Other Industrial Solid Waste
Stream DescriptionNon burnable trash, biosolids, contaminated filters and other plant wastes
Type(s) Of Waste Present In The Waste Stream
other industrial solid waste
Range of years for which both disposal and production data were used in Equation TT-2 to calculate the average waste disposal factor for the landfill1994-2005
First year this waste stream was placed in the landfill1975
Last year this waste stream was placed in the landfill2019
Method(s) used to determine historical waste stream quantity
Reporting YearMethod #1Method #2Method #3Method #4DecayrateWaste disposed quantity (UOM)Waste stream DOC value (UOM)Is defaulted value from table TT1Is value measured using 60 day anaerobic biodegradation testIs based on total volatile solids measurements
1975NNYN0.0653760 (Metric Tons)0.2 (Metric Tons)YNN
1976NNYN0.0653760 (Metric Tons)0.2 (Metric Tons)YNN
1977NNYN0.0653760 (Metric Tons)0.2 (Metric Tons)YNN
1978NNYN0.0653760 (Metric Tons)0.2 (Metric Tons)YNN
1979NNYN0.0653760 (Metric Tons)0.2 (Metric Tons)YNN
1980NNYN0.0653760 (Metric Tons)0.2 (Metric Tons)YNN
1981NNYN0.0653760 (Metric Tons)0.2 (Metric Tons)YNN
1982NNYN0.0653760 (Metric Tons)0.2 (Metric Tons)YNN
1983NNYN0.0653760 (Metric Tons)0.2 (Metric Tons)YNN
1984NNYN0.0653760 (Metric Tons)0.2 (Metric Tons)YNN
1985NNYN0.0653760 (Metric Tons)0.2 (Metric Tons)YNN
1986NNYN0.0653760 (Metric Tons)0.2 (Metric Tons)YNN
1987NNYN0.0653760 (Metric Tons)0.2 (Metric Tons)YNN
1988NNYN0.0653760 (Metric Tons)0.2 (Metric Tons)YNN
1989NNYN0.0653760 (Metric Tons)0.2 (Metric Tons)YNN
1990NNYN0.0653760 (Metric Tons)0.2 (Metric Tons)YNN
1991NNYN0.0653760 (Metric Tons)0.2 (Metric Tons)YNN
1992NNYN0.0653760 (Metric Tons)0.2 (Metric Tons)YNN
1993NNYN0.0653760 (Metric Tons)0.2 (Metric Tons)YNN
1994NYNN0.0668017 (Metric Tons)0.2 (Metric Tons)YNN
1995NYNN0.0675195 (Metric Tons)0.2 (Metric Tons)YNN
1996NYNN0.0677895 (Metric Tons)0.2 (Metric Tons)YNN
1997NYNN0.0680489 (Metric Tons)0.2 (Metric Tons)YNN
1998NYNN0.0678984 (Metric Tons)0.2 (Metric Tons)YNN
1999NYNN0.0682633 (Metric Tons)0.2 (Metric Tons)YNN
2000NYNN0.0687447 (Metric Tons)0.2 (Metric Tons)YNN
2001NYNN0.0680107 (Metric Tons)0.2 (Metric Tons)YNN
2002NYNN0.0678365 (Metric Tons)0.2 (Metric Tons)YNN
2003NYNN0.0687237 (Metric Tons)0.2 (Metric Tons)YNN
2004NYNN0.0692195 (Metric Tons)0.2 (Metric Tons)YNN
2005NYNN0.0684919 (Metric Tons)0.2 (Metric Tons)YNN
2006YNNN0.0671048 (Metric Tons)0.2 (Metric Tons)YNN
2007YNNN0.0669590 (Metric Tons)0.2 (Metric Tons)YNN
2008YNNN0.0664300 (Metric Tons)0.2 (Metric Tons)YNN
2009YNNN0.0656383 (Metric Tons)0.2 (Metric Tons)YNN
2010YNNN0.0678087 (Metric Tons)0.2 (Metric Tons)YNN
2011YNNN0.06109054 (Metric Tons)0.2 (Metric Tons)YNN
2012YNNN0.06102742 (Metric Tons)0.2 (Metric Tons)YNN
2013YNNN0.0691228 (Metric Tons)0.2 (Metric Tons)YNN
2014YNNN0.0676554 (Metric Tons)0.2 (Metric Tons)YNN
2015YNNN0.0674854 (Metric Tons)0.2 (Metric Tons)YNN
2016YNNN0.0680559 (Metric Tons)0.2 (Metric Tons)YNN
2017YNNN0.0674086 (Metric Tons)0.2 (Metric Tons)YNN
2018YNNN0.0688535 (Metric Tons)0.2 (Metric Tons)YNN
2019YNNN0.0666473 (Metric Tons)0.2 (Metric Tons)YNN

Stream Identification and Method(s) used to determine historical waste stream quantity for TXOP_Pulp and Paper Wastes

Stream NameTXOP_Pulp and Paper Wastes
Stream DescriptionPaper products
Type(s) Of Waste Present In The Waste Stream
pulp and paper wastes not segregated into separate streams
pulp and paper manufacturing wastes, general
Range of years for which both disposal and production data were used in Equation TT-2 to calculate the average waste disposal factor for the landfill1994-2005
First year this waste stream was placed in the landfill1975
Last year this waste stream was placed in the landfill2019
Method(s) used to determine historical waste stream quantity
Reporting YearMethod #1Method #2Method #3Method #4DecayrateWaste disposed quantity (UOM)Waste stream DOC value (UOM)Is defaulted value from table TT1Is value measured using 60 day anaerobic biodegradation testIs based on total volatile solids measurements
1975NNYN0.0418 (Metric Tons)0.15 (Metric Tons)YNN
1976NNYN0.0418 (Metric Tons)0.15 (Metric Tons)YNN
1977NNYN0.0418 (Metric Tons)0.15 (Metric Tons)YNN
1978NNYN0.0418 (Metric Tons)0.15 (Metric Tons)YNN
1979NNYN0.0418 (Metric Tons)0.15 (Metric Tons)YNN
1980NNYN0.0418 (Metric Tons)0.15 (Metric Tons)YNN
1981NNYN0.0418 (Metric Tons)0.15 (Metric Tons)YNN
1982NNYN0.0418 (Metric Tons)0.15 (Metric Tons)YNN
1983NNYN0.0418 (Metric Tons)0.15 (Metric Tons)YNN
1984NNYN0.0418 (Metric Tons)0.15 (Metric Tons)YNN
1985NNYN0.0418 (Metric Tons)0.15 (Metric Tons)YNN
1986NNYN0.0418 (Metric Tons)0.15 (Metric Tons)YNN
1987NNYN0.0418 (Metric Tons)0.15 (Metric Tons)YNN
1988NNYN0.0418 (Metric Tons)0.15 (Metric Tons)YNN
1989NNYN0.0418 (Metric Tons)0.15 (Metric Tons)YNN
1990NNYN0.0418 (Metric Tons)0.15 (Metric Tons)YNN
1991NNYN0.0418 (Metric Tons)0.15 (Metric Tons)YNN
1992NNYN0.0418 (Metric Tons)0.15 (Metric Tons)YNN
1993NNYN0.0418 (Metric Tons)0.15 (Metric Tons)YNN
1994NYNN0.0422 (Metric Tons)0.15 (Metric Tons)YNN
1995NYNN0.0425 (Metric Tons)0.15 (Metric Tons)YNN
1996NYNN0.0426 (Metric Tons)0.15 (Metric Tons)YNN
1997NYNN0.0427 (Metric Tons)0.15 (Metric Tons)YNN
1998NYNN0.0426 (Metric Tons)0.15 (Metric Tons)YNN
1999NYNN0.0427 (Metric Tons)0.15 (Metric Tons)YNN
2000NYNN0.0429 (Metric Tons)0.15 (Metric Tons)YNN
2001NYNN0.0426 (Metric Tons)0.15 (Metric Tons)YNN
2002NYNN0.0426 (Metric Tons)0.15 (Metric Tons)YNN
2003NYNN0.0429 (Metric Tons)0.15 (Metric Tons)YNN
2004NYNN0.0430 (Metric Tons)0.15 (Metric Tons)YNN
2005NYNN0.0428 (Metric Tons)0.15 (Metric Tons)YNN
2006YNNN0.0432 (Metric Tons)0.15 (Metric Tons)YNN
2007YNNN0.0432 (Metric Tons)0.15 (Metric Tons)YNN
2008YNNN0.0423 (Metric Tons)0.15 (Metric Tons)YNN
2009YNNN0.0434 (Metric Tons)0.15 (Metric Tons)YNN
2010YNNN0.0417 (Metric Tons)0.15 (Metric Tons)YNN
2011YNNN0.0411 (Metric Tons)0.15 (Metric Tons)YNN
2012YNNN0.0413 (Metric Tons)0.15 (Metric Tons)YNN
2013YNNN0.048 (Metric Tons)0.15 (Metric Tons)YNN
2014YNNN0.0411 (Metric Tons)0.15 (Metric Tons)YNN
2015YNNN0.0411 (Metric Tons)0.15 (Metric Tons)YNN
2016YNNN0.048 (Metric Tons)0.15 (Metric Tons)YNN
2017YNNN0.047 (Metric Tons)0.15 (Metric Tons)YNN
2018YNNN0.040.4 (Metric Tons)0.15 (Metric Tons)YNN
2019YNNN0.044.4 (Metric Tons)0.15 (Metric Tons)YNN

Stream Identification and Method(s) used to determine historical waste stream quantity for TXOP_Wood and Wood Products

Stream NameTXOP_Wood and Wood Products
Stream DescriptionUNCONTAMINATED / UNTREATED WOOD
Type(s) Of Waste Present In The Waste Stream
wood and wood product
Range of years for which both disposal and production data were used in Equation TT-2 to calculate the average waste disposal factor for the landfill1994-2005
First year this waste stream was placed in the landfill1975
Last year this waste stream was placed in the landfill2019
Method(s) used to determine historical waste stream quantity
Reporting YearMethod #1Method #2Method #3Method #4DecayrateWaste disposed quantity (UOM)Waste stream DOC value (UOM)Is defaulted value from table TT1Is value measured using 60 day anaerobic biodegradation testIs based on total volatile solids measurements
1975NNYN0.041658 (Metric Tons)0.43 (Metric Tons)YNN
1976NNYN0.041658 (Metric Tons)0.43 (Metric Tons)YNN
1977NNYN0.041658 (Metric Tons)0.43 (Metric Tons)YNN
1978NNYN0.041658 (Metric Tons)0.43 (Metric Tons)YNN
1979NNYN0.041658 (Metric Tons)0.43 (Metric Tons)YNN
1980NNYN0.041658 (Metric Tons)0.43 (Metric Tons)YNN
1981NNYN0.041658 (Metric Tons)0.43 (Metric Tons)YNN
1982NNYN0.041658 (Metric Tons)0.43 (Metric Tons)YNN
1983NNYN0.041658 (Metric Tons)0.43 (Metric Tons)YNN
1984NNYN0.041658 (Metric Tons)0.43 (Metric Tons)YNN
1985NNYN0.041658 (Metric Tons)0.43 (Metric Tons)YNN
1986NNYN0.041658 (Metric Tons)0.43 (Metric Tons)YNN
1987NNYN0.041658 (Metric Tons)0.43 (Metric Tons)YNN
1988NNYN0.041658 (Metric Tons)0.43 (Metric Tons)YNN
1989NNYN0.041658 (Metric Tons)0.43 (Metric Tons)YNN
1990NNYN0.041658 (Metric Tons)0.43 (Metric Tons)YNN
1991NNYN0.041658 (Metric Tons)0.43 (Metric Tons)YNN
1992NNYN0.041658 (Metric Tons)0.43 (Metric Tons)YNN
1993NNYN0.041658 (Metric Tons)0.43 (Metric Tons)YNN
1994NYNN0.042097 (Metric Tons)0.43 (Metric Tons)YNN
1995NYNN0.042319 (Metric Tons)0.43 (Metric Tons)YNN
1996NYNN0.042402 (Metric Tons)0.43 (Metric Tons)YNN
1997NYNN0.042482 (Metric Tons)0.43 (Metric Tons)YNN
1998NYNN0.042436 (Metric Tons)0.43 (Metric Tons)YNN
1999NYNN0.042548 (Metric Tons)0.43 (Metric Tons)YNN
2000NYNN0.042697 (Metric Tons)0.43 (Metric Tons)YNN
2001NYNN0.042470 (Metric Tons)0.43 (Metric Tons)YNN
2002NYNN0.042417 (Metric Tons)0.43 (Metric Tons)YNN
2003NYNN0.042690 (Metric Tons)0.43 (Metric Tons)YNN
2004NYNN0.042843 (Metric Tons)0.43 (Metric Tons)YNN
2005NYNN0.042619 (Metric Tons)0.43 (Metric Tons)YNN
2006YNNN0.042187 (Metric Tons)0.43 (Metric Tons)YNN
2007YNNN0.042321 (Metric Tons)0.43 (Metric Tons)YNN
2008YNNN0.042161 (Metric Tons)0.43 (Metric Tons)YNN
2009YNNN0.041839 (Metric Tons)0.43 (Metric Tons)YNN
2010YNNN0.042612 (Metric Tons)0.43 (Metric Tons)YNN
2011YNNN0.042498 (Metric Tons)0.43 (Metric Tons)YNN
2012YNNN0.042573 (Metric Tons)0.43 (Metric Tons)YNN
2013YNNN0.042840 (Metric Tons)0.43 (Metric Tons)YNN
2014YNNN0.042314 (Metric Tons)0.43 (Metric Tons)YNN
2015YNNN0.044862 (Metric Tons)0.43 (Metric Tons)YNN
2016YNNN0.047054 (Metric Tons)0.43 (Metric Tons)YNN
2017YNNN0.044891 (Metric Tons)0.43 (Metric Tons)YNN
2018YNNN0.043282 (Metric Tons)0.43 (Metric Tons)YNN
2019YNNN0.042064.4 (Metric Tons)0.43 (Metric Tons)YNN
  • Method #1: Used one of the waste quantity measurement methods specified in 98.463(a)(2)(i): direct mass measurements, direct volume measurements multiplied by waste stream density, mass balance procedures (difference between the mass of process inputs and the mass of process outputs), or the number of loads multiplied by the mass of waste per load based on the working capacity of the vehicle or container.
  • Method #2: Calculated the average waste disposal rate per Equation TT-2 and calculated the waste disposal quantities for historic years in which direct waste disposal measurements are not available using historical production data per Equation TT-3.
  • Method #3: Calculated an average annual bulk waste disposal quantity for historic years when waste quantity data as determined by other methods are available consecutively for the most recent disposal years (Equation TT-4a).
  • Method #4: Calculated an average annual bulk waste disposal quantity for historic years when waste quantity data as determined by other methods are available for sporadic (non-consecutive) years (Equation TT-4b).