Company Name: City, State, Zip Code: Annual Report Summary



Similar documents
METHANE EMISSIONS MITIGATION OPTIONS IN THE GLOBAL OIL AND NATURAL GAS INDUSTRIES

Natural Gas Dehydrator Optimization

NSPS Subpart OOOO: Applicability and Compliance Basics

Highlights of Colorado s New Oil and Gas Hydrocarbon Emission Reduction Rules - Adopted February 2014

Backup Fuel Oil System Decommissioning & Restoration Plan

Garry Kaufman Colorado Air Pollution Control Division May 14, 2014

Air Quality Regulation of the Oil and Gas Production Sector in Colorado and Beyond. Garry Kaufman Holland & Hart LLP

Developing Colorado s s Oil and Gas Emissions Controls Overview of the Process and Requirements

THE DETECTION OF GREENHOUSE GASES

Recently Completed Projects - Storage Projects

Industries. March Prepared for Environmental Defense Fund 257 Park Avenue South New York, NY 10010

Arkansas Natural Gas Severance Marketing Costs

Tennessee Gas Association

Control Device Requirements Charts For Oil and Gas Handling and Production Facilities

Fundamentals of Vapor Recovery

COLORADO APCD IR Camera Survey Program Guidance/Protocol (rev. 11/8/11)

DIABLO VALLEY COLLEGE CATALOG

Leaking Profits. The U.S. Oil and Gas Industry Can Reduce Pollution, Conserve Resources, and Make Money by Preventing Methane Waste.

How To Make A High Co 2 Gas Blend

Class II General Permit G35-C Registration to (Construct, Modify, etc.)

GAO FEDERAL OIL AND GAS LEASES

What is a successful Steam Trap Management Program?

ngenieros Ingenieros Asociados De Control S.L.

GHG-emissions of Russian long distance gas transport pipelines and options for mitigation

Fiscal Measurement Natural Gas

SYLLABUS For BASIC TRADE COURSE (360 Hours) On REFRIGERATION AND AIR CONDITIONING

COMPETENCY ANALYSIS PROFILE Refrigeration and Air Conditioning Systems Mechanic - Branch 1 313A

Table V. Troubleshooting Checklist for Refrigeration Systems. Air or non-condensable gas in system. Inlet water warm.

Natural gas liquids recovery from gas turbine fuel

INDEX GENERAL

E - THEORY/OPERATION

Air Conditioner Water Heater - A Product of HotSpot Energy LLC

FINAL UPDATES TO REQUIREMENTS FOR STORAGE TANKS USED IN OIL AND NATURAL GAS PRODUCTION AND TRANSMISSION

Characterization of Greenhouse Gas Emissions Involved in Oil and Gas Exploration and Production Operations

Training for Operations and Maintenance

NATURAL GAS LEAKAGE WORKSHOP

NCCER Progress Blvd., Alachua, FL Tel: (888) Task Number Item Date(s) Recorded By

Recharge Procedure for Telemark TVP-2000 and TVP-3500

Energy Efficient Operations and Maintenance Strategies for Boilers

INDIAN STANDARDS FOR NATURAL GAS PIPELINE SYSTEM

Classification and Qualification STANDARDS

Environmentally Friendly Drilling Systems

THERMO KING TRUCK & TRAILER UNIT ALARM CODES THIS DOCUMENT SHOWS ALL CURRENT ALARM CODES FOR THERMO KING TRUCK AND TRAILER UNITS.

Lessons Learned from Natural Gas STAR Partners. Installing Vapor Recovery Units on Storage Tanks. Executive Summary. Technology Background

PROPANE AUTOGAS REPAIR AND MAINTENANCE FACILITY REQUIREMENTS

Global Gas Flaring Reduction Partnership & Measurement of Flare/Vent Volumes. World Bank Francisco J. Sucre

Ultrasound Condition Monitoring

Liquefied Natural Gas (LNG)

Breakthrough Solenoid Valve Technology for Upstream Oil and Gas Heating Equipment

NOTIFICATION OF PERFORMANCE TESTING FOR GASOLINE DISPENSING FACILITIES (GDFs) NESHAP 40 CFR, Part 63, Subpart CCCCCC (Sections

Standards and best practice guidelines for vapour recovery at petrol service stations. Department of Environment, Climate Change and Water NSW

Subpart XX Standards of Performance. Terminals. Environmental Protection Agency

COLORADO REGULATION 7

Test Code: 8297 / Version 1

Passing the Baton Cleanly

Table Z. Troubleshooting Chart for Air Conditioners. Cause

GAS CONVERSION PROJECT ˆAn Alternative to Oil

Heavy Duty Equipment Mechanic (Class Code 3743) Task List. Inspection and Diagnosis

CHAPTER 9: WATER HEATING

Depending on your facility and the equipment contained within, all or part of the checklists/logs can be printed for use.

Fixing the Leaks: What Would it Cost to Clean Up Natural Gas Leaks?

Pressure Testing Procedures for Building Services Piping

Fire Prevention and Control in Compressor Buildings

Factory owners must ensure the boiler is:

Optimizing Flare System Performance at the Valero Sunray Refinery

NEW JERSEY SMALL BUSINESS ENVIRONMENTAL ASSISTANCE PROGRAM. Dry Cleaner Compliance Calendar 2012

Avoiding climate-damaging methane emissions during pipeline repairs

System Diagnosis. Proper vehicle diagnosis requires a plan before you start

ELECTRODE BOILERS VAPOR POWER INTERNATIONAL

Distributed CNG and LNG as sources of natural gas in New England

REGULATORY ANALYSIS. February 11, Colorado Department of Public Health and Environment

FEDERAL GOVERNMENT OVERSIGHT OF PIPELINE SAFETY

COMPRESSION SPECIALISTS

Ingersoll Rand Providing Customer-Driven Air System Solutions for More Than 100 Years

Implementing New Technology at TransCanada Meter Stations -- Better, Faster, Cheaper

Waste Oil Collection / Storage

Car and commercial cial air conditioning service solutions

Emissions from Natural Gas Production in the Barnett Shale Area and Opportunities for Cost Effective Improvements

TANKLESS WATER HEATER INSTALLATION DIAGRAMS

F ox W hi t e Paper. Reduce Energy Costs and Enhance Emissions Monitoring Systems

National Competency Based Skill Training Refrigeration and Air-conditioning Mechanic Logbook

Continuous flow direct water heating for potable hot water

Lessons Learned from Natural Gas STAR Partners. Reduced Emissions Completions for Hydraulically Fractured Natural Gas Wells.

THE DELTON GROUP MANPOWER TRAINING CONSULTANCY SHORT COURSE PROGRAMME TOPICS LISTING

Transcription:

Company Information 2014 Company Name: Contact: Title: Address: City, State, Zip Code: Telephone: Fax: E-mail: Transmission Sector Summary BMP 1: Directed inspection and maintenance at compressor stations BMP 2: Use of turbines at compressor stations BMP 3: Identify and replace high-bleed pneumatic devices Partner Reported Opportunities (please specify): Period covered by report: From: To: To: Partner Signature Required: I hereby certify the accuracy of the data contained in this report. Because the implementation of some technologies reduces emissions for multiple years, Natural Gas STAR allows certain activities to count towards a company s emission reductions beyond the initial year of implementation. Natural Gas STAR designates the maximum length of time that these reductions may accrue as sunset dates. The Appendix lists these sunset dates. Companies can report the corresponding methane emission reductions each year up to the allowable sunset date. Or, companies may wish to report reductions only once for the implementation year, and have EPA automatically apply the sunset date and count those emissions for the allowable number of years. In addition to reporting methane emissions reductions, you are welcome to include other information about your company s participation in Natural Gas STAR in the Additional Program Accomplishments section of this form. The Natural Gas STAR Program will use any information entered in this section to recognize the efforts and accomplishments of outstanding partners. Date EPA Form No. 5900-95

BMP 1: Directed Inspection and Maintenance at Compressor Stations Summary of Emission Reduction Activities Please include aggregate information in this section for all locations. If multiple facilitieslocations are represented, additional detail by specific facilitylocation can be provided in the table below. A. Facilitylocation identifier information: (If only one location note here, otherwise use table below.) B. Project summary: Number of surveys conducted at this facility for reporting period surveys Total number of leaks repaired: leaks repaired Total number of leaks found: leaks found C. Cost summary: Total cost of surveys conducted: $ Total cost of leak repairs: $ D. Methane emissions reduction: Mcf * BMP 1 must be reported on an annual basis according to actual survey activity. Please identify the basis for the emissions reduction estimate, using the space provided to show any calculations Actual field measurement Other (please specify): Calculation using default Methane emissions reduction = Average annual leak rate for facility (12,200 Mcf) Reduction efficiency (70%) E. Total value of gas saved: $ Total value of gas saved = Methane emissions reduction (in Mcf) x Gas value (in $Mcf) [If not known, use default of $3.50Mcf] F. Do you plan to survey this facilitylocation next year? (YesNo) Optional: Additional details by location FacilityLocation identifier Information Surveys ($) Repairs ($) (Mcfyr) BMP 1 Comments: Please use the back of the page for additional space if needed.

BMP 2: Use of Turbines at Compressor Stations Summary of Emission Reduction Activities Please include aggregate information in this section for all locations. If multiple facilitieslocations are represented, additional detail by specific facilitylocation can be provided in the table below. A. Facilitylocation identifier information: (If only one location note here, otherwise use table below.). B. Turbine summary: Number of turbines installed: Total cost of turbine installations (equipment and labor): $ turbines C. Reciprocating summary: Number of reciprocating engines retired: leaks repaired engines D. Equipment description: Please provide specifications for turbines installed andor reciprocating engines retired Model: Horsepower: Fuel Consumption: E. Methane emissions reduction: Turbines Mcf Reciprocating Engines F. Are these emissions reductions a one-year reduction or a multi-year reduction? One-year Multi-year If Multi-year: Partner will report this activity once and let EPA automatically calculate future emission reductions based on sunset date duration (BMP 2 has a sunset period of 20 years). Partner will report this activity annually up to allowed sunset date. Please identify the basis for the emissions reduction estimate, using the space provided to show any calculations Standard Calculation Methane emissions reduction per turbine installation = [Emissions rate from reciprocating engine per MMcf of fuel used Fuel consumption for reciprocating engine (in MMcfhr)] - [Emissions rate from turbine per MMcf of fuel used Fuel consumption for turbine (in MMcfhr)] Please specify your data source: Field measurement Manufacturer specifications Calculation using default Methane emissions reduction= [0.234 scfhphr Horsepower of turbine engines installed Hours turbine engines were used] 1000 Other (please specify): G. Total value of gas saved: $ Total value of gas saved = Methane emissions reduction (in Mcf) Gas value (in $Mcf) [If not known, use default of $3.50Mcf] H. Future activity summary: How many turbines do you plan to install next year? turbines Optional: Additional details by location FacilityLocation # Turbines identifier Installed Information Installation ($) and labor) How many reciprocating engines do you plan to retire next year? # Reciprocating Engines Retired (Mcfyr) engines BMP 2 Comments: Please use the back of the page for additional space if needed.

BMP 3: Identify and Replace High-Bleed Pneumatic Devices Summary of Emission Reduction Activities Please include aggregate information in this section for all locations. If multiple facilitieslocations are represented, additional detail by specific facilitylocation can be provided in the table below. A. Facilitylocation identifier information: (If only one location note here, otherwise use table below.) B. Project summary: Number of devices replaced: Percent of system now equipped with lowno-bleed units: devices % C. Cost summary: cost per replacement (including equipment and labor): $ replacement D. Methane emissions reduction: Mcf E. Are these emissions reductions a one-year reduction or a multi-year reduction? One-year Multi-year If Multi-year: Partner will report this activity once and let EPA automatically calculate future emission reductions based on sunset date duration (BMP 3 has a sunset period of 7 years). Partner will report this activity annually up to allowed sunset date. Please identify the basis for the emissions reduction estimate, using the space provided to show any calculations Standard calculation Methane emissions reduction = [Annual emissions from high-bleed devices replaced (in Mcfyr) - Annual emissions for the replacement devices (in Mcfyr)] x Number of devices replaced Please specify your data source: Field measurement Manufacturer specifications Calculation using default Methane emissions reduction = 124 Mcfyr x Number of devices replaced Other (please specify): F. Total value of gas saved: $ Total value of gas saved = Methane emissions reduction (in Mcf) Gas value (in $Mcf) [If not known, use default of $3.50Mcf] Optional: Additional details by location G. How many high-bleed devices do you plan to replace next year? devices FacilityLocation identifier Information # Devices Replaced Replacements and labor) ($) (Mcfyr) Saved ($) BMP 3 Comments: Please use the back of the page for additional space if needed.

Partner Reported Opportunities (PROs) For more details on PROs, visit epa.govgasstartoolsrecommended.html Summary of Emission Reduction Activities Please include aggregate information in this section for all locations. If multiple facilitieslocations are represented, additional detail by specific facilitylocation can be provided in the table below. A. Facilitylocation identifier information: (If only one location note here, otherwise use table below.) B. Project description: Please provide a separate PRO reporting form for each activity reported. If reporting a DI&M activity, please use a separate page for each locationfacility surveyed. Please specify the technology or practice that was implemented (choose from the list in the appendix or describe your own): Please describe how your company implemented this activity: C. Level of Implementation (check one): D. Are emissions reductions a one-year reduction or a Number of units installed: units multi-year reduction? One-year Multi-year Frequency of practice: timesyear If Multi-year: Partner will report this activity once and let EPA automatically calculate future emission reductions based on sunset date duration*. Partner will report this activity annually up to allowed sunset date. E. Methane emissions reduction: Mcf F. Cost summary: cost of implementing this practiceactivity (including equipment and labor): $ Please identify the basis for the emissions reduction estimate, using the space provided to show any calculations Actual field measurement Calculation using manufacturer specificationsother source Other (please specify): G. Total value of gas saved: $ Total value of gas saved = Methane emissions reduction (in Mcf) x Gas value (in $Mcf) [If not known, use default of $3.50Mcf] Optional: Additional details by location FacilityLocation Frequency of identifier PracticeActivity or Information # of Installations PracticeActivity and labor) ($) H. To what extent do you expect to implement this practice next year? (Mcfyr) PRO Comments: Please use the back of the page for additional space if needed. *Because the implementation of some technologies reduces emissions for multiple years, Natural Gas STAR allows certain activities to count towards a company s emission reductions beyond the initial year of implementation. Natural Gas STAR designates the maximum length of time that these reductions may accrue as sunset dates. The Appendix lists these sunset dates. Companies can report the corresponding methane emission reductions each year up to the allowable sunset date. Or, companies may wish to report reductions only once for the implementation year, and have EPA automatically apply the sunset date and count those emissions for the allowable number of years.

Previous Years' Activities Use the table below to report any past activities implemented, but not previously reported to the Natural Gas STAR Program Year BMP 1 DI&M at Compressor Stations Surveys ($) Repairs ($) (Mcfyr) Year BMP 2 Use of Turbines at Compressor Stations Year BMP3 Identify and Replace High- Bleed Pneumatic Devices # Turbines Installed # Reciprocating Engines Retired # Devices Replaced Installation ($) and labor) Replacements and labor) ($) (Mcfyr) (Mcfyr) Year PROActivity Frequency of PracticeActivity or # of Installations PracticeActivity and labor) ($) (Mcfyr)

Additional Program Accomplishments The Natural Gas STAR Program will use any information entered here to recognize the efforts and achievements of outstanding partners. Please include any additional information you would like to share about your company s participation in Natural Gas STAR. Examples may include: Activities to strengthen your program (e.g., trainingeducation, innovative technologies or activities, pilot projects, employee incentive programs). Efforts to communicate your participation and successes (e.g., internal newsletters, press releases, company website). Participation in Natural Gas STAR program activities (e.g., contributions to case studies, presentation at annual workshop). Additional Accomplishments: Additional Accomplishments Comments: Please use the back of the page for additional space if needed.

Appendix Methane Emission Reduction Technologies & Practices Transmission Sector The list below describes a variety of methane emission reduction technologies that Natural Gas STAR partners in the transmission sector have implemented and reported to Natural Gas STAR. You may use this list as a guide when completing your annual report. Sunset dates (i.e., the length of time a technology or practice can continue to accrue emission reductions after implemented) are one year in duration unless otherwise noted in parentheses. An asterisk (*) indicates that a technical document related to the technology or practice is available online at epa.govgasstartoolsrecommended.html. CompressorsEngines Automate compressor systems operation to reduce venting Eliminate unnecessary equipment andor systems* Install automated airfuel ratio controls (10 years)* Install electric compressors (10 years)* Install electric motors (10 years) Install electric motor starters (10 years)* Install lean burn compressor (10 years) Lower compressor purge pressure for shutdown Redesign blowdownalter ESD practices* Reduce emissions when taking compressors offline* Reduce natural gas venting with fewer compressor engine startups and improved engine ignition* Replace compressor cylinder unloaders* Replace compressor rod packing systems* Replace gas starters with air or nitrogen (10 years)* Replace wet compressor seals with dry seals (10 years)* Use of turbines at compressor stations (20 years) Dehydrators Convert pneumatics to mechanical controls (10 years)* Install condensers on glycol dehydrators (10 years) Install flash tank separatorscontrols on transmission sector glycol dehydrators (10 years)* Reduce glycol circulation rates in dehydrators* Replace glycol dehydrator with separator & in-line heaters (10 years) Reroute dehydratorstank vents to flare or station suction (10 years)* Reroute glycol skimmer gas* Directed Inspection and Maintenance DI&M: aerial leak detection using laser andor infrared technology* DI&M at compressor stations* DI&M at remote sites* DI&M: inspectrepair compressor station blowdown valves* DI&M: leak detection using IR cameraoptical imaging* DI&M: leak detection using ultrasound* DI&M: survey and repair leaks* Pipelines Inspectrepair valves during pipeline replacement* Pipeline replacement and repair Recover gas from pipeline pigging operations* Reducedowngrade system pressure Reduced emissions through third-party damage prevention Use composite wrap repair* Use hot taps for in-service pipeline connections* Use inert gaspigs for pipeline purges* Use pipeline pump-down techniques to lower gas line pressure before maintenance * PneumaticsControls Convert gas pneumatic controls to instrument air (10 years)* Convert natural gas-driven chemical pumps (10 years)* Install no bleed controllers (10 years) Identify and replace high-bleed pneumatic devices (7 years)* Reduce meter run blowdowns Replace bi-directional orifice meter with ultrasonic meters* Use add-on controls to reduce emissions from pneumatics (10 years) Tanks Install flash gas compressors (10 years) Install vapor recovery units on pipeline liquid condensate tanks (10 years)*

Appendix (Continued) Valves Close valves during repair to minimize blowdown* Design isolation valves to minimize gas blowdown volumes (10 years)* Move in fire gates at compressors (10 years)* Test and repair pressure safety valves* Use of YALE closures for ESD testing* Wells Switch from underbalanced to overbalanced drilling in gas storage field Other Convert natural gas-fired generator to solar power (10 years) Improve system designoperation Inject blowdown gas into low pressure mains or fuel gas system* Install flares (10 years)* Replace aged heaters with new efficient gas fired heaters (10 years) Require improvements in quality of gas received Mailing Information: Standard Mail: The Natural Gas STAR Program U.S. EPA (6207J) 1200 Pennsylvania Ave, NW Washington, DC 20460 U.S.A. ExpressOvernight Mail: The Natural Gas STAR Program U.S. EPA (6207J) 1310 L Street, NW Washington, DC 20005 U.S.A. The public reporting and recordkeeping burden for this collection of information is estimated to average 60 hours for each new response and 27 hours for subsequent responses. Send comments on the Agency's need for this information, the accuracy of the provided burden estimates, and any suggested methods for minimizing respondent burden, including through the use of automated collection techniques to the Director, Collection Strategies Division, U.S. Environmental Protection Agency (2822T), 1200 Pennsylvania Ave., NW, Washington, D.C. 20460. Include the OMB control number in any correspondence. Do not send the completed form to this address.