Appendix A: Project Characteristics

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Gorgon Fourth Train Expansion Proposal Appendix A: Project Characteristics

Appendices Project Characteristics A Key Characteristics table has been prepared to describe the elements of the Foundation Project (as described in Statement No. 800, as amended) and changes introduced by the (this proposal). The is the combined and. If the is approved, the description of the description is proposed to be used as the Summary of Key Proposal Characteristics in the new approval. This table only applies to Western Australian state jurisdiction. TERRESTRIAL FACILITIES Location Town Point Town Point Number of Liquefied 3 1 4 Natural Gas (LNG) trains Size of LNG trains 5 MTPA nominal (each) 5 MTPA nominal 5 MTPA nominal (each) LNG tank size 2 180 000 m 3 nominal 1 180 000 m 3 nominal tank may be required Gas Processing Drivers Power Generation Flare design [1] Domestic gas production rate Condensate production rate 6 80 MW (nominal) gas turbines fitted with dry low nitrogen oxide 5 116 MW (nominal) conventional gas turbines fitted with dry low nitrogen oxide Ground flare for main plant flare. Boil Off Gas (BOG) flares (two separate enclosed ground flares, one duty burner and one spare burner) in proximity to the LNG storage and loading area 2 80 MW (nominal) gas turbines fitted with dry low nitrogen oxide 1 116 MW (nominal) conventional gas turbine fitted with dry low nitrogen oxide to main plant flare. Boil Off Gas (BOG) flare (one separate enclosed burner and one spare burner) in proximity to the LNG storage and loading area 300 TJ/day 300 TJ/day 3600 m 3 /day (nominal) hydrocarbon condensate 2900 m 3 /day (nominal) hydrocarbon condensate 3 180 000 m 3 (nominal) 8 80 MW (nominal) gas turbines fitted with dry low nitrogen oxide 6 116 MW (nominal) conventional gas turbines fitted with dry low nitrogen oxide Ground flare for main plant flare. Boil Off Gas (BOG) flare (two separate enclosed ground flares, one duty burner and one spare burner) in proximity to the LNG storage and loading area 6500 m 3 /day (nominal) hydrocarbon condensate Condensate tank size 4 35 000 m 3 (nominal) 4 35 000 m 3 (nominal) Chevron Australia Pty Ltd Public Revision: 0

Gorgon Fourth Train Expansion Proposal Volume of earthworks 6 million m 3 (nominal) 3 million m 3 (nominal) 9 million m 3 (nominal) Associated Terrestrial Infrastructure Terrestrial component of the Barge Landing (WAPET Landing) upgrade Construction Village (now Butler Park) Operations Workforce Accommodation Administration and Operations Complex Utilities Area Utilities Corridors Road Upgrades Airport Modifications Communications Terrestrial components of the upgrade of the existing WAPET Landing. Approximately 2.6 km south of Gas Treatment Plant Within an extension to the existing Chevron Australia Camp Near the Gas Treatment Plant outside the Plant boundary Permanent Utilities Area to be located within the Site Between Utilities Area, Construction Village, and Gas Treatment Plant WAPET landing to Town Point; Town Point to the Airport (via Construction Village); Feed Gas Pipeline System route Extension of existing runway to the south No realignment Vegetation clearing within current airport perimeter required Microwave communications tower and associated infrastructure to be installed on Barrow Island Terrestrial components of the upgrade of the existing WAPET Landing Approximately 2.6 km south of Gas Treatment Plant Within an extension to the existing Chevron Australia Camp Near the Gas Treatment Plant outside the Plant boundary Permanent Utilities Area to be located within the Site Between Utilities Area, Construction Village (now Butler Park), and WAPET landing to Town Point; Town Point to the Airport (via Construction Village [ [now Butler Park]); Feed Gas Pipeline System route Extension of existing runway to the south No realignment Vegetation clearing within current airport perimeter required Microwave communications tower and associated infrastructure to be installed on Barrow Island Water Supply Onshore infrastructure Onshore infrastructure Onshore Feed Gas Pipeline Systems Length onshore (Barrow Island) Approximately 14 km (approximately 14 km) Approximately 14 km Design onshore Buried, between North Whites Beach and the (new infrastructure will be within the Foundation Buried, between North Whites Beach and the

Appendices Construction easement (onshore) Terrestrial component of the shore crossing Onshore Domestic Gas Pipeline Route onshore (Barrow Island) Length onshore (mainland) Construction easement (mainland) Shore crossing (mainland) Approximately 42 ha North Whites Beach Area of disturbance (horizontal directional drilling onshore construction area) approximately 7 ha Within Gas Treatment Plant Boundary Project Feed Gas Pipeline Systems footprint) Approximately 15 ha, within the Foundation Project easement North Whites Beach Area of disturbance (horizontal directional drilling onshore construction area) approximately 10 ha Approximately 42 ha North Whites Beach Area of disturbance (horizontal directional drilling onshore construction area) approximately 17 ha Within Gas Treatment Plant Boundary 30 to 40 km 30 to 40 km 90 to 120 ha 90 to 120 ha Specific location to be determined by the Proponent Carbon Dioxide (CO 2 ) Injection System CO 2 Compression Facilities CO 2 Pipeline [2] CO 2 Injection Wells Observation Wells Pressure Management Wells Located within Gas Treatment Plant boundary Length approximately 10 km Easement approximately 8 ha Depth of pipeline trench not more than 9 m from ground surface 8 to 9 injection wells directionally drilled from 3 to 4 surface locations Observation well (or wells) may be drilled at each cluster of injection wells Four pressure management water wells (or water production wells) will be required to manage pressure in the Dupuy Formation. Note: the final location of these wells is subject to ongoing technical assessment Specific location to be determined by the Proponent Located within Gas Treatment Plant boundary Length approximately 10 km Easement approximately 8 ha Depth of pipeline trench not more than 9 m from ground surface 8 to 9 injection wells directionally drilled from 3 to 4 surface locations Observation well (or wells) may be drilled at each cluster of injection wells Four pressure management water wells (or water production wells) will be required to manage pressure in the Dupuy Formation. Note: the final location of these wells is subject to ongoing technical assessment Chevron Australia Pty Ltd Public Revision: 0

Gorgon Fourth Train Expansion Proposal Pressure Management Water Injection Wells Four pressure management water injection wells for the re-injection of water produced from the Lower Dupuy Formation by pressure management wells. The water will be re-injected into the Barrow Group from a vertical depth of 1200 1600 m. Note: the final location of these wells is subject to ongoing technical assessment Four shallow drilled anode wells are required for each CO 2 drill centre for the purposes of cathodic protection of pressure management wells and pressure management water injection wells (one anode well pair per water producer/injector pair). An anode well will also be required for each observation bore not on a drill centre. Total anode well count is up to 19 (subject to final cathodic protection design). Note: the final location of these wells is subject to ongoing technical assessment Monitoring activities, including the acquisition of seismic data, will be undertaken as part of ongoing reservoir performance management Four pressure management water injection wells for the re-injection of water produced from the Lower Dupuy Formation by pressure management wells. The water will be re-injected into the Barrow Group from a vertical depth of 1200 1600 m. Note: the final location of these wells is subject to ongoing technical assessment Four shallow drilled anode wells are required for each CO 2 drill centre for the purposes of cathodic protection of pressure management wells and pressure management water injection wells (one anode well pair per water producer/injector pair). An anode well will also be required for each observation bore not on a drill centre. Total anode well count is up to 19 (subject to final cathodic protection design). Note: the final location of these wells is subject to ongoing technical assessment Monitoring activities, including the acquisition of seismic data, will be undertaken as part of ongoing reservoir performance management Anode Wells Monitoring Wastewater Wastewater Treatment Plant Wastewater Treatment Plant installed during pre-construction (with sufficient capacity for construction workforce) will be modified as necessary to support operations workforce Wastewater Treatment Plant installed during preconstruction (with sufficient capacity for construction workforce) will be modified as necessary to support operations workforce

Appendices Treated effluent disposal surplus treated effluent surplus treated effluent Reverse osmosis brine disposal Deep well injection or ocean outfall (east coast Barrow Island) Deep well injection or ocean outfall (east coast Barrow Island) Contaminated wastewater disposal contaminated wastewater streams when practicable contaminated wastewater streams when practicable Process water disposal process water process water Discharge of waste from vessels Discharge of waste from marine vessels in accordance with MARPOL 73/78 Discharge of waste from marine vessels in accordance with MARPOL 73/78 MARINE FACILITIES Materials Offloading Facility (MOF) Causeway design Solid Solid MOF design Solid with offloading facilities including wharf, dock, mooring dolphins, ramp, and tug pens to support a range of vessel sizes and loads Solid with offloading facilities including wharf, dock, mooring dolphins, ramp, and tug pens to support a range of vessel sizes and loads Causeway length/ MOF length MOF access Combined length from the nominated onshore set out point (E 340013.006 N 7700404.460 approximately 250 m inland from Town Point) to the top of batter at interface with start of the LNG Jetty is approximately 2120 m Constructed channel approximately 750 m long 165 m wide; channel dredged to approximately 6.5 m (relative to chart datum); Berthing Pocket dredged to approximately 8 m (relative to chart datum) Combined length from the nominated onshore set out point (E 340013.006 N 7700404.460 approximately 250 m inland from Town Point) to the top of batter at interface with start of the LNG Jetty is approximately 2120 m Constructed channel approximately 750 m long 165 m wide; channel dredged to approximately 6.5 m (relative to chart datum); Berthing Pocket dredged to approximately 8 m (relative to chart datum) Chevron Australia Pty Ltd Public Revision: 0

Gorgon Fourth Train Expansion Proposal LNG Jetty LNG jetty design Open pile structure Open pile structure LNG jetty length LNG Jetty length from the end of the MOF to the end of the LNG Jetty, midway between the two LNG berths, is approximately 2.1 km. LNG Jetty length from the end of the MOF to the end of the LNG Jetty, midway between the two LNG berths, is approximately 2.1 km. LNG and Condensate load-out Turning basin and access channel design Via dedicated lines installed to the LNG Berth (eastern end of LNG Jetty) Turning basin shape shown in Figure 2 (of Statement 800). Dual Berth facility (designed to meet safety requirements). Turning Basin and Access Channel dredged to approximately 13.5 m (relative to chart datum); Berthing Pocket dredged to approximately 15 m (relative to chart datum) Via dedicated lines installed to the LNG Berth (eastern end of LNG Jetty) Turning basin shape shown in Figure 2 (of Statement 800). Dual Berth facility (designed to meet safety requirements). Turning Basin and Access Channel dredged to approximately 13.5 m (relative to chart datum); Berthing Pocket dredged to approximately 15 m (relative to chart datum) Dredging MOF volume 1.1 million m 3 (nominal) 1.1 million m 3 (nominal) LNG Turning Basin and Shipping Channel volume 6.5 million m 3 (nominal, dual berth) 6.5 million m 3 (nominal, dual berth) Dredge Spoil Disposal Ground Location Area Drill and Blast Associated with the dredging component of the construction of the Causeway, MOF and LNG Jetty Closest point is approximately 10 km from the east coast of Barrow Island Approximately 900 ha Closest point is approximately 10 km from the east coast of Barrow Island Approximately 900 ha 50 000 m 3 (nominal) 50 000 m 3 (nominal)

Appendices (access channels and berthing pockets). Offshore Feed Gas Pipeline Systems Length in State waters Marine component of the shore crossing Approximately 5.6 km (3 nautical miles) (Gorgon Feed Gas Pipeline System) Offshore from North Whites Beach Approximately 5.4 km (Northern Pipeline Route) or 6.5 km (Southern Pipeline Route) (Fourth Train Proposal Feed Gas Pipeline System) Approximately 5.6 km (3 nautical miles) (Gorgon Feed Gas Pipeline System) Approximately 5.4 km (Northern Pipeline Route) or 6.5 km (Southern Pipeline Route) (Fourth Train Proposal Feed Gas Pipeline System) Offshore from North Whites Beach Offshore Domestic Gas Pipeline Length offshore Approximately 70 km Approximately 70 km Offshore route East coast of Barrow Island to mainland shore crossing East coast of Barrow Island to mainland shore crossing Barge Landing Marine components of the Barge Landing (WAPET Landing) upgrade Water Supply Source Location Volume [1] Construction water supply [3] Marine components of the upgrade of the existing WAPET Landing Seawater intake required Preferred intake location under or adjacent to MOF structure 5150 m 3 /day (nominal) raw water supply during normal operations, and up to 12 000 m 3 /day (nominal) during the Construction Period Use of treated greywater, produced fresh water, and sea water for construction earthworks on the LNG treatment plant site APPLICABLE TO THE ENTIRE PROPOSAL Marine components of the upgrade of the existing WAPET Landing Seawater intake required Preferred intake location under or adjacent to MOF structure 5150 m 3 /day (nominal) raw water supply during normal operations, and up to 12 000 m 3 /day (nominal) during the Construction Period Use of treated greywater, produced fresh water, and sea water for construction earthworks on the LNG treatment plant site Clearing All elements of the Proposal Clearing of native vegetation for the Clearing of native vegetation for the Chevron Australia Pty Ltd Public Revision: 0

Gorgon Fourth Train Expansion Proposal purpose of implementing the Proposal Discharges of waste from vessels Discharges of waste from vessels [4] Discharges of waste from marine vessels in accordance with MARPOL 73/78 Notes: 1 Description amended through Attachment 2 to Statement No. 800 2 Description amended through Attachment 5 to Statement No. 800 3 added through Attachment 3 to Statement No. 800 4 added through Attachment 1 to Statement No. 800 purpose of implementing the Proposal Discharges of waste from marine vessels in accordance with MARPOL 73/78