Infrastructure Code of Practice

Similar documents
Floating LNG: The Challenges of production systems and well fluids management By: Frederic MOLLARD, TECHNIP France 04/19/2013

1) 2) 3) 4) 5) The oil and gas cycle. Life cycle of oil and gas (time) Potential requirement on ground

The Use of Walnut Shell Filtration with Enhanced Synthetic Media for the Reduction and/or Elimination of Upstream Produced Water Treatment Equipment

Brownfield Projects. Equinox Engineering

HOW TO SELECT BEST MEG RECOVERY UNIT s CONFIGURATION?

Modular Oil & Gas Equipment Onshore & Offshore

Inland Technologies Inc

INCREASING THE CAPACITY OF NGL RECOVERY TRAINS. Stéphane MESPOULHES XVI CONVENCIÓN INTERNACIONAL DE GAS Caracas de Mayo de 2004

/ Production.

Shaping the future of produced water solutions. Produced Water Treatment Systems. Solutions to meet the most stringent produced water requirements

Floating Production / Offshore solutions for tough challenges

HYDRAULIC SUBMERSIBLE PUMP (HSP) SYSTEM

Abate on Site This involves adding something to the design to abate the impact eg pollution controls.

Natural Gas Facilities & Pipelines

MLNG DUA DEBOTTLENECKING PROJECT

Providing clear solutions with innovative design

OIL TECHNOLOGY PORTFOLIO

AKAKUS OIL OPERATIONS- LIBYA Gas Utilization& Flare Emission Reduction Project

GAS MONETISATION SOLUTIONS

CCR MEG RECLAIMING TECHNOLOGY: FROM MOBILE UNITS TO THE LARGEST RECLAIMING UNIT IN THE WORLD

UK Flaring Policy. UKCS Associated Gas Production, Flaring, and Utilization Rate. Billion Cubic Meters Uitlization Rate. 80 Production 98% Flaring

Induced Gas Flotation (IGF) within an API Skim Tank A Case Study of Design Approach and Results

Green FSRU for the future

Stewardship. Expectations. SE-01 Joint Venture Hub Strategy Implementation Guide

Technical Innovation for Floating LNG. Bengt Olav Neeraas & Jostein Pettersen, Statoil ASA

Reporting System for Lake Kivu Gas Resources Operations

Producing a well. Folie 1

TVU CCS Pre FEED Study Outline Execution Strategy for delivery of SSI Anchor Project including CO 2 Transportation & Storage Infrastructure

YOUR PUMP SOLUTION OIL AND GAS INDUSTRY

SUPERSONIC GAS CONDITIONING FIRST COMMERCIAL OFFSHORE EXPERIENCE ABSTRACT

MyCelx Technologies Corporation

Product Line FGS FLOATING GAS SOLUTIONS OVERVIEW

ENERGY SOLUTIONS FOR THE OIL AND GAS INDUSTRY POWERING THE FUTURE

COMPANY PROFILE. A: 36b Freedom Way, Lekki Phase 1, Lekki, Lagos Nigeria. T: M: E:

Water Solutions for the Oil and Gas Industry

DP Conference MTS Symposium. Flow Assurance. Elijah Kempton Tommy Golczynski

Modular GTL Industry Approved & Operating

DRAFT Procedures for Quantifying Fugitive VOC Emission Sources at Petroleum Facilities

OIL RECORD BOOK INSTRUCTIONS

TECHNICAL AND OPERATIONAL INNOVATION FOR ONSHORE AND FLOATING LNG

Promoting Renewable Energy Development: An Introductory Workshop for Energy Regulators. Kenyan Country Report

GAS CONDITIONING FOR GAS STORAGE INSTALLATIONS

Azeri, Chirag & Gunashli Full Field Development Phase 3 Environmental & Socio-economic Impact Assessment

PRISM PB6050 Membrane Separators for hydrogen separation in glycol manufacturing tell me more

Talisman Sinopec Energy UK Limited 2013 ENVIRONMENTAL STATEMENT

On-line determination of particle size and concentration (solids and oil) using ViPA Analyser - A way forward to control sub sea separators

Yemen LNG Operational feedbacks

NON-TECHNICAL SUMMARY

RECLAMATION/REGENERATION OF GLYCOLS USED FOR HYDRATE INHIBITION. Kerry van Son, CCR Technologies Inc., USA Charlie Wallace, Consultant, USA

Water Solutions in the Oil & Gas Industry Up-stream Water Treatment

Optimising. the LNG process. The rapidly expanding global LNG industry continues. Projects

Appendix A: Project Characteristics

Natural Gas Processing

Intercomparison of Multiphase Flow Facilities: Comparison of NEL and Humble, USA (Texaco)

17 th INTERNATIONAL CONFERENCE & EXHIBITION ON LIQUEFIED NATURAL GAS (LNG 17)

NTEGRITY & NSPECTION

MECTHROLEUM NIG LTD READ + THINK + ACT = SOLUTION

122 Norwegian Oil and Gas Recommended Guidelines for the Management of Life Extension

ECO-FRIENDLY LNG SRV: COMPLETION OF THE REGAS TRIAL

TALISMAN SINOPEC ENERGY UK LIMITED 2015 ENVIRONMENTAL STATEMENT

Data Collection by National Regulators

CELEBRATING 10 YEARS OF SEPARATION SOLUTIONS CASE STUDY & REFERENCE PORTFOLIO. ProSep, 2015

Marine Protection Rules Part 100 Port Reception Facilities Oil, Noxious Liquid Substances and Garbage

CAIRN INDIA LTD Rajasthan Site Visit

THE REPUBLIC OF LIBERIA Bureau Of Maritime Affairs

DrM Korfu 2004 Glycol Filtration a new application in natural gas production plants

HiOx - Emission Free Gas Power A technology developed by Aker Maritime

EU-Chile Free Trade Agreement EU TEXTUAL PROPOSAL ENERGY AND RAW MATERIALS CHAPTER

Simple Dew Point Control HYSYS v8.6

Sevan Marine ASA Floating LNG FPSO -how to put the gas into exportable parcels. Carnegie ASA Shippingklubben, Oslo January 28, 2008

2012 Pipeline Performance and Activity Report. BC Oil and Gas Commission

CCSD & CCSE Series Oil/Water Separators

Marginal Field Production Vessel The Solution For Marginal Fields & Early Production!

Cartridge Filters, Fuel Gas Filters, Gas Scrubbers & Filter Separators. A Long Experience in Energy Equipment and one Goal:

Hydrate Formation in Chevron Mabee Unit for NGL Recovery and CO 2 Purification for EOR. Abstract

ON LIQUEFIED NATURAL GAS (LNG 17) 17 th INTERNATIONAL CONFERENCE & EXHIBITION ON LIQUEFIED NATURAL GAS (LNG 17)

FULL-CYCLE GLOBAL ENERGY SOLUTIONS

NATURAL GAS INDUSTRY COOPERATION OPPORTUNITIES BETWEEN CHINA AND USA

Technical White Paper

Organisational Chart for Terminal Operation. Shell E&P Ireland Ltd HSE Policy. Royal Dutch/Shell Group Procedure for an HSE Management System

Company Profile. Atlas Offshore Co. No.8, Negar Ave. Vali e Asr St., Tehran, Iran

THE TRANSFER OF LNG IN OFFSHORE CONDITIONS. SAME SONG NEW SOUND

Proven Flow Measurement Solutions for the Oil and Gas Industry

GGFR. Methane Expo Best practices for evaluating and reducing emissions from oil and gas production An evaluation of Flare Gas Reduction Opportunities

We deliver gas infrastructure

Designing a Methodology for Optimisation of Heater Treater

HEAVY OIL PRODUCTION ENHANCEMENT UNCONVENTIONAL HEAVY OIL PRODUCTION OPTIMIZATION

Media Filtration of Produced Water in Polymer Flood Applications

Maximising Multiphase Production From Offshore Pipelines

Benefits of a cylindrically shaped floater for an FPSO application in cyclone exposed environments

FPSO. installation and offloading

SAFETY BENEFITS 18. Tide-independence 18 Rapid ballasting 19 Integrated hydraulic Ro-Ro ramps 20 Safety features, the future and engineering 22

Virtuoso Industry leading engineering simulators, operator training systems and online monitoring systems

The project consisted of 7 miles of 36-inch pipeline and associated facilities. UPI provide EPCM

THE REPUBLIC OF LIBERIA LIBERIA MARITIME AUTHORITY

Commonwealth of Dominica. Office of the Maritime Administrator

Qualitative Phase Behavior and Vapor Liquid Equilibrium Core

Your partner for the right solution

Development of offshore fields

LoSal EOR into the Clair Ridge Project - Laboratory to Day One Field Implementation

Transcription:

Infrastructure Code of Practice The non-statutory Code of Practice on Access to Upstream Oil and Gas Infrastructure on the UK Continental Shelf (also known as the Infrastructure Code of Practice ) was developed by Oil & Gas UK in consultation with a wide range of parties including the relevant regulator currently the Oil and Gas Authority (OGA) but previously Government Departments DTI, BERR and DECC. It became effective in August 2004 and superseded the earlier Offshore Infrastructure Code of Practice dating from 1996. It was revised in 2012 and 2017 to reflect changes to legislation and to make general improvements. Third Party Access To Operated Infrastructure The Infrastructure Code of Practice sets out principles and procedures to guide all those involved in negotiating third-party access to oil and gas infrastructure on the UK Continental Shelf (UKCS). The Infrastructure Code Its purpose is to facilitate the utilisation of infrastructure for the development of remaining UKCS reserves through timely agreements for access on fair and reasonable terms, where risks taken are reflected by rewards. Principles Of The Infrastructure Code Overarching Principles: Parties uphold infrastructure safety and integrity and protect the environment Parties follow the Commercial Code of Practice Specific Principles: Parties provide meaningful information to each other prior to and during commercial negotiations Parties support negotiated access in a timely manner Parties undertake to ultimately settle disputes with an automatic referral to the Secretary of State Parties resolve conflicts of interest Infrastructure owners provide transparent and non-discriminatory access

Infrastructure owners provide tariffs and terms for unbundled services, where requested and practicable Parties seek to agree fair and reasonable tariffs and terms, where risks taken are reflected by rewards Parties publish key, agreed commercial provisions Provision Of Information Each participant is required to make relevant data available to enable prospective users to obtain an informed view of infrastructure options in their areas of interest. In particular, prospective users should have ready access to current operational and ullage data sufficient to enable the prospective user to undertake basic economic screening of alternative offtake options. UK Continental Shelf Oil And Gas Industry License-Holder Commercial Code Of Practice Mission Promote co-operative value generation Best Practice Process Establish and agree a timetable to completion Adopt flexible methods and fit-for-purpose solutions Maximise the use of standard form agreements Comply with codes of conduct Conduct post-activity audit and analysis Senior Management Commitment Front-end involvement and continuous monitoring of progress Ensure appropriate resources are available Empower staff consistent with value of the project Ensure appropriate use of tactics Adopt a non-blocking approach Please note these capacities are subject to change. Any application would be subject to a detailed process of investigation and discussion to ensure operability. Infrastructure owners would be prepared to investigate the potential on the basis that enquirer fund the necessary resource, engineering studies and any subsequent modifications to the infrastructure.

Annex E Data Alba Capacity Information for Alba Northern Platform installation 5 year Oil Ullage Alba has significant additional capacity for additional oil; however, investment would be required in additional sand washing and produced water processing capacity. 5 year Gas Ullage Entry specification Minimum conditions for entry are 20 barg, 10C. Composition and water cut specification must be determined on a case by case basis but Alba facilities are designed to treat heavy crude with low H2S/CO2 content. Exit specification Liquids Any liquids processed on the Alba facilities will be commingled with Alba crude and exported by tanker to downstream refiners. The impact on combined crude specification and marketability must be addressed on a case by case basis. Gas Any gas processed on the Alba facilities will be used as fuel gas. Excess gas can be exported to Britannia but would be required to meet contract specification. Limited H2S scavenger treatment can be provided on the Alba topside. The primary specification for export gas is <8 ppm H2S but a full assessment would be required on a case by case basis to configure gas conditioning equipment on Alba to be able to achieve this specification. Outline details of primary specification processing facilities Alba consists of three parallel primary separation trains, with a common degasser and coalescer unit. This achieves crude of around 1% BSW that is exported to the FSU for storage until offloading. Process simplification completed in 2010 has resulted in the mothballing of two degasser coalescer trains and the heating medium system. Produced water from the main separators has three stages of treatment before disposal to sea. Initial treatment is achieved through hydrocyclone packages (one per separator). The polishing vessel and compact flotation units provide final clean up before disposal to sea. Additional water handling capability would be required if large quantities of

produced water are to be processed. A produced water reinjection trial was completed on the Alba field which demonstrated its feasibility. Alba operates full voidage replacement with seawater injection. Outline details of gas treatment facilities Gas separated from the main production separators is treated to remove liquids prior to compression in two parallel compressors. Fuel gas is taken from this point and supplies the John Brown and Solar turbine. Excess gas can be exported to the Britannia platform. To meet Britannia s specification, export gas would be injected with H2S scavenger and would require a dehydration module to be reinstated. Gas from the degassers is flared. System Capacities System Units Capacity Current Ullage Oil Bpd 42,000 50% Gas Export MMscfd 15 100% Gas Compression MMscfd 2X22 68% Water Injection Bpd 400,000 22% Produced Water Bpd 350,000 28% Power Generation MW 42 50% Gas Lift MMscfd Nil N/A

Annex E Data Captain Capacity Information for Captain facilities. 5 year Oil Ullage Captain oil ullage is constrained by produced water handling and injection capacity. 5 year Gas Ullage Entry specification Minimum conditions for entry are 20 barg, 5C. Composition and water cut specification must be determined on a case by case basis but the Captain facilities are designed to treat heavy crude with low H2S/CO2 content. Exit specification Liquids Any liquids processed on the Captain facilities will be commingled with Captain crude and exported by tanker to downstream refiners. The impact of commingling on the crude specification and marketability must be assessed on a case by case basis. Gas Any gas processed on the Captain facilities will initially be exported to the Frigg pipeline and will be required to meet the existing contract specification. The primary specification is <3ppm H2S but a full assessment will be required on a case by case basis. Processed gas must also be suitable for use in the Captain power turbines and fired gas heaters. Gas export will cease later in field life and this may allow a relaxation of the specification, however, gas must remain suitable for use in the Captain power turbines and fired gas heaters. Outline details of primary specification processing facilities The Captain installation comprises 3 facilities. A Wellhead Protector Platform (WPP) is connected to a Bridge Linked Platform (BLP) which supports primary separation, gas export and produced water handling facilities. Secondary separation to achieve export specification is conducted on the Floating Production Storage and Offloading (FPSO)

facility that is linked to the BLP/WPP complex by subsea pipelines and a power distribution cable. All available well slots are used for production or injection services. Subsea fluids are tied back to the BLP via two production risers and one test riser. Risers are also installed on the BLP for gas export, subsea services and polymer import from the WPP. There are no pre-installed spare risers. Primary separation on the Captain facilities is achieved in two parallel free water knock out drums located on the BLP. Oil at approximately 60% BS&W is exported to the FPSO where this is further processed in two stages of separation and a coalescer to meet export specification. The oil is heated prior to the final stage of separation to break emulsions and achieve vapour pressure specification. Stabilised crude is cooled and stored in the FPSO prior to offloading. Gas from the BLP separators is treated (see below) and used for fuel gas or export. A small amount of gas is spiked in the export crude stream to supplement FPSO fuel gas. Gas separated on the FPSO is used primarily for fuel gas in fired heaters. Produced water from the BLP separators is routed to the water collection vessel which also receives water returned from the FPSO. This vessel feeds the water injection and power water systems. The main water injection pumps are 2*50% units. Power water is required to drive Hydraulic Submersible Pumps (HSPs) in subsea wells and is provided by a separate pumping system. There is no discharge of produced water on Captain. There are no seawater injection facilities on Captain. Outline details of gas treatment facilities Gas leaving the BLP separators is treated to break foam and remove liquids prior to compression in two parallel export compressors. The gas is then dehydrated in a Triethylene Glycol (TEG) contactor and supplied as fuel gas for the platform s Solar generators via a gas let-down skid. Excess gas is exported to the Frigg system via pipeline. H2S scavenger is injected to achieve export specification. A fuel gas compressor is available to supply fuel gas from upstream of export compression should the export compressors be unavailable. Gas leaving each of the separators on the FPSO is treated to remove liquids and commingled before being used as fuel in fired heaters which provide heat to the oil process train. Minimal liquids are produced by any of the gas processing systems on the Captain facilities. Captain will become fuel gas deficient in the medium term and will import make-up gas from the Frigg pipeline via the gas let-down skid. System Capacities System Units Capacity Current Ullage Oil Bpd 79,000 0% (1) Gas Export MMscfd 17 Fuel Gas MMscfd 8.5 80% (2) Water Injection Bpd 310,000 0%

Power Water Bpd 128,000 0% Power Generation MW 40 10% Gas Lift MMscfd Nil N/A 1. Oil ullage constrained by produced water handling and injection capacity. 2. Fuel gas and export systems interlinked via gas let-down skid. Ullage relates to combined capacity. Annex E Data Erskine Capacity Information for Erskine Installation 5 year Oil Ullage 5 year Gas Ullage Entry specification The entry specification to the Erskine normally unmanned installation (NUI) would be wholly dependent upon the entry specification of the Erskine Process Module (EPM) located on the Lomond platform since there are no processing facilities on the Erskine platform. The EPM is operated by the Lomond Operator. Exit specification Since the Erskine platform does not have any processing facilities, the exiting process conditions are currently multiphase through a 16 inch export pipeline to the EPM located on the Lomond platform. Again the exit specifications would be dependent upon the entry requirements of the EPM controlled by the Lomond operator. Outline details of primary specification processing facilities

There are no processing facilities on Erskine Outline details of gas treatment facilities There are no gas treatment facilities on Erskine Oil export capacity Oil export capacity is dependent upon the import capacity of the EPM located and controlled by the Lomond operator. The multiphase product is piped to the EPM through the 16 inch pipeline by means of controlled flowing well head pressure. No pumping facilities exist. Gas compression capacity There are no gas compression facilities on Erskine. All gas compression is carried out on the EPM controlled by the Lomond operator Gas lift capacity There are no gas lift facilities on Erskine Produced water handling capacity There is no produced water handling facilities on Erskine. All produced water is piped to the EPM in the multiphase pipeline to be processed by the Lomond operator. H 2S removal capacity There are no H2S removal facilities on Erskine. Water injection capacity There are no water injection facilities on the Erskine platform.