Workshop - Virtual Institute of Scientific Users of Deep-Sea Observatories (VISO) - Tromsø (Norway), June 11-12, 2009 Latest developments in Asset Management - Oil and Gas production via Internet? Dr.-Ing. Sven Hoog
AGENDA Agenda IMPaC Short Introduction UW-Production: Motivation / Status Quo Project ISUP IMPaC distributed Control + Automation System (IMPaC-dCAS) Guiding Ideas and Main Goals Developments Basic Concept Exemplary Results Virtual application / Visualization Conclusion / Perspective 1
AGENDA Agenda IMPaC Short Introduction UW-Production: Motivation / Status Quo Project ISUP IMPaC distributed Control + Automation System (IMPaC-dCAS) Guiding Ideas and Main Goals Developments Basic Concept Exemplary Results Virtual application / Visualization Conclusion / Perspective 2
CORPORATE INFORMATION IMPaC - INTERNATIONAL MARINE & PETROLEUM Established 1983 Ownership Private, independent IMPaC Offshore Engineering GmbH (Ltd.) Clients in the Oil & Gas Industry Oil & Gas Companies (75%) Major Contractors (25%) Experience gathered in more than 600 projects with more than 2 million engineering hours for project investment up to 420 million USD ENGINEERS and CONSULTANTS 3
LOCATIONS IMPaC Locations IMPaC Companies IMPaC Project Locations Headquarter, Hamburg Port Harcourt, Nigeria Mumbay, India Ploiesti, Rumania 4
IMPaC's SERVICES IMPaC the versatile Contractor Integrated Project Engineering / Field Development Engineering Overall Consultancy Conceptual & Feasibilty Studies Front End Engineering Design (FEED) Detailed Design Procurement & Logistics Project Management & Construction Management Contract Preparation & Management Planning & Monitoring Construction / Installation - Supervision & Management Research & Development E P CM R&D 5
SELECTED CLIENTS 6
AGENDA Agenda IMPaC Short Introduction UW-Production: Motivation / Status Quo Project ISUP IMPaC distributed Control + Automation System (IMPaC-dCAS) Guiding Ideas and Main Goals Developments Basic Concept Exemplary Results Virtual application / Visualization Conclusion / Perspective 7
MOTIVATION / STATUS QUO Hydrocarbons - Reserves and Production Known world oil resources - offshore by depth, trillion barrels (Tbo) Shallow water (0-300 m) Deep water (300-1500 m) Ultra-deep water (> 1500 m) Total 4.4 Tbo - 34% 5.7 Tbo - 45% 2.7 Tbo - 21% 12.8 Tbo Deep water oil and gas production (million barrels/day) 12 10 8 6 4 2 Europe & FSU North America Latin America Asia Africa Thousands of barrels of oil per day Global oil production Acc. to Energyfiles Ltd. Offshore oil: 34% in 2004, 39% in 2015 Most growth in oil and gas production in deep water assets 2002 2003 2004 2005 2006 2007 2008 2009 2010 2011 8
MOTIVATION / STATUS QUO Underwater Production Systems Total Cost of Ownership Full Topsides very few new major discoveries = intensified development of marginal and / or complicate fields Minimum Topsides Subsea to Beach (S2B) Solution innovation 9
MOTIVATION / STATUS QUO Platforms vs. Subsea Systems Controls; 2 Trees; 2 Control Lines; 3 Wells; 33 Temp& Manifolds; 5 Flowlines; 21 Natural Gas; 16,2 Platforms; 34 Platforms Recovery OPEX CAPEX Revenue UW Systems Recovery OPEX CAPEX Revenue Cost Structure: Systems based on Conventional Platforms Costs and Recoveries: Systems based on Platforms vs. UW Systems Source: The World Deepwater Report 3 10
MOTIVATION / STATUS QUO Underwater Production Systems Requirements (incomplete list): scalability, adaptability to meet changing strategic production profiles real-time access to all relevant data, integrated data management data analysis should be centralized in the operators Expert Center modeling, simulation, visualization, optimization, automation fault tolerant control systems complete system must meet required SIL best usability with extended maintenance intervals (3-5 years min.) SIL = Safety Integrity Level (1 to 3 (4)) 11
MOTIVATION / STATUS QUO Underwater Production Systems Key Advantages: new technology needs less personnel (at least at the remote Assets) increased safety and security due to submerged / unmanned facilities cross linking of various data sources = optimal management of resources suitable for harsh and arctic conditions and (ultra-) deep water lower CAPEX and OPEX with improved production rate! (subsea separation, water re-injection, multiphase boosting, wet gas compression, etc.) 12
MOTIVATION / STATUS QUO Underwater Production Systems Possible disadvantages / problems: new technology often requires highly qualified personnel (at Expert Centers) problematic flow assurance due to (very) long step-out distances increased maintenance intervals are problematic for materials (seals etc.) costly subsea interventions few long term operating experience with UW Systems = still prejudice in the industry = acceptance not satisfying High-Tech-Systems are highly complicated and are susceptible to faults = less OPEX (over life-cycle) are not yet proved mainly proprietary technique, few open Interfaces (e.g. IWIS Initiative) IWIS = Intelligent Well Interface Standardization 13
MOTIVATION / STATUS QUO Underwater Production Systems Solution Strategy: Asset integrity Management Systems Relevant Campaigns in the last decade: ifields (ChevronTexaco) Field of the Future (BP, Schlumberger) SmartFields (Shell) Digital oilfield of the future (many others) 14
AGENDA Agenda IMPaC Short Introduction UW-Production: Motivation / Status Quo Project ISUP IMPaC distributed Control + Automation System (IMPaC-dCAS) Guiding Ideas and Main Goals Developments Basic Concept Exemplary Results Virtual application / Visualization Conclusion / Perspective 15
PROJECT ISUP Project ISUP Integrated Systems for Underwater Production of Hydrocarbons www.isup-go-subsea.de ISUP is funded by: Project partners: Four Main Subprojects: a modular extendable installation and assembly platform a multifunctional, partly autonomous seafloor working unit for installation, operation, enlargement and dismantling tasks a multiphase booster system to increase the production rate and for flow assurance over long distances to the processing plant a modular control and automation system (IMPaC-dCAS) with "open" interfaces for the complete (UW) production plant 16
PROJECT ISUP MAIN DEVELOPMENTS Basic Modules of UW field developments General System Modules ISUP developments Multiphase Booster System (Bornemann) Control System, Onshore/Subsea (IMPaC) Diagnosis System (IPR) Subsea Base Frame (Wirth) Subsea Working Unit (Wirth) 17
PROJECT ISUP VISION Project Vision: Development of a modular system with open Interfaces for automated underwater production of Hydrocarbons Wind, Waves, Current, etc. 100 km Local Control Station Ice, Icebergs > 2000 m wd Wellheads C C C C MBS Distributed control complying IEC 61131, 61499 C C Foundation Skid C MBS SWU Steering, Control and Automation System Multiphase-Booster-System Seafloor Working Unit Ethernet-Network (via F/O) Umbilical (Energy, Media, F/O) Flowline (Infield Production Line) Oil / Gas Reservoir Export-Pipeline (Subsea to Shore) Borehole (for Production, Re-Injection) Xmas Tree (Borehole Completion) 18
AGENDA Agenda IMPaC Short Introduction UW-Production: Motivation / Status Quo Project ISUP IMPaC distributed Control + Automation System (IMPaC-dCAS) Guiding Ideas and Main Goals Developments Basic Concept Exemplary Results Virtual application / Visualization Conclusion / Perspective 19
IMPaC dcas IDEAS AND GOALS Control System: Guiding Ideas and Main Goals safety, availability and reliability have top priority! depth rated: 2000 m, step-out distance to shore: 100 km redundant components and functions (near) real-time access to all intelligent (Subsea) Modules bi-direktional communication based on a UW-LAN structural partition of process control issues, safety issues and others (e.g. networking) open Interfaces in hardware and software Developments based on relevant standards (complying e.g. IEC 61508, IEC 61131, ISO 13628-5,-6, etc.) LAN = Local Area Network 20
IMPaC dcas DEVELOPMENTS Subsystems to be developed by IMPaC Onshore Operator Control Room Web based SCADA system with interactive MMI access to various subsea sources (e.g. video cameras, ROVs) Redundant database, data management, visualization Subsea, wet connectible hardware modules flexible configurable, location-independent I/O Interfaces Gigabit-Ethernet Network connecting partner modules SCADA = Supervisory Control And Data Acquisition MMI = Man Machine Interface ROV = Remotely Operated Vehicle 21
IMPaC dcas SCADA CONCEPT 22
IMPaC dcas SCADA DEVELOPMENTS Key features: Safe and secure data management / transfer (near) real time control OPC server structure Mirrored databases Various external contents integrable (e.g. video cameras) Worldwide accessible via VPN Control Room: Hierarchical system structure accessible via Internet and standard Web-Browser 23
IMPaC dcas SUBSEA MODULES Key features: Depth rated 2000 m Wet mateable also F/O connectors Redundant Hard- and Software modules Access via Internet All electric Subsea Control Module for deep water application 24
IMPaC dcas VIRTUAL SUBSEA APPLICATION Virtual Subsea application IMPaC-dCAS units 25
AGENDA Agenda IMPaC Short Introduction UW-Production: Motivation / Status Quo Project ISUP IMPaC distributed Control + Automation System (IMPaC-dCAS) Guiding Ideas and Main Goals Developments Basic Concept Exemplary Results Virtual application / Visualization Conclusion / Perspective 26
CONCLUSION / PERSPECTIVES Conclusion / Perspectives The Market requires - and constantly provides - new Solutions for reliable production of Hydrocarbons - from all water depths! Skilled Personnel is rare! New techniques allow centralized online Asset integrity Management via Internet out of Expert Centers Components must guarantee optimal uptime replacements at deep water developments are challenging in costs and procedures Future developments promise to be fully integrated from environmentally sound production to online monitoring a promising field also for future co-operations between production Industry and monitoring Specialists! 27
Not this way Thank you very much for your attention Questions?... better that way! www.impac.de Dr.-Ing. Sven Hoog