Copyright 2006 by E-MetaVenture, Inc. All Rights Reserved. Potential Impact of GTL Commercialization on the Fuels and Specialty Product Markets NPRA Annual.

Slides:



Advertisements
Similar presentations
CO 2 Capture & EOR Potential For: Wyoming Pipeline Authority July 25, 2006 By: PLASMA, Inc. Rich Schuller PLASMA, Inc. 58 West Quartz Butte, MT
Advertisements

Alternative Fuels for Medium –Speed Diesel Engines for Marine Applications: Realistic Options by Steven G. Fritz, P.E. Department of Engine and Emissions.
Copyright 2007 by E-MetaVenture, Inc. All Rights Reserved. GTL and CTL Commercialization: Status and Impact on Global and Regional Product Markets AIChE.
The Promises and Limitations of Gas-to-Liquids Technology
Copyright 2008 by E-MetaVenture, Inc. All Rights Reserved. The Potential Contribution of Coal- to-Liquids Technology to the US and Global Energy Pool NPRA.
Introduction to Fischer Tropsch Synthesis
Copyright 2003 by E-MetaVenture, Inc. All Rights Reserved. 1 Gas-to-Liquid Technologies: Recent Advances, Economics, Prospects 26 th IAEE Annual International.
Gas Liquefaction Katherine D’Ambrosio. Liquefaction  The refinery process of converting natural gas or other gaseous hydrocarbons into longer chain hydrocarbons.
Copyright  2007 by E-MetaVenture, Inc. All Rights Reserved. Coal-to-Liquids: Technology, Commercialization, and Potential Contribution to US and Global.
Outline Introduction Design of catalytic membrane reactor Results
Industrial Chemistry Class Texas A&M University March 6, 2006
GTL Taken Partly from the Internet and Edited and Revised by H M Fahmy.
BioAsia Presents Coal to Diesel Conversion Local - Environmental - Profitable.
Landfill Gas to Liquid Fuels Ryan Kent Kirk Jaunich Tyler Stewart Zachary Kerbo University of South Florida Chemical & Biomedical Engineering Department.
SHALE GAS INNOVATION CONTEST May 7, Company Incorporated the State of Delaware in May 2011 Exclusive License Agreement signed with NETL US 8,241,600.
Occupational Hygiene in the Basic Petroleum Chemistry
The Petroleum Oil and Gas Corporation of South Africa (SOC) Ltd Reg. No. 1970/008130/07 1 PetroSA Overview * Following the merger of Soekor E & P and Mossgas.
Maritime Business & Technology Summit Very Large Floating Platforms November 2011.
XTL: Opportunities and Challenges Jan van Schijndel, Shell Global Solutions Jornadas Latinoamericanas de Refinación – Instituto Argentino de Petróleo y.
Catalytic cracking Catalytic cracking
Drive for Energy Independence Fuel Prices Rising / Volatile
Biomass and Biofuels MECH April Background Biomass: material of recent biological origin. Provides (directly or via processing) HC fuel.
Liquid-Phase Methanol Process (LPMeOH) Jill DeTroye, Brandon Hurn, Kyle Ludwig, and Isaac Zaydens.
Renewal Fuel from Biomass Waste UC Discovery/West Biofuels Research Project: “An Investigation of a Thermochemical Process for the Conversion of Biomass.
Striclty for educational purposes Final project in M.Sc. Course for teachers, in the framework of the Caesarea –Rothschild program of the Feinberg Grad.
Group 6: Jacob Hebert, Michael McCutchen, Eric Powell, Jacob Reinhart
DME, a new energy carrier
Constandinos Mitsingas.  Overall Process  Syngas Production  Fischer Tropsch Process  Fischer Tropsch Reactors  Chemical Reaction Catalysts  Products.
1 Dennis Schuetzle, PhD, President, REI International BETO IDL Workshop Golden, CO March 20, 2014 Integrated Micro-Refinery for the Direct Production of.
SynGas Gasifier ALTERNATIVE ENERGY Technology Presentation.
Oct. 6, 2005 Y. R. CHO Principal Research Scientist SK Corporation
Adding value to energy™ Producing Energy: Emerging Technologies Nov 11/04 Headwaters Coal-to-Liquids Technologies Theo L.K. Lee Headwaters Technology Innovation.
FOSSIL FUELS AND FOSSIL ENERGY Fossil fuel is a substance that releases energy by chemical reaction. In most cases the energy release occur when the substance.
Production of Syngas and Ethanol Group II. Definition of Syngas Syngas is the abbreviated name for synthesis gas. It is a gas mixture that comprises of.
COPERT 4 Training 6. GHG Emissions. COPERT 4 Training (6. GHG) 2 Fuel Sold (t) Methodology: Algorithm (Diesel) Fossil Diesel Biodiesel VKT Travelled Diesel.
Hydrogen from Renewable Fuels by Autothermal Reforming: Alcohols, Carbohydrates, and Biodiesel Lanny D. Schmidt Department of Chemical Engineering and.
Words + picturesPicturesWords Day Day
Kirill LIATS General Director Metaprocess
Fuels & Energy IB Option AP/IB Chemistry Chanlder High School.
Hubbert’s Peak and Beyond The Future of Liquid Fuels Richard J. McDonald, Ph.D. Presented to: Department of Engineering U.S. Naval Academy.
The Role of Innovation in US Gulf Coast Competitiveness The Future of the Gulf Coast Petrochemical Industry Global Energy Management Institute University.
Power Plant Construction and QA/QC Section 1.3– Oil and Natural Gas Engineering Technology Division.
Economic Analysis Introduction Motivation Process Flow Diagram Design Basis/Block Flow Diagram Environmental Analysis We have taken advantage of the arbitrage.
DOWNSTREAM PROCESSING. Oil Refining GTL - Gas to Liquids.
TRANSPORT GASIFIER & ITS APPLICABILITY TO INDIAN COAL TRANSPORT GASIFIER & ITS APPLICABILITY TO INDIAN COAL.
XtL – the Topsøe Approach. 2 Presentation outline  General introduction –Haldor Topsøe –What is XtL? –Focus of this presentation  Building blocks –Gasification.
Gas to Liquids – GTL Espinoza Prime 3 offers the following GTL technology Reactors : Fixed Bed Reactor and Slurry Bed Reactor FT Catalysts : Precipitated.
Gas To Liquids Test Facility
Ligno-Cellulosic Ethanol Fact Sheet Cellulosic Ethanol Production Most plant matter is not sugar or starch, but cellulose, hemicellulose,
1 Diversifying Revenue Streams in Natural Gas Processing.
Stoichiometric and Temperature Effects on Boiler Corrosion from High Chlorine and High Alkali Coals Research Group : Shrinivas Lokare, David Dunaway, Douglas.
Team: FOXTROT Mentor: Dan Rusinak Crew: Ali, Mudassir Drake, Stephen Meaux, Kevin Sieve, Brandon Foxtrot, University of Illinois at Chicago 1.
FISCHER-TROPSCH LIQUIDS REFINING PLANT Team Foxtrot Presentation #5 – April 23, 2013 Mentor: Dan Rusinak, PE Team: Mudassir Ali Stephen Drake Kevin Meaux.
Hydrogen Generation MA31W203 吳俊儀.
Biodiesel Fact Sheet Transesterification The most well-established technology for biodiesel production is transesterification. The process involves filtering.
PROCESS DESIGN AND ECONOMIC ANALYSIS CBE 490 Andrew Hix, Rachel Kendall, Will Maningas, Mark Moore, Rachel Svoboda.
“ The Solution to Future Fuel”. The Fischer Cats Ali Al Musabeh Auto-Thermal Reactor Specialist Faraj Almarri Auto-Thermal Reactor Specialist Mohammed.
Manufacturing ammonia. Fertilisers and much more Global production of ammoniaUses YearTonnes of ammonia
Microchannel Fischer-Tropsch for Biomass-to-Liquids Green Chemistry Conference June 25, 2008 Jeff S. McDaniel.
March 28, 2013 Office of Research and Development 1 National Risk Management Research Laboratory, Air Pollution Prevention and Control Division. Oak Ridge.
Optimum Process Design for Gas Conversion to Wax-free Hydrocarbons
Gas To Liquids Test Facility
Alkanes Lecture 3.
Copyright © 2015 by the American Osteopathic Association.
C.2 Fossil fuels Fossil fuels were formed by the reduction of biochemical molecules over the course of million years.
Fischer-Tropsch Synthesis
Test Fuel Properties FT Diesel fuel Diesel fuel Properties (8/19)
Copyright © 2014, 2000, 1992 Elsevier Inc. All rights reserved.
Chemistry Ch. 10 Review and worksheets
Chapter 103 Long-Term Care: The Global Impact
Presentation transcript:

Copyright 2006 by E-MetaVenture, Inc. All Rights Reserved. Potential Impact of GTL Commercialization on the Fuels and Specialty Product Markets NPRA Annual Meeting March 21, 2006 Salt Lake City, Utah AM Iraj Isaac Rahmim, PhD E-MetaVenture, Inc. Houston, Texas

2006 NPRA Annual Meeting AM-06-36E-MetaVenture, Inc. Introduction Recent interest in GTL technology and its products Units to come on line in the next 5 years Examination of the likely impact of key GTL products in their respective markets –Diesel –Lubes –Waxes

2006 NPRA Annual Meeting AM-06-36E-MetaVenture, Inc. Key GTL Steps Production of synthesis gas (syngas): –Partial oxidation: CH 4 + O 2 CO + 2 H 2 (exothermic) –Steam reforming: CH 4 + H 2 O CO + 3 H 2 (endothermic) Fischer-Tropsch synthesis –CO + 2H 2 CH 2 + H 2 O (very exothermic)

2006 NPRA Annual Meeting AM-06-36E-MetaVenture, Inc. Sample GTL Product Slate 50 MBD Plant No HC (MBD) With HC (MBD) Comments LPG12 Similar to other plant (LNG, refinery) LPG Can be co- processed and marketed with them Naphtha413 Straight chain paraffinic Near zero sulfur Preferred use: steam cracker feed Diesel2535 High cetane Near zero sulfur Low density Low aromatics Lubes15<1 High grade Low volatility Low pour point Low viscosity Low sulfur Wax5<1 n-paraffins High quality

2006 NPRA Annual Meeting AM-06-36E-MetaVenture, Inc. GTL Diesel Quality & Effect of Regulatory Environment GTL diesel virtually sulfur-free and low aromatic (<5% PNA) Regulations on –Alternative fuel content (e.g., biofuels, GTL) –Fuel composition –Emissions Fuel composition regulations: –Tightening standards for light and heavy-duty diesel vehicles –Expected to continue to tighten –Sulfur, aromatics, PNAs –US, WE, Japan: sulfur down to ppm –Developing world: mandates down to ppm

2006 NPRA Annual Meeting AM-06-36E-MetaVenture, Inc.Emissions A number of studies demonstrated tailpipe emission benefits –Neat or in blends –Compared to both conventional as well as reformulated Typical examples of tailpipe emission results: –40-50% reduction in HC, 9% in NOx, 30% in particulates when compared with low-sulfur refinery diesel –Benefits with current as well as new engine technologies (Euro-4 and Euro-5) using neat and blend GTL diesel Well-to-Wheel: no great benefit for GTL diesel –Shifts CO 2 emissions from auto to plants (away from population centers; potential for sequestration)

2006 NPRA Annual Meeting AM-06-36E-MetaVenture, Inc. Additional Comments on GTL Diesel Quality Highly paraffinic typical cetane numbers in Lower density than refinery diesel – Kg/L v Kg/L – Density premium – Perceived lower fuel efficiency (in MPG) Relatively poor cold-start; low lubricity A number of studies (90s) show a premium of 5-10 ¢/gal

2006 NPRA Annual Meeting AM-06-36E-MetaVenture, Inc. GTL Diesel Supply Projections A large number of potential projects Only a small fraction are likely to be built short-term Qater: self-described GTL capital –Oryx I: 2006 start up –Shell Pearl: 2009 –ExxonMobil: 2011 California Energy Commission estimate: –2010: 75 MBD global GTL diesel capacity (seems low) –2015: 388 MBD –2020: 800 MBD Sasol Chevron estimate: 600 MBD by

2006 NPRA Annual Meeting AM-06-36E-MetaVenture, Inc. Automotive Diesel/Mid. Dist. Market Historical Global middle-distillate market: 27 MMBD –Approx. 3% annual growth –14 MMBD automotive diesel

2006 NPRA Annual Meeting AM-06-36E-MetaVenture, Inc. Growth Projections (1) Europe: increase in diesel-powered autos –Currently over 60% of auto sales in France and Austria –Emission mandates, jurisdictional tariff strategies, improved auto designs, increased low-emission fuel availability US: driven by commercial sector and tied to overall economy growth (average about 5% annual) –Light diesel vehicles 4% of total market –Regional and regulatory efforts are likely to increase diesel auto usage Asia-Pacific: rapid yet uncertain growth –China factor: 8-10% annual economic growth; loosely correlated to diesel fuel usage

2006 NPRA Annual Meeting AM-06-36E-MetaVenture, Inc. Growth Projections (2) Globally: diesel powered autos at about 30% –Projected to grow to about 40% by middle of next decade –Followed by partial replacement with hybrids Overall: –Projected middle distillates demand to grow by 3% annual –To 44 MMBD in 2020 –22.5 MMBD automotive diesel Question: what is the potential impact of GTL on this market?

2006 NPRA Annual Meeting AM-06-36E-MetaVenture, Inc. GTL Diesel v. Global Middle Distillates - 5,000 10,000 15,000 20,000 25,000 30,000 35,000 40,000 45, Middle Distillate Consumption (MBD) Projected Total at3% growth Rest of World(Excl FSU) Asia Pacific Europe North America GTL Diesel MBD Small as fraction of total diesel supply (less than 3% by 2020) Unlikely to impact global market greatly

2006 NPRA Annual Meeting AM-06-36E-MetaVenture, Inc. Potential Impact on Local Diesel Markets GTL supply could potentially form a significant portion of a regions diesel –Example: Shell estimates one large GTL plant would fully satisfy the city of London and 10 plants would satisfy PADD V Possible to develop a critical mass of GTL diesel as blendstock for a small market –Example: Shell Bintulu has offered 30% Pura throughout Thailand –Also sold as blendstock in Greece, Germany, and South Africa

2006 NPRA Annual Meeting AM-06-36E-MetaVenture, Inc. Likely GTL Diesel Scenario Pure GTL diesel would require separate infrastructure and auto modifications –Would take away key GTL benefit compared to many alternatives: compatibility with current fuels and systems In jurisdictions with very tight specifications, volume of GTL required would be very high Most likely use: as a premium blendstock to bring slightly off-spec diesel into compliance Competition: –HT in refineries, improvement in FCCs and other units –Biofuels (e.g., ethanol, methyl esters) are expected to grow in line with tax benefits and mandates – GTL diesel sulfur premium might erode – Some observers: GTL diesel premium will be primarily due to its high cetane and low aromatics (benefit for Europe, less so in US and Asia)

2006 NPRA Annual Meeting AM-06-36E-MetaVenture, Inc. GTL Lubes Quality and Cost GTL lubes produced from isomerization of FT waxes –Virtually no sulfur, nitrogen, or aromatics –Narrow HC distribution –Excellent oxidation stability –Excellent volatility and pour point –Very high VI (140+) Studies suggest attractive economics for production –Manufacturing costs similar to Group I/II –Quality similar to other basestocks of 140+ VI

2006 NPRA Annual Meeting AM-06-36E-MetaVenture, Inc. Lubes Markets (1) Basestock global market size ~ 800 MBD in 2005 –Group I: 75% –Group II: 20% –Groups II+/III/IV: 5% Groups II+/III/IV expected to grow to >10% by 2015 (perhaps as much as 20% depending on automaker demands) Currently at surplus quality relative to technical demand –Complicated as basestock market is in great flux –Shifting quality and specifications likely to consume quality overhang –Group I capacity rationalizations continue in NA and WE Triggered by Group II/III construction/expansions primarily in Asia and NA Depends on efficiency and structure of plant

2006 NPRA Annual Meeting AM-06-36E-MetaVenture, Inc. Lubes Markets (2) Slow overall growth –Rapid demand growth in developing regions (e.g., China, Brazil) –Decline in US, WE, Japan, Australia, New Zealand –Overall in 2004: 1.8% growth – Basestock movement from NA/WE to other regions Increased demand for high quality (Group III/IV) –Evolving industry standards for passenger car motor oils (GF-4 in effect; moving towards GF-5)

2006 NPRA Annual Meeting AM-06-36E-MetaVenture, Inc. GTL Lubes Capacity Impact One world-scale GTL could produce as much as MBD lube basestocks (8-15% of current Group II/II+/III/IV supply) Example: ExxonMobil Qatar project, announced in 2004, to produce 30 MBD lube basestocks Estimates and announcements: 50 MBD GTL lube basestock capacity by 2011 Globally, possibility of at least 200 MBD of GTL lube basestocks by 2020

2006 NPRA Annual Meeting AM-06-36E-MetaVenture, Inc. Likely GTL Lubes Scenario GTL economics primarily based on gas monetization to produce high quality diesel –historical F-T plants (Sasolburg and Segunda) make no lubes –Max lubes yields of 20-30% from key GTL plants? –In reality: All major GTL plants will include some product cracking Likely scenario in terms of impact of GTL on lubes markets: –GTL lubes will trigger shutdown of less efficient lube capacity –Key: manufacturing cost Typically highest cost today are many Group I plants Some of the lowest cost plants are Group II in US and Asia and Group III in Asia

2006 NPRA Annual Meeting AM-06-36E-MetaVenture, Inc. GTL Wax Quality Unlike petroleum wax (mix of iso- & n-paraffins), todays FT wax is primarily linear in the C range –Benefit in high melt applications –Require fractionation and blending to meet low and mid-melt applications Typically can produce only two wax grades (MPs) and blend to meet all other MPs Shell Bintulu and Sasol Secunda provide about 6% of worldwide waxes (low oil content, high MP) Oryx and other planned GTL projects –No plans announced to sell waxy F-T material or upgrade to finished wax –Tight wax markets may create opportunity –Possibility: softer wax than from current GTL units with oil content close to slack waxes

2006 NPRA Annual Meeting AM-06-36E-MetaVenture, Inc. Global Wax Overview Total global wax capacity in 2005: approx. 10,900 MMlb (~103 MBD) –About 13% of the base oil market –Most produced from petroleum sources (lube refinery) –About 6% currently produced from Shell and Sasol GTL plants Types of WaxWt % Slack and Semi-Refined29 Fully Refined54 Microcrystalline5 Petrolatum4 Other~2 From GTL6 Sources: C. Garrigou. First ICIS-LOR Pan American Base Oils & Lubes Conference 2005 and in-house

2006 NPRA Annual Meeting AM-06-36E-MetaVenture, Inc. Wax Supply Slack/unrefined wax considered lube refinery by-product Production depends on rates of other key products especially Group I base oils –Rationalizations in NA, Europe, Asia –Wax isomerization to base oils Production concentrated –75% in 10 countries Over 1/3 of total wax production in Asia (especially refined) Companies: CNPC, XOM, Shell, Sasol are largest (55% of production) Overall cap. util. ~ 85% –High in NA, WE, Asia (~95%) Total Wax Production incl. GTL (2005) % North America28 Latin America5 Europe18 Asia35 FSU and Eastern Europe 11 ME/Africa3 TOTAL (MMlb/yr)~9,300 Sources: Wax Data 2005 and 2006 and in-house

2006 NPRA Annual Meeting AM-06-36E-MetaVenture, Inc. Wax Demand Refined waxes ~ 2/3 of market Approx ½ food grade Significant wax refining capacity in China – refined wax exported to North America Approximate Wax Demand by Region (2005) % North America30 Latin America14 Western Europe17 Asia23 FSU and Eastern Europe12 Middle East/Africa4 Sources: Wax Data 2005 and 2006 and in-house

2006 NPRA Annual Meeting AM-06-36E-MetaVenture, Inc. Wax TrendsChina Chinese crude production steady ( MMBD) and projected to hold for ~15 years per upstream reserves estimate –Waxy/paraffinic Economic growth has led to 3-fold crude demand increase over the last 15 years –Import 40% of their crude (primarily ME, Russia)less waxy –New refineries focus on transportation fuels –Some historical wax-producing refineries changing output and reducing/eliminating wax manufacture –Operational issues with imported crudes (?) Growth in wax demand (loosely correlated to economic growth of 8- 10% annual) and end-use shift Result: less Chinese wax available for export –Trend expected to continue Source: Amy A. Claxton of My Energy

2006 NPRA Annual Meeting AM-06-36E-MetaVenture, Inc. Overall Wax Trends Relatively steady growth in global wax demand in the past 25 years –Expected to continue at approx. 3% annually –Regional and end-product shifts likely OVERALL: –Continued growth in demand –Reduction in supply of petroleum-derived waxes –Potential increased supply of natural waxes (e.g., soy, palm) –Opportunity for GTL to impact these trends

2006 NPRA Annual Meeting AM-06-36E-MetaVenture, Inc. GTL Wax Supply and Demand The wax market is easily overwhelmed –Example: typical GTL plant can produce 500-1,000 MMlb/yr of high grade wax (if not hydrocracked) 6-12% of total projected market One analysis (Shell): potentially as much as 4,400 MMlb/yr new wax by 2015 from GTL Another analysis (Kline & Co.): 1,000-1,500 MMlb/yr of FT wax might be needed by 2014 to keep balance

2006 NPRA Annual Meeting AM-06-36E-MetaVenture, Inc. Likely GTL Wax Scenario Most GTL plants will hydrocrack their wax-range products into diesel and other light products ~1/3 left for use/sale as slack wax or to isomerize into base oils Can fine-tune wax produced in light of market –Analysts expect GTL wax to fill high-end niche applications and possibly move into petroleum wax market space

2006 NPRA Annual Meeting AM-06-36E-MetaVenture, Inc. In Summary GTL is capable of producing high quality diesel as well as lubes and waxes GTL is unlikely to have a major impact on the global diesel markets –Can be a positive component in meeting high quality blend- stock demands GTL lubes and waxes can have a significant effect on the worldwide pool

2006 NPRA Annual Meeting AM-06-36E-MetaVenture, Inc. Acknowledgments Ms. Amy Claxton of My Energy Ms. Barbara R. Shook of Energy Intelligence Group Dr. Carl J. Verbanic of Wax Data

2006 NPRA Annual Meeting AM-06-36E-MetaVenture, Inc. Contact Information Iraj Isaac Rahmim, PhD E-MetaVenture, Inc. P. O. Box Houston, Texas USA Telephone: USA (713)