FLEXICOKING. The Flexible Resid Upgrading Technology

Similar documents
Upgrading of Heavy Oils with FLEXICOKING. ExxonMobil Research & Engineering Company Tim Hilbert

FLEXICOKING technology for upgrading heavy oil and utilization of by-products

Advanced Polyalphaolefins

SULFUR RECOVERY UNIT. Thermal Oxidizer

ASimple Guide to Oil Refining

Delayed Coking. Chapter 5

THE PRACTICAL, PROVEN PATH TO GREEN ENERGY. RTP rapid thermal processing from Envergent Technologies

********** An short and simple explanation of how oil is converted into gasoline and then brought to you, the consumer.

Advanced Polyalphaolefins. SpectraSyn Ultra

AM Cost Effective Solutions for Reduction of Benzene in Gasoline

Oil Refinery Processes A Brief Overview

Michael Williams Gasification Technologies Council, 28 th October Smaller scale Fischer-Tropsch enables biomass-to-liquids

Process Monitoring Framework

Assignment 8: Comparison of gasification, pyrolysis and combustion

Industry Description and Practices. Waste Characteristics

Maximize Conversion and Flexibility

CRG CONSERVE RESOURCES GROUP ECO ENVIRONMENTAL ENGINEERING TECHNOLOGIES. NEW State of the Art. Advanced OIL REFINERY TECHNOLOGY & PROCESSES

Polyalphaolefin Synthetic Basestocks. Group IV Basestocks. Polyalphaolefins

Refining of Crude Oil - Process

SKI Coal Gasification Technology. Feb. 23, 2012

High. times for. hydrogen. Nitin M. Patel and William F. Baade, Air Products and Chemicals, Inc., USA,

Appendix 5A: Natural Gas Use in Industrial Boilers

Carbon Dioxide Membrane Separation for Carbon Capture using Direct FuelCell Systems

Canadian Oil Sands. Enhancing America s Energy Security

Overview of Integrated Coal Gasification Combined-cycle Technology Using Low-rank Coal

Haldor Topsøe Catalysing Your Business

Glossary of Energy Terms

Morris Argyle Assistant Professor Department of Chemical and Petroleum Engineering. School of Energy Resources Symposium Casper, WY February 28, 2007

Suncor Denver Refinery Overview

TODAY S THERMAL OXIDIZER SOLUTIONS TO MEET TOMORROW S CHALLENGES

TABLE OF CONTENT

Hybrid Power Generations Systems, LLC

Outlook on Integrated Gasification Combined Cycle (IGCC) Technology

The. Brendan P. Sheehan, Honeywell Process Solutions, USA, and Xin Zhu, UOP, a Honeywell Company, USA, explore energy optimisation in plant processes.

Coker Furnace On-Line Spalling

VALIDATION, MODELING, AND SCALE-UP OF CHEMICAL LOOPING COMBUSTION WITH OXYGEN UNCOUPLING

Tutkimuksen merkitys menestyvässä liiketoiminnassa- Innovaatiosta tuotteeksi

Sulfur Tail Gas Thermal Oxidizer Systems By Peter Pickard

Development of Coal Gasification System for Producing Chemical Synthesis Source Gas

AN OFFER TECHNOLOGY FOR THE DISPOSAL OF M6 PROPELLANT WASTE. Wrocław, POLAND,

UOP Gas Processing. Realizing the Value of Your Natural Gas and Synthesis Gas Resources

North American Stainless

Steam Generator Boilers Compact Steam Boilers. Rapid Start-Up Safe in Operation

Predictive emission monitoring systems The power of software analyzers

Opportunities for optimization of refineries using. Thermal Conversion technologies

How To Make Calcium Carbide

Fact Sheet Technology. Bergius-Pier Process (1)

Iron and Steel Manufacturing

The Future of Coal-Based Power Generation With CCS UN CCS Summit James Katzer MIT Energy Initiative web.mit.edu/coal/

North American Stainless

TABLE OF CONTENT

COKE PRODUCTION FOR BLAST FURNACE IRONMAKING

PRAXAIR, INC. Hydrogen: The Growth Story Continues. Charles Miller, Vice President Dan Yankowski, Vice President. February 9, 2005

Study Plan. MASTER IN (Energy Management) (Thesis Track)

A STUDY OF ENVIRONMENTAL BENEFITS OF INDUSTRIAL INTEGRATION

Lime Kiln Principles And Operations. Outline

FURNACEPHOSPHORUS AND PHOSPHORICACID PROCESS ECONOMICS PROGRAM. Report No. 52. July A private report by. the

Coal-To-Gas & Coal-To-Liquids

Enhanced power and heat generation from biomass and municipal waste. Torsten Strand. Siemens Power Generation Industrial Applications

Power Generation through Surface Coal Gasification

How To Make A Mine Guard Fosil Process

ECONOMICAL OPTIONS FOR RECOVERING NGL / LPG AT LNG RECEIVING TERMINALS

How To Make A High Co 2 Gas Blend

Description of Thermal Oxidizers

Process Gas Monitoring in Petroleum Refineries

MODERN TECHNOLOGIES FOR ENERGY AND MATERIAL RECOVERY FROM WASTE. Tomáš Rohal, Business Development CEEI 10-Oct-2013

Clean Energy Systems, Inc.

Process Heater Burners, Flare Systems, Thermal Oxidizers and Catalyst Systems. Combustion Technology

GE Power & Water Water & Process Technologies. Water and Process Solutions for the Refining Industry

Canada s Oil Sands Overview and Bitumen Blending Primer. US National Academy of Science October 23, 2012

BP Texas City Refinery

Optimizing DRI production using natural gas

System Solutions for Boiler Air Preheating

Coal waste slurries as a fuel for integrated gasification combined cycle plants

Process Technology. Advanced bioethanol production and renewable energy generation from ligno-cellulosic materials, biomass waste and residues

TRIAL CHEMICAL CLEANING OF FOULED APH BASKETS

How To Gasify Wood And Agriculture Biomass

Petrochemical Industry Ethylene Plant

Gas Detection for Refining. HA University

SLOVNAFT LCF Operation experience

INDEX GENERAL

Developments and trends shaping the future for Waste-to- Energy technology suppliers

Issue. September 2012

The California GHG Emissions Reporting Tool

Oil and Gas Terms. Anticline: An arch of stratified rock layers that may form a trap for hydrocarbons.

Lecture 35: Atmosphere in Furnaces

Power Plants. BENSON Once-Through Heat Recovery Steam Generator. Power Generation

High Efficiency Low Emissions: The first way forward for clean coal technology. Dr Andrew Minchener OBE General Manager IEA Clean Coal Centre

The Single Absorption Scrubbing Sulfuric Acid Process

SHELL-WISON BOTTOM QUENCH COAL GASIFICATION TECHNOLOGY

Gasification as means of Waste-to-Energy - Main Parameters and application -

Sulphur in Nigerian Diesel

HYDROCARBON REMOVAL FROM AMINES DEMONSTRATED EXPERIENCE ABSTRACT

Optimal Model-Based Production Planning for Refinery Operation

Pet Coke Consulting, LLC. Phil Fisher Argus Conference, Houston September 19-21, 2012

Assessing the Changes Required by the Industrial Boiler MACT Regulations

B0401 Abstract 029 Oral Presentation Session B04 Innovative Applications and Designs - Tuesday, July 1, :00 h

Transcription:

FLEXICOKING The Flexible Resid Upgrading Technology

Flexicoking Technology at Hellenic Petroleum S.A. refinery in Elefsis, Greece. Commissioned in 2012.

FLEXICOKING The Cost-Effective Coking Technology, without the Coke FLEXICOKING technology is a commercially proven, cost-effective, fluidized bed process that thermally converts heavy oils to lighter products and flexigas Coking without the Coke. Low-cost feeds such as deep-cut vacuum resid; atmospheric resid; oil sands bitumen; heavy whole crudes; and DAU, FCC, and ebullated-bed bottoms are converted to high-value products. FLEXICOKING technology with integrated steam/air gasification offers greater flexibility than conventional Delayed Coking, and does it economically. The FLEXICOKING technology not only produces clean liquids of equivalent quantities and similar quality to Delayed Coking, but also gasifies the low-value coke to produce a clean, highvalue flexigas that can be used in place of natural gas and conventional fuel gas in refinery processes. Flexigas can also be used to generate electric power and to produce H 2, N 2, and CO 2. Key Advantages Proven: Commercially proven for more than 38 years in ExxonMobil and in licensed third-party units. All FLEXICOKING units are operating today at capacities greater than original design. Current combined operating capacity is 227 kbd/12 MTA. FLEXible: A robust process, capable of handling a variety of feeds with a wide range of high Conradson Carbon Residue (CCR), sulfur, and heavy metals, without the need for a feed furnace. Multi-Purpose: The high-sulfur, low-value coke is converted to a clean, economical multi-purpose flexigas, which can be used in refinery furnaces, boilers, and gas turbines, or processed to recover H 2, N 2, and CO 2. ExxonMobil s FLEXSORB process is incorporated to reduce H 2 S in flexigas to 10 wppm, or as needed. Optimizable: Coke gasification can be optimized on the run, to debottleneck the unit, or to satisfy operational requirements such as changes in feed formulations and variations in flexigas consumption. Economic: Integrated simple steam/air gasification, carbon steel construction throughout, and the absence of feed furnaces are key factors resulting in significantly lower capital investment when compared to Delayed Coking with complex oxygen gasification. Expect greater comparative savings in electric powergeneration applications (steam or combined cycle). Environmental: Continuous, non-batch operation and closed coke handling system results in low-particulate and fugitive hydrocarbon emissions. Much lower SOx and NOx emissions are realized by burning the clean flexigas, when compared to burning high sulfur coke. Reliable: Continuous, steady state operation in combination with cold-wall carbon steel construction contributes to high reliability and service factors that routinely exceed 92 percent. These benefits come to you in a compact package. The layout of modern FLEXICOKING units offers reduced plot space about 20 percent less than that of a basic Delayed Coking unit of similar capacity. APPLICATIONS TOUGH FEED 2 TOUGH FEED 3 TOUGH FEED 1 COMBINATION POWER GENERATION FUEL GAS Min. Power (Combined Cycle) Power (Steam Cycle) Flexigas for Refinery Fuel Coke for Sale DELAYED COKING FEED SELECTOR FLEXIGAS USE GASIFICATION COKE MAKE CONTROL PANEL H2/N2/CO2 RECOVERY COMBINATION 1.3 1.0 0 1 2 3 4 CAPITAL INVESTMENT FACTOR FLEXICOKING Max. 2.5 2.9 3.1 4.0 1

How FLEXICOKING Technology Works The vacuum resid feed enters the scrubber for directcontact heat exchange with the reactor overhead product vapors. The higher-boiling point hydrocarbons (~975 F+/525 C+) present in the reactor product vapors condense in the scrubber and return to the reactor, in mixture with the fresh feed. Lighter overhead product vapors in the scrubber go to conventional fractionation and light-ends recovery. The feed is thermally cracked in the reactor fluidized bed to a full range of gas and liquid products, and coke. Coke inventory is maintained by circulating the bed coke from the reactor to the heater via the cold coke transfer line. cracking reaction. The excess coke in the heater is transferred to the gasifier, where it reacts with air and steam to produce a gas. The gasifier products, consisting of a gas and coke mixture, return to the heater to heat up the coke. The gas exits the heater overhead and goes to steam generation, to dry/wet particulate removal, and to desulfurization in the integrated FLEXSORB process. The clean flexigas is then ready for use as fuel in refinery boilers and furnaces and/or for steam and power generation. Approximately 95 percent of the coke generated in the reactor is converted in the process. Only a small amount of product coke is collected as fines from the flexigas and purged from the heater to extract feed metals. In the heater, the coke is heated by the gasifier products and circulated back to the reactor via the hot coke transfer line to supply the heat that sustains the thermal Flexicoking Process PRODUCT TO FRACTIONATOR FEED SCRUBBER FEED MIX TO INJECTORS HOT COKE HP STEAM GENERATION CLEAN FLEXIGAS TO USERS REACTOR DRY COKE FINES COLD COKE WET COKE FINES SOUR WATER COKE PURGE 2 AIR + STEAM RICH FLEXSORB TO REGENERATION

Full-Range Products Slate FLEXICOKING technology produces a full range of products, from a C4- reactor gas to C5/975 F (525 C) liquid products, the multi-purpose flexigas, and lastly a small stream of low-sulfur coke that is purged to extract feed metals. Guaranteed Performance The first FLEXICOKING unit began operation in 1976, and since then five others have come online, the most recent one in 2012. Since 2010, we have also licensed three new units with a combined capacity of 114kbd/6.3 MTA. These are currently in different stages of construction. COKER GAS C2 Fuel Gas, C3/C4 S for Alkylation, Chemicals, LPG Sales LPG To Hydrotreating To FCC, Hydrocracker & Chemicals To Refinery Fuel, Power Generation H2, N2, CO2 Production COKE Coke Sales & Metals Reclamation ExxonMobil has licensed fluidized bed coking technology since the 1950s, including the largest fluid coker, which is located in Syncrude, Fort McMurray, Canada. Our experience ranges from 5 to 105 kbd (60 to 750 mtons/hr) unit capacities and a variety of difficult feeds with CCR values ranging between 17 and 37. ExxonMobil has equally extensive experience supporting its licensees, and this is particularly true of the FLEXICOKING technology, because ExxonMobil owns and operates FLEXICOKING units in two of its largest refineries: Rotterdam in the Netherlands and Baytown, Texas, in the United States. We see an increasing market interest in FLEXICOKING technology worldwide. We expect the trend to continue well into the future, particularly in parts of the world where natural gas is limited and/or expensive, and in environmentally sensitive areas. H In Operation Athens, Greece Houston, Texas Amuay, Venezuela Kawasaki, Japan Rotterdam, The Netherlands Martinez, California H In Construction Moscow, Russia Tuapse, Russia Talara, Peru China 3

FLEXICOKING Technology Highlights Produces a clean and valuable flexigas fuel Achieves superior environmental performance Offers maximum flexibility in terms of processed feeds, product utilization, and operating modes Requires lower capital investment 4

FLEXICOKING Technology at ESSO Nederland refinery in Rotterdam, The Netherlands. Commissioned in 1986. 5

2014 ExxonMobil. The user may forward, distribute, and/or photocopy this copyrighted document only if unaltered and complete, including all of its headers, footers, disclaimers, and other information. The information in this document relates only to the named product or materials when not in combination with any other product or materials. We based the information on data believed to be reliable on the date compiled, but we do not represent, warrant, or otherwise guarantee, expressly or impliedly, the merchantability, fitness for a particular purpose, suitability, accuracy, reliability, or completeness of this information or the products, materials, or processes described. The user is solely responsible for all determinations regarding any use and any process. We expressly disclaim liability for any loss, damage, or injury directly or indirectly suffered or incurred as a result of or related to anyone using or relying on any of the information in this document. There is no warranty against patent infringement, nor any endorsement of any product or process, and we expressly disclaim any contrary implication. The terms, we, our, ExxonMobil Chemical, or ExxonMobil are used for convenience, and may include any one or more of ExxonMobil Chemical Company, Exxon Mobil Corporation, or any affiliates they directly or indirectly steward. The ExxonMobil Chemical Emblem, the Interlocking X Device, and Vistalon are trademarks of Exxon Mobil Corporation. www.exxonmobil.com/tsl Printed in U.S.A. XXXX XXXXXXXXXXXX XX-XXXX