HYDROCARBON INDUSTRIAL. Pni. Handbook of. ^m r11?* f 1 ^» La 1 J ELSEVIER. JAMES G. SPEIGHT PhD, DSc AMSTERDAM BOSTON NEW YORK

Similar documents
Chemistry of Fossil Fuels and Biofuels

Power Generation Technologies

Plastic to Fuel Technologies

Reforming is an upgrading process in which low octane gasoline is converted to high octane gasoline.

Natural Gas Processing

CPC field-specific training

Plastics Recycling. Datchanee Pattavarakorn Industrial Chemistry, Science, CMU

Biofuels and Biorefineries

The Science and Technology of Coal and Coal Utilization

PERP/PERP ABSTRACTS Carbon Monoxide PERP 09/10S11

Energy Task Cards Corrections

Natural Gas: A Basic Handbook

Carbon To X. Processes

Topic 6 National Chemistry Summary Notes. Fuels. Fuels and Combustion

Abstract Process Economics Program Report No. 88A ALKYLATION FOR MOTOR FUELS (February 1993)

Direct Coal Liquefaction

PROPERTIES, REQUIREMENTS,

Fig Figure 4.1a on Page 138. Heat Energy. Definition of Energy. Energy, Chemistry, and Society

Overview of Chapter 11

CONCEPTS AND DEFINITIONS

PROCESS ECONOMICS PROGRAM. Report No by NICK KORENS ROBERT W. VAN SCOY. January private report by the PARK, CALIFORNIA

ENERGY SECTOR TRANSFORMATION PROCESSES

Abstract Process Economics Program Report 270 THERMOCHEMICAL CELLULOSIC ETHANOL (December 2009)

Nuclear Hydrogen for Production of Liquid Hydrocarbon Transport Fuels

NAPHTHA FROM COAL A POTENTIAL NEW FEEDSTOCK CONDENSATE AND NAPHTHA FORUM MARCH 2012

NREL is a national laboratory of the U.S. Department of Energy Office of Energy Efficiency and Renewable Energy operated by the Alliance for

GTL. and Edited and Revised 2016 by H M Fahmy

Gas Dehydration Field Manual

Power Plants. Structural Alloys for. Operational Challenges and. High-temperature Materials. Edited by. Amir Shirzadi and Susan Jackson.

CLEAN COAL TECHNOLOGY (CCT) I

Report No. 32 HYDROGEN. December A private report by the PROCESS ECONOMICS PROGRAM STANFORD RESEARCH INSTITUTE PARK, CALIFORNIA

Engineering Materials 2

Questions. Downdraft biomass gasifier. Air. Air. Blower. Air. Syngas line Filter VFD. Gas analyzer(s) (vent)

PHTHALIC ANHYDRIDE PROCESS ECONOMICS PROGRAM I. Supplement. June A private report by the STANFORD RESEARCH INSTITUTE I MENLO PARK, CALIFORNIA

C7 Quick Revision Questions

SULFUR CONCRETE FOR THE CONSTRUCTION INDUSTRY. A Sustainable Development Approach. A. M. O. Mohamed & M. M. El Gamal

Chemistry in Context: Chapter 4: Energy, Chemistry, and Society Practice Problems: All Ch. 4 problems with the blue codes or answers on Page

RESEARCH GROUP: Future Energy Technology

MATERIAL SAFETY DATA SHEET

Material Safety Data Sheet

Oil Contents. Core Text: Boyle, Everett Ramage 2003 Energy Systems and Sustainability Oxford Univerity Press

Material Safety Data Sheet

Responsible Officer. Approved by

Abstract Process Economics Program Report 32B SMALL-SCALE HYDROGEN PLANTS (July 2003)

Approach for a Subset of Petroleum Substances Prioritized during Categorization. Environment and Climate Change Canada Health Canada

Zhongchao Tan. Air Pollution and Greenhouse Gases. From Basic Concepts to Engineering. Applications for Air Emission Control.

Biofuels Research Opportunities in Thermochemical Conversion of Biomass

Routes to Higher Hydrocarbons BIO, Pacific Rim Summit

Sustainable Energy. Lecture 7: Fossil Fuels and Fossil Energy

Different Aspects of Biomass Pyrolysis: A General Review

Thrust 2: Utilization of Petroleum Refinery Technology for Biofuel Production. Prof. Chunshan Song, Penn State Douglas C.

Hot gas cleaning for biomass gasification for clean gas production

Chemistry 500: Chemistry in Modern Living. Topic 4: Energy, Chemistry, and Society. Thermodynamics, Kinetics, and Fossil Fuels

PLASMA ARC THE LEADING LIGHT?

CONCEPTS AND DEFINITIONS

Fossil, Biomass, and Synthetic Fuels

U. S. Energy sources over time

Address: 401 Truck Haven Road, East Peoria, Illinois Emergency Phone:

ENERGY AND FUELS. Energy Sources of Industrial Sectors 29/03/18. Energy Uses in Industry

Pyrolysis and Gasification

Comparison of Plastic Derived Fuel Production Methods and Its Effect on Fuel Quality

Solid Carbon Conversion (Biomass & MSW) via CO 2

Waste-To-Energy New Technologies

Strategic Marketing Planning

GHS Safety Data Sheet

Fischer Tropsch Catalyst Test on Coal-Derived Synthesis Gas

Common Operating Problems

Process Economics Program

The ARK Reformer. Animal Litter. Synthetic Crude Oil Synthesis Gas (SynGas) Fertilizer Biomass. Solid Waste. Waste to Fuel

HMIS RATING: Health- 1 Flammability- 1 Reactivity- 0

Backgrounder. Raw material change at BASF. Natural gas, biomass and carbon dioxide can supplement crude oil as a raw material for chemical production

Process description The Johnson Matthey/BP fixed-bed FT technology comprises a series of reaction vessels charged with a proprietary BP catalyst.

*Not considered a hazardous material at temperatures below the melting point. Not considered a controlled substance or a carcinogen.

Innovative Process Technology for Refining Lignite R&D needs

Essential scientific mapping of the value chain of thermochemical converted second-generation bio-fuels

GoBiGas a First-of-a-kind-plant

Unit C1, C1.4 and C1.5

4 Rosin-derived Polymers and their Progress in Controlled Polymerisation Introduction Rosin Chemical Compositions...

Fuel Sources. Gases Liquids/vapours Chemicals and Solids

StanChem Inc. SAFETY DATA SHEET

ENERGY PRODUCT DEFINITIONS

Hydrogen from Renewable Fuels by Autothermal Reforming: Alcohols, Carbohydrates, and Biodiesel

COMMONLY ASKED QUESTIONS REGARDING SYNFUELS TECHNOLOGY

FT-GTL UNLOCKS VALUE FROM NATURAL GAS

GHS Safety Data Sheet

Principles of Pyrolysis

Zero emission Energy Recycling Oxidation System. June 2012

GASIFICATION PRELIMS-H8528.indd i PRELIMS-H8528.indd i 1/14/2008 3:01:31 PM 1/14/2008 3:01:31 PM

PROCESS ECONOMICS PROGRAM

Efficiency analysis for the production of modern energy carriers from renewable resources and wastes

DICYCLOPENTADIENE (DCPD) AND POLYDICYCLOPENTADIENE (PDCPD): PRODUCTION, MARKET AND FORECAST IN RUSSIA

CRACKING OF USED VEGETABLE OIL MIXED WITH POLYPROPYLENE WASTE IN THE PRESENCE OF ACTIVATED CARBON

Hearing of the Consultative Commission on Industrial Change

Security Risk Management

CREATIVITY AND EXPERTISE to develop solutions for the marine industry. Green Tech 2016 Marine fuels from forest biomass

Chemistry of Petrochemical Processes

Fast pyrolysis based biorefineries

March 2017 GUIDELINES FOR THE 2015 UNITED NATIONS STATISTICS DIVISION ANNUAL QUESTIONNAIRE ON ENERGY STATISTICS

The Fossil Fuels: Oil

Synthetic Petroleum-Based Polymers

Transcription:

Handbook of INDUSTRIAL HYDROCARBON Pni ^m r11?* f 1 ^» La 1 J JAMES G. SPEIGHT PhD, DSc ELSEVIER AMSTERDAM BOSTON NEW YORK HEIDELBERG LONDON OXFORD PARIS SAN DIEGO SAN FRANCISCO SINGAPORE SYDNEY TOKYO Gulf Professional Publishing is an imprint of Elsevier If

Preface xiii 1. Chemistry and Chemical Technology 1 1. Introduction 2 2. Organic chemistry 3 2.1. The chemical bond 3 2.2. Bonding in carbon-based systems 4 3. Chemical engineering 7 3.1. Conservation of mass 8 3.2. Conservation of energy 9 3.3. Conservation of momentum 9 4. Chemical technology 9 4.1. Historical aspects 10 4.2. Technology and human culture 11 5. Hydrocarbons 13 5.1. Bonding in hydrocarbons 15 5.2. Nomenclature of hydrocarbons 16 5.3. Isomers 24 6. Non-hydrocarbons 25 6.1. Alcohols 26 6.2. Ethers 27 6.3. Aldehydes 27 6.4. Ketones 28 6.5. Organic acids 28 6.6. Esters 28 6.7. Amines 29 6.8. Alkyl halides 30 6.9. Amides 30 7. Properties of hydrocarbons 31 7.1. Density 33 7.2. Heat of combustion (energy content) 34 7.3. Volatility, flammability, and explosive properties 35 7.4. Behavior 37 7.5. Liquefied natural gas 38 7.6. Environmental properties 39 References 41 v

Reservoirs vi Contents 2. Sources of Hydrocarbons 43 1. Introduction 43 2. Natural products - and deposits 46 2.1. Petroleum 46 2.2. Natural gas 58 23. Natural gas hydrates 63 2.4. Tar sand bitumen 65 2.5. Coal 68 2.6. Oil shale 70 2.7. Wax 75 2.8. Biomass 77 References 83 3. Hydrocarbons from Petroleum 85 1. Introduction 86 2. Gaseous products 89 3. Naphtha 92 3.1. Composition 92 3.2. Manufacture 93 3.3. Properties and uses 99 4. Gasoline 100 4.1. Composition 101 4.2. Manufacture 102 4.3. Properties and uses 105 4.4. Octane numbers 106 5. Kerosene and related fuels 107 5.1. Composition 109 5.2. Manufacture 109 5.3. Properties and uses 110 6. Diesel fuel 110 7. Gas oil and fuel oil 111 8. Lubricating oil 113 8.1. Composition 114 8.2. Manufacture 115 8.3. Properties and uses 121 9. Wax 122 9.1. Composition 122 9.2. Manufacture 123 9.3. Properties and uses 124 References 125

Contents vii 4. Production of Hydrocarbons from Natural Gas 127 1. Introduction 127 2. Gas processing 129 2.1. Water removal 130 2.2. Fractionation 134 2.3. Acid gas removal 138 3. Natural gas hydrates 144 3.1. Deposits 145 3.2. Composition 147 3.3. Properties 148 3.4. Development 149 3.5. Environmental issues 151 4. Hydrocarbon products 152 4.1. Methane 152 4.2. Ethane and higher homologs 155 4.3. Natural gas liquids 156 4.4. Gas condensate 156 4.5. Synthesis gas 159 References 162 5. Hydrocarbons from Coal 163 1. Introduction 164 2. Occurrence and reserves 165 3. Formation and types 166 3.1. Coal formation 166 3.2. Coal types 167 4. Mining and preparation 169 4.1. Surface mining 170 4.2. Underground mining 170 4.3. Mine safety and environmental effects 172 4.4. Coal preparation 173 5. Properties 174 6. Hydrocarbons from coal 175 6.1. Gaseous hydrocarbons 178 6.2. Gasifiers 182 6.3. Gaseous products 184 6.4. Gasification processes 188 6.5. Underground gasification 191

viii Contents 7. Liquid hydrocarbons 7.1. Physicochemical aspects 7.2. Liquefaction processes 8. Solid hydrocarbons References 191 194 195 199 200 6. Hydrocarbons from Oil Shale 203 1. Introduction 203 2. History 3. Origin 4. Kerogen 205 211 212 5. Occurrence 215 6. Hydrocarbon fuels 217 6.1. Mining and retorting 218 6.2. In situ technologies 221 7. Refining shale oil 223 8. Environmental aspects 232 9. The future 236 References 238 7. Hydrocarbons from Biomass 241 1. Introduction 241 2. Wood 246 2.1. History 247 2.2. Wood chemistry 253 2.3. Hydrocarbons from wood 256 3. Plants 264 3.1. Isoprenoid hydrocarbons 266 3.2. Waxes 267 3.3. Essential oils 268 3.4. Terpenes 269 3.5. Steroids 272 4. Biomass conversion 275 References 278 8. Hydrocarbons from Synthesis Gas 281 1. Introduction 281 2. Coal gasification 285 2.1. Chemistry 285

Contents ix 2.2. Processes 287 2.3. Gasifiers 289 3. Gasification of petroleum fractions 291 3.1. Feedstocks 291 3.2. Chemistry 293 3.3. Commercial processes 296 4. Gasification of other feedstocks 304 5. Fischer-Tropsch process 306 5.1. Chemistry 307 5.2. Catalysts 310 5.3. Reactors 312 5.4. Process parameters 318 5.5. Refining Fischer-Tropsch products 320 References 323 9. Chemical and Physical Properties of Hydrocarbons 325 1. Introduction 325 2. Stereochemistry 326 3. Molecular weight 329 4. Chemical properties 330 5. Physical properties 335 5.1. Boiling points and melting points 335 5.2. Density and specific gravity 343 5.3. Vapor density 347 5.4. Flash point and ignition temperature 348 5.5. Dew point 350 References 352 10. Combustion of Hydrocarbons 355 1. Introduction 355 2. Combustion chemistry 358 3. Slow combustion 362 4. Rapid combustion 364 5. Complete and incomplete combustion 366 6. Spontaneous combustion 367 7. Process parameters 369 7.1. Air-fuel ratio 373 7.2. Equivalence ratio 374

X Contents 8. Combustion of hydrocarbon fuels 375 8.1. Combustion of gaseous hydrocarbon fuels 376 8.2. Combustion of liquid hydrocarbon fuels 379 8.3. Combustion of non-hydrocarbon fuels 380 8.4. Formation of particulate matter 389 8.5. Char and coke 391 8.6. Soot 391 References 393 11. Thermal Decomposition of Hydrocarbons 395 1. Introduction 395 2. Thermal decomposition 396 2.1. Hydrocarbons 397 2.2. Steam cracking 402 2.3. Thermal reforming 404 3. Catalytic decomposition 406 3.1. Fluid catalytic cracking 410 3.2. Hydrocracking 411 3.3. Catalytic reforming 414 4. Dehydrogenation 418 5. Dehydrocyclization 422 References 427 12. Petrochemicals 429 1. Introduction 429 2. Chemicals from paraffins 442 2.1. Halogenation 442 2.2. Nitration 443 2.3. Oxidation 444 2.4. Alkylation 446 2.5. Thermolysis 446 3. Chemicals from olefins 447 3.1. Hydroxylation 448 3.2. Halogenation 451 3.3. Polymerization 451 3.4. Oxidation 452 3.5. Miscellaneous 453 4. Chemicals from aromatic hydrocarbons 453 5. Chemicals from acetylene 455 6. Chemicals from natural gas 460

Contents xi 7. Chemicals from synthesis gas 463 References 465 13. Pharmaceuticals 467 1. Introduction 467 2. History 468 3. Hydrocarbon pharmaceuticals 471 3.1. Mineral oil 471 3.2. Paraffin oil 472 3.3. Steroids 474 3.4. Carotenoids and vitamins 483 4. Misuse and toxicity of hydrocarbons 487 4.1. Lower-molecular-weight hydrocarbons 488 4.2. Polynuclear aromatic hydrocarbons 492 References 496 14. Monomers, Polymers, and Plastics 499 1. Introduction 499 2. Polymerization 501 3. Polymers 507 3.1. Chain length 511 3.2. Structure 511 3.3. Copolymers 514 3.4. Repeat unit placement 517 3.5. Chemical properties 522 3.6. Polymer degradation 522 3.7. Phase separation 523 3.8. Glass transition temperature 523 3.9. Molecular weight 525 4. Plastics 526 4.1. Classification 527 4.2. Chemical structure 529 4.3. Properties 530 4.4. Thermoplastics 534 4.5. Hydrocarbon fibers 535 References 536 15. Environmental Effects of Hydrocarbons 539 1. Introduction 539 2. Release into the environment 542

xii Contents 2.1. Dispersion 543 2.2. Dissolution 543 2.3. Emulsification 544 2.4. Evaporation 544 2.5. Leaching 545 2.6. Sedimentation or adsorption 545 2.7. Spreading 545 2.8. Wind 545 3. Analysis of hydrocarbons in the environment 546 3.1. Environmental samples 549 3.2. Biological samples 557 3.3. Semi- and non-volatile hydrocarbons 557 3.4. Assessment of the methods 560 4. Toxicity hazards 565 4.1. Lower boiling hydrocarbons 566 4.2. Higher boiling hydrocarbons 570 5. Remediation of hydrocarbon spills 572 References 575 Glossary 577 Index 631