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Handbook of petrochemicals production processes / edited by Robert A. Meyers.
- Format:
- Book
- Series:
- McGraw-Hill's AccessEngineering
- Language:
- English
- Subjects (All):
- Petroleum chemicals--Handbooks, manuals, etc.
- Petroleum chemicals.
- Genre:
- Electronic books.
- Physical Description:
- 1 online resource
- Edition:
- First edition.
- Place of Publication:
- New York, N.Y. : McGraw-Hill Education, [2005]
- Language Note:
- In English.
- Summary:
- Chemicals -- and the process used to produce them -- are a billion dollar business. Written by experts from major international petrochemical licensing firms, this innovative handbook details the latest and most powerful chemical processes used to create the most economically important chemicals in the world.
- Contents:
- A. Contributors
- B. Preface
- C. Acknowledgments
- A. Part 1: acetic acid
- 1.1. Chiyoda acetic acid process acetica?
- Introduction
- Chemistry
- Process features
- Process description
- Product specifications
- Process yield and emissions
- Economics of the chiyoda acetica technology
- Scope of chiyoda's package of services
- Experience
- References
- B. Part 2: aniline
- 2.1. Dupont/kbr aniline process
- Aniline market overview
- Process chemistry
- Technology features
- Operating requirements
- Product quality
- Wastes and emissions
- C. Part 3: 1,3-butadiene
- 3.1. Basf butadiene extraction technology
- Process perspective
- Economics
- Environmental considerations
- Summary of process features
- 3.2. Uop klp 1,3-butadiene from acetylene process
- Butadiene
- The klp process
- Commercial experience
- Economics and operating costs
- D. Part 4: cumene
- 4.1. Abb lummus global cumene production via cdcumene? technology
- Process economics
- 4.2. Uop q-max? process
- Description of the process flow
- Feedstock considerations
- Process performance
- Case study
- Bibliography
- E. Part 5: ethylbenzene
- 5.1. Lummus/uop liquid-phase ebone process and cdtech eb? process
- 5.2. Polimeri europa ethylbenzene process
- Process and catalyst advanced features
- 5.3. Exxonmobil/badger ethylbenzene technology
- Ethylbenzene manufacturing
- Properties of ethylbenzene
- Ebmax process catalysts
- Process chemistry and ebmax catalyst performance
- Process design customization and optimization
- Ebmax process designs for dilute ethylene feedstocks
- Technology conversion and capacity expansion with ebmax
- Ethylbenzene product quality
- Raw materials and utilities consumption
- Catalyst requirements
- Ebmax plant design
- Reference
- F. Part 6: ethylene
- 6.1. Abb lummus global srt? cracking technology for the production of ethylene
- Development and commercial history
- Cracking heater
- Ethylene process flow schematic
- Refinery and ethylene plant integration
- Recent technology advances
- Commercial operations
- Economic aspects
- 6.2. Stone and webster ethylene technology
- Economic drivers
- Development history: pyrolysis
- Development history: recovery
- Megaplant design issues
- Project execution aspects
- 6.3. Kbr score? ethylene technology
- Development and history
- Selective cracking furnace technology
- Optimum recovery-section design
- Future developments.
- G. Part 7: methanol
- 7.1. Lurgi megamethanol? technology
- History
- Megamethanol technology
- Latest lurgi methanol project references
- H. Part 8: oxo alcohols
- 8.1. Johnson matthey oxo alcohols process?
- Process flowsheet
- Benefits of the johnson matthey technology
- Feed specifications
- Capital costs
- Operational experience
- I. Part 9: phenols and acetone
- 9.1. Polimeri europa cumene-phenol processes
- Cumene technology
- Phenol technology
- 9.2. Sunoco/uop phenol process
- Cumene production
- Phenol production
- Sunoco/uop cumene peroxidation route to phenol production
- Overall process description/chemistry
- Process flow and recent technology advances
- Conclusion
- 9.3. Kbr phenol process
- Markets
- Feedstock and product properties
- Production yields
- Utility requirements
- Product storage and shipping
- Environmental features
- Safety
- Operating economics
- Investment/economies of scale
- Acetone netback
- Technology advantages
- 9.4. Qbis? process for high-purity bisphenol a
- Overview
- Wastes and emissions: expected performance
- J. Part 10: propylene and light olefins
- 10.1. Lurgi mtp? technology
- Process overview
- Detailed process description
- Products, by-products, wastes, and emissions
- Technical and commercial status
- 10.2. Uop/hydro mto process
- Mto technology
- Economic basis
- Investment estimates
- Economic comparisons
- Economic sensitivity
- Conclusions
- 10.3. Uop oleflex? process
- Dehydrogenation plants
- Propylene production economics
- 10.4. Abb lummus global propylene production via olefins conversion technology
- Conclusion.
- 10.5. Propylene via catofin? propane dehydrogenation technology
- Feedstock and utility consumption
- Product quality and by-products
- Catalyst and chemical consumption
- Environmental emissions
- Summary of technology features
- K. Part 11: styrene
- 11.1. Lummus/uop "classic" styrene technology and lummus/uop smart^sm styrene technology
- Process descriptions
- 11.2. Stone and webster (badger) styrene technology
- Styrene industry
- Use of styrene monomer
- Properties
- Styrene manufacturing
- Product specification
- 11.3. Polimeri europa styrene process technology
- Process and mechanical design advanced features
- L. Part 12: terephthalic acid
- 12.1. E pta: the lurgi/eastman/sk process
- Chemistry overview and product specification
- Highlights and benefits of e pta technology
- Economics of e pta technology
- M. Part 13: xylenes
- 13.1. Exxonmobil pxmax^sm p-xylene from toluene
- Operating performance
- Pxmax retrofit and debottleneck applications
- Aromatics complex and pxmax unit description
- Case i: grassroots pxmax unit
- Case ii: retrofit of selective tdp to pxmax
- Case iii: retrofit of nonselective tdp to pxmax
- 13.2. Exxonmobil xymax^sm xylene isomerization
- Xymax cycle length
- 13.3. Uop parex? process for p-xylene production
- Parex versus crystallization
- Equipment considerations
- Bibliography.
- N. Part 14: polyethylene
- 14.1. Basell spherilene technology for lldpe and hdpe production
- General process description
- Process chemistry and thermodynamics
- Spherilene process perspective
- Products and applications
- 14.2. Borstar lldpe and hdpe technology
- Advanced process control
- Capacities and locations of borstar pe plants
- Borstar pe products
- 14.3. Chevron phillips slurry-loop-reactor process for polymerizing linear polyethylene
- Slurry-loop reactor
- Polymer finishing and packaging
- Utilities
- Technical advantages of the chevron phillips slurry-loop process for pe
- Summary
- 14.4. Exxonmobil high-pressure process technology for ldpe
- Reaction mechanism
- Process overview/description
- Ldpe versus lldpe
- Product capability/grade slate
- Ldpe markets
- Strengths of exxonmobil technology
- Disclaimer
- 14.5. Polimeri europa polyethylene high-pressure technologies
- Polimeri europa trademarks
- Chemistry and thermodynamics
- High-pressure reactor technologies
- Reactor safety discharge system
- Plant battery limits
- 14.6. Basell hostalen technology for bimodal hdpe production
- Hostalen process perspective
- Product range and applications
- 14.7. Basell lupotech g technology for hdpe and mdpe production
- Lupotech g process perspective
- 14.8. Basell lupotech t technology for ldpe and eva-copolymer production
- Lupotech t process perspective
- 14.9. Unipol? pe gas-phase process: delivering value to the pe industry
- Product and by-product specifications
- 14.10. Nova chemicals sclairtech? lldpe/hdpe swing technology
- Chemistry and catalysis
- Advantages of the sclairtech technology platform
- Product capability
- Commercial installations
- Acknowledgment
- O. Part 15: polyethylene terephthalate
- 15.1. Uop sinco solid-state polymerization process for the production of pet resin and technical fibers
- Melt-phase polymerization
- Ssp process chemistry
- Crystallization of pet
- Sticking tendency of pet
- Reactions of the catalytic nitrogen purification system
- Oxidation of pet
- Process variables
- Feed properties
- Product properties
- Product yield
- References.
- P. Part 16: polypropylene
- 16.1. Basell spheripol technology for pp production
- Spheripol process perspective
- 16.2. Basell spherizone technology for pp production
- Spherizone process perspective
- 16.3. Borstar polypropylene technology
- Features of the borstar pp process technology
- Production cycle and grade transitions
- Catalyst
- Environment
- Products
- 16.4. Unipol? polypropylene process technology
- General unipol pp process description
- Products and by-products
- Unipol pp product attributes summary
- 16.5. Chisso gas-phase polypropylene process
- Technology background and history
- Polymerization mechanism and polymer type
- Safety and environmental considerations
- Product capabilities
- Reference plants
- Q. Part 17: polystyrene
- 17.1. Bp/lummus technology for the production of expandable polystyrene
- Operating plants
- Feedstock/product specifications
- Waste and emissions
- 17.2. Bp/lummus technology for the production of general-purpose and high-impact polystyrenes
- Feedstock and product specifications
- 17.3. Polimeri europa general-purpose polystyrene process technology
- Process advanced design features
- Plant capacity
- The edistir gpps product portfolio
- 17.4. Polimeri europa expandable polystyrene process technology
- Description of process flow
- The extir eps product portfolio
- 17.5. Polimeri europa high-impact polystyrene process technology
- The edistir hips product portfolio
- R. Part 18: vinyl chloride and polyvinyl chloride
- 18.1. Vinnolit vinyl chloride and suspension polyvinyl chloride technologies
- Company introduction
- Vinnolit vinyl chloride monomer (vcm) process
- Vinnolit direct chlorination process
- Vinnolit oxychlorination process (fig. 18.1.3)
- Vinnolit thermal cracking process of 1,2-dichloroethane to vinyl chloride
- Vinnolit suspension polyvinyl chloride (s-pvc) process
- Abbreviations and acronyms
- 18.2. Chisso polyvinyl chloride suspension process technology and vinyl chloride monomer removal technology
- Chisso polyvinyl chloride suspension process technology
- Chisso vinyl chloride monomer removal process technology.
- Notes:
- "McGraw-Hill Handkbooks."-- Cover.
- "Process details, with flow diagrams and mass and energy balances; Detailed analyses of all process products and by products; Capital cost and price ranges for each applicable product."-- Cover.
- Includes bibliographical references and index.
- Electronic reproduction. New York, N.Y. : McGraw Hill, 2005. Mode of access: World Wide Web. System requirements: Web browser. Access may be restricted to users at subscribing institutions.
- Description based on cover image and table of contents, viewed on Dec. 19, 2014.
- Other Format:
- Print version: Handbook of petrochemicals production processes.
- ISBN:
- 9780071410427 (print-ISBN)
- 0071410422 (print-ISBN)
- 9780071504881 (e-ISBN)
- 0071504885 (e-ISBN)
- OCLC:
- 646753021
- Access Restriction:
- Restricted for use by site license.
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