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Chemical engineering

Chemical engineering is an engineering field which deals with the study of operation and design of chemical plants as well as methods of improving production. Chemical engineers develop economical commercial processes to convert raw materials into useful products.[1] Chemical engineering uses principles of chemistry, physics, mathematics, biology, and economics to efficiently use, produce, design, transport and transform energy and materials. The work of chemical engineers can range from the utilization of nanotechnology and nanomaterials in the laboratory to large-scale industrial processes that convert chemicals, raw materials, living cells, microorganisms, and energy into useful forms and products. Chemical engineers are involved in many aspects of plant design and operation, including safety and hazard assessments, process design and analysis, modeling, control engineering, chemical reaction engineering, nuclear engineering, biological engineering, construction specification, and operating instructions.

Chemical engineers design, construct and operate process plants (fractionating columns pictured).

Chemical engineers typically hold a degree in Chemical Engineering or Process Engineering. Practicing engineers may have professional certification and be accredited members of a professional body. Such bodies include the Institution of Chemical Engineers (IChemE) or the American Institute of Chemical Engineers (AIChE). In India the body is called as Indian Institute of Chemical Engineers (IIChE) which also conducts collaborative events with AIChE and ICheE. A degree in chemical engineering is directly linked with all of the other engineering disciplines, to various extents.

Etymology

A 1996 article cites James F. Donnelly for mentioning an 1839 reference to chemical engineering in relation to the production of sulfuric acid.[2] In the same paper, however, George E. Davis, an English consultant, was credited with having coined the term.[3] Davis also tried to found a Society of Chemical Engineering, but instead, it was named the Society of Chemical Industry (1881), with Davis as its first secretary.[4][5] The History of Science in United States: An Encyclopedia puts the use of the term around 1890.[6] "Chemical engineering", describing the use of mechanical equipment in the chemical industry, became common vocabulary in England after 1850.[7] By 1910, the profession, "chemical engineer," was already in common use in Britain and the United States.[8]

History

New concepts and innovations

 
Demonstration model of a direct-methanol fuel cell. The actual fuel cell stack is the layered cube shape in the center of the image.

In 1940s, it became clear that unit operations alone were insufficient in developing chemical reactors. While the predominance of unit operations in chemical engineering courses in Britain and the United States continued until the 1960s, transport phenomena started to experience greater focus.[9] Along with other novel concepts, such as process systems engineering (PSE), a "second paradigm" was defined.[10][11] Transport phenomena gave an analytical approach to chemical engineering[12] while PSE focused on its synthetic elements, such as control system and process design.[13] Developments in chemical engineering before and after World War II were mainly incited by the petrochemical industry;[14] however, advances in other fields were made as well. Advancements in biochemical engineering in the 1940s, for example, found application in the pharmaceutical industry, and allowed for the mass production of various antibiotics, including penicillin and streptomycin.[15] Meanwhile, progress in polymer science in the 1950s paved way for the "age of plastics".[16]

Safety and hazard developments

Concerns regarding the safety and environmental impact of large-scale chemical manufacturing facilities were also raised during this period. Silent Spring, published in 1962, alerted its readers to the harmful effects of DDT, a potent insecticide.[17] The 1974 Flixborough disaster in the United Kingdom resulted in 28 deaths, as well as damage to a chemical plant and three nearby villages.[18] The 1984 Bhopal disaster in India resulted in almost 4,000 deaths.[citation needed] These incidents, along with other incidents, affected the reputation of the trade as industrial safety and environmental protection were given more focus.[19] In response, the IChemE required safety to be part of every degree course that it accredited after 1982. By the 1970s, legislation and monitoring agencies were instituted in various countries, such as France, Germany, and the United States.[20]

Recent progress

Advancements in computer science found applications designing and managing plants, simplifying calculations and drawings that previously had to be done manually. The completion of the Human Genome Project is also seen as a major development, not only advancing chemical engineering but genetic engineering and genomics as well.[21] Chemical engineering principles were used to produce DNA sequences in large quantities.[22]

Concepts

Chemical engineering involves the application of several principles. Key concepts are presented below.

Plant design and construction

Chemical engineering design concerns the creation of plans, specifications, and economic analyses for pilot plants, new plants, or plant modifications. Design engineers often work in a consulting role, designing plants to meet clients' needs. Design is limited by several factors, including funding, government regulations, and safety standards. These constraints dictate a plant's choice of process, materials, and equipment.[23]

Plant construction is coordinated by project engineers and project managers,[24] depending on the size of the investment. A chemical engineer may do the job of project engineer full-time or part of the time, which requires additional training and job skills or act as a consultant to the project group. In the USA the education of chemical engineering graduates from the Baccalaureate programs accredited by ABET do not usually stress project engineering education, which can be obtained by specialized training, as electives, or from graduate programs. Project engineering jobs are some of the largest employers for chemical engineers.[25]

Process design and analysis

A unit operation is a physical step in an individual chemical engineering process. Unit operations (such as crystallization, filtration, drying and evaporation) are used to prepare reactants, purifying and separating its products, recycling unspent reactants, and controlling energy transfer in reactors.[26] On the other hand, a unit process is the chemical equivalent of a unit operation. Along with unit operations, unit processes constitute a process operation. Unit processes (such as nitration, hydrogenation, and oxidation involve the conversion of materials by biochemical, thermochemical and other means. Chemical engineers responsible for these are called process engineers.[27]

Process design requires the definition of equipment types and sizes as well as how they are connected and the materials of construction. Details are often printed on a Process Flow Diagram which is used to control the capacity and reliability of a new or existing chemical factory.

Education for chemical engineers in the first college degree 3 or 4 years of study stresses the principles and practices of process design. The same skills are used in existing chemical plants to evaluate the efficiency and make recommendations for improvements.

Transport phenomena

Modeling and analysis of transport phenomena is essential for many industrial applications. Transport phenomena involve fluid dynamics, heat transfer and mass transfer, which are governed mainly by momentum transfer, energy transfer and transport of chemical species, respectively. Models often involve separate considerations for macroscopic, microscopic and molecular level phenomena. Modeling of transport phenomena, therefore, requires an understanding of applied mathematics.[28]

Applications and practice

 
Chemical engineers use computers to control automated systems in plants.[29]

Chemical engineers "develop economic ways of using materials and energy".[30] Chemical engineers use chemistry and engineering to turn raw materials into usable products, such as medicine, petrochemicals, and plastics on a large-scale, industrial setting. They are also involved in waste management and research.[31][32] Both applied and research facets could make extensive use of computers.[29]

Chemical engineers may be involved in industry or university research where they are tasked with designing and performing experiments, by scaling up theoretical chemical reactions, to create better and safer methods for production, pollution control, and resource conservation. They may be involved in designing and constructing plants as a project engineer. Chemical engineers serving as project engineers use their knowledge in selecting optimal production methods and plant equipment to minimize costs and maximize safety and profitability. After plant construction, chemical engineering project managers may be involved in equipment upgrades, troubleshooting, and daily operations in either full-time or consulting roles. [33]

See also

Related topics

Related fields and concepts

Associations

References

  1. ^ Villanueva, Freda E. (19 November 2013). "There are about 80,000 chemicals in commercial use in the United States, and only about 2% of those have been assessed for their safety". Retrieved 26 December 2013.
  2. ^ Cohen 1996, p. 172.
  3. ^ Cohen 1996, p. 174.
  4. ^ Swindin, N. (1953). "George E. Davis memorial lecture". Transactions of the Institution of Chemical Engineers. 31.
  5. ^ Flavell-While, Claudia (2012). (PDF). The Chemical Engineer. 52-54. Archived from the original (PDF) on 28 October 2016. Retrieved 27 October 2016.
  6. ^ Reynolds 2001, p. 176.
  7. ^ Cohen 1996, p. 186.
  8. ^ Perkins 2003, p. 20.
  9. ^ Cohen 1996, p. 185.
  10. ^ Ogawa 2007, p. 2.
  11. ^ Perkins 2003, p. 29.
  12. ^ Perkins 2003, p. 30.
  13. ^ Perkins 2003, p. 31.
  14. ^ Reynolds 2001, p. 177.
  15. ^ Perkins 2003, pp. 32–33.
  16. ^ Kim 2002, p. 7S.
  17. ^ Dunn, Rob (May 31, 2012). "In retrospect: Silent Spring". Nature. 485 (7400): 578–579. Bibcode:2012Natur.485..578D. doi:10.1038/485578a. ISSN 0028-0836. S2CID 4429741.
  18. ^ Bennet, Simon (September 1, 1999). "Disasters as Heuristics? A Case Study". Australian Journal of Emergency Management. 14 (3): 32.
  19. ^ Kim 2002, p. 8S.
  20. ^ Perkins 2003, p. 35.
  21. ^ Kim 2002, p. 9S.
  22. ^ American Institute of Chemical Engineers 2003a.
  23. ^ Towler & Sinnott 2008, pp. 2–3.
  24. ^ Herbst, Andrew; Hans Verwijs (Oct. 19-22). "Project Engineering: Interdisciplinary Coordination and Overall Engineering Quality Control". Proc. of the Annual IAC conference of the American Society for Engineering Management 1 (ISBN 9781618393616): 15–21
  25. ^ "What Do Chemical Engineers Do?".
  26. ^ McCabe, Smith & Hariott 1993, p. 4.
  27. ^ Silla 2003, pp. 8–9.
  28. ^ Bird, Stewart & Lightfoot 2002, pp. 1–2.
  29. ^ a b Garner 2003, pp. 47–48.
  30. ^ American Institute of Chemical Engineers 2003, Article III.
  31. ^ Soriano-Molina, P.; García Sánchez, J.L.; Malato, S.; Plaza-Bolaños, P.; Agüera, A.; Sánchez Pérez, J.A. (2019-11-05). "On the design and operation of solar photo-Fenton open reactors for the removal of contaminants of emerging concern from WWTP effluents at neutral pH". Applied Catalysis B: Environmental. 256: 117801. doi:10.1016/j.apcatb.2019.117801. ISSN 0926-3373. S2CID 195424881.
  32. ^ Nieto-Sandoval, Julia; Gomez-Herrero, Esther; Munoz, Macarena; De Pedro, Zahara M.; Casas, Jose A. (2021-09-15). "Palladium-based Catalytic Membrane Reactor for the continuous flow hydrodechlorination of chlorinated micropollutants". Applied Catalysis B: Environmental. 293: 120235. doi:10.1016/j.apcatb.2021.120235. ISSN 0926-3373.
  33. ^ Garner 2003, pp. 49–50.

Bibliography

  • American Institute of Chemical Engineers (2003-01-17), , archived from the original on 2011-08-13, retrieved 2011-08-13.
  • Bird, R. Byron; Stewart, Warren E.; Lightfoot, Edwin N. (2002), Kulek, Petrina (ed.), Transport Phenomena (2nd ed.), United States: John Wiley & Sons, ISBN 0-471-41077-2, LCCN 2001023739, LCC QA929.B% 2001.
  • Carberry, James J. (2001-07-24), Chemical and Catalytic Reaction Engineering, McGraw-Hill Chemical Engineering Series, Canada: General Publishing Company, ISBN 0-486-41736-0, LCCN 2001017315, LCC TP155.7.C37 2001.
  • Cohen, Clive (June 1996), (PDF), Br. J. Hist. Sci., Cambridge University Press, 29 (2): 171–194, doi:10.1017/S000708740003421X, JSTOR 4027832, S2CID 145005140, archived from the original (PDF) on 2012-06-01.
  • , Rice University, archived from the original on 2010-07-25, retrieved 2011-08-07.
  • Garner, Geraldine O. (2003), Careers in engineering, VGM Professional Career Series (2nd ed.), United States: McGraw-Hill, ISBN 0-07-139041-3, LCCN 2002027208, LCC TA157.G3267 2002.
  • Kim, Irene (January 2002), (PDF), Chemical Engineering Progress, Philadelphia: American Institute of Chemical Engineers, 98 (1), ISSN 0360-7275, archived from the original (PDF) on 2004-08-21.
  • McCabe, Warren L.; Smith, Julian C.; Hariott, Peter (1993), Clark, B.J.; Castellano, Eleanor (eds.), Unit Operations of Chemical Engineering, McGraw-Hill Chemical Engineering Series (5th ed.), Singapore: McGraw-Hill, ISBN 0-07-044844-2, LCCN 92036218, LCC TP155.7.M393 1993.
  • Ogawa, Kōhei (2007), "Chapter 1: Information Entropy", Chemical engineering: a new perspective (1st ed.), Netherlands: Elsevier, ISBN 978-0-444-53096-7.
  • Perkins, J.D. (2003), "Chapter 2: Chemical Engineering — the First 100 Years", in Darton, R.C.; Prince, R.G.H.; Wood, D.G. (eds.), Chemical Engineering: Visions of the World (1st ed.), Netherlands: Elsevier Science, ISBN 0-444-51309-4.
  • Reynolds, Terry S. (2001), "Engineering, Chemical", in Rothenberg, Marc (ed.), History of Science in United States: An Encyclopedia, New York City: Garland Publishing, ISBN 0-8153-0762-4, LCCN 99043757, LCC Q127.U6 H57 2000.
  • Silla, Harry (2003), Chemical Process Engineering: Design and Economics, New York City: Marcel Dekker, ISBN 0-8247-4274-5.
  • American Institute of Chemical Engineers (2003a), (PDF), Chemical Engineering Progress, Philadelphia, 99 (1), ISSN 0360-7275, archived from the original (PDF) on 2004-08-21.
  • Towler, Gavin; Sinnott, Ray (2008), Chemical engineering design: principles, practice and economics of plant and process design, United States: Elsevier, ISBN 978-0-7506-8423-1.

chemical, engineering, engineering, field, which, deals, with, study, operation, design, chemical, plants, well, methods, improving, production, chemical, engineers, develop, economical, commercial, processes, convert, materials, into, useful, products, uses, . Chemical engineering is an engineering field which deals with the study of operation and design of chemical plants as well as methods of improving production Chemical engineers develop economical commercial processes to convert raw materials into useful products 1 Chemical engineering uses principles of chemistry physics mathematics biology and economics to efficiently use produce design transport and transform energy and materials The work of chemical engineers can range from the utilization of nanotechnology and nanomaterials in the laboratory to large scale industrial processes that convert chemicals raw materials living cells microorganisms and energy into useful forms and products Chemical engineers are involved in many aspects of plant design and operation including safety and hazard assessments process design and analysis modeling control engineering chemical reaction engineering nuclear engineering biological engineering construction specification and operating instructions Chemical engineers design construct and operate process plants fractionating columns pictured Chemical engineers typically hold a degree in Chemical Engineering or Process Engineering Practicing engineers may have professional certification and be accredited members of a professional body Such bodies include the Institution of Chemical Engineers IChemE or the American Institute of Chemical Engineers AIChE In India the body is called as Indian Institute of Chemical Engineers IIChE which also conducts collaborative events with AIChE and ICheE A degree in chemical engineering is directly linked with all of the other engineering disciplines to various extents Contents 1 Etymology 2 History 2 1 New concepts and innovations 2 2 Safety and hazard developments 2 3 Recent progress 3 Concepts 3 1 Plant design and construction 3 2 Process design and analysis 3 3 Transport phenomena 4 Applications and practice 5 See also 5 1 Related topics 5 2 Related fields and concepts 5 3 Associations 6 References 7 BibliographyEtymology Edit George E Davis A 1996 article cites James F Donnelly for mentioning an 1839 reference to chemical engineering in relation to the production of sulfuric acid 2 In the same paper however George E Davis an English consultant was credited with having coined the term 3 Davis also tried to found a Society of Chemical Engineering but instead it was named the Society of Chemical Industry 1881 with Davis as its first secretary 4 5 The History of Science in United States An Encyclopedia puts the use of the term around 1890 6 Chemical engineering describing the use of mechanical equipment in the chemical industry became common vocabulary in England after 1850 7 By 1910 the profession chemical engineer was already in common use in Britain and the United States 8 History EditMain article History of chemical engineering New concepts and innovations Edit Demonstration model of a direct methanol fuel cell The actual fuel cell stack is the layered cube shape in the center of the image In 1940s it became clear that unit operations alone were insufficient in developing chemical reactors While the predominance of unit operations in chemical engineering courses in Britain and the United States continued until the 1960s transport phenomena started to experience greater focus 9 Along with other novel concepts such as process systems engineering PSE a second paradigm was defined 10 11 Transport phenomena gave an analytical approach to chemical engineering 12 while PSE focused on its synthetic elements such as control system and process design 13 Developments in chemical engineering before and after World War II were mainly incited by the petrochemical industry 14 however advances in other fields were made as well Advancements in biochemical engineering in the 1940s for example found application in the pharmaceutical industry and allowed for the mass production of various antibiotics including penicillin and streptomycin 15 Meanwhile progress in polymer science in the 1950s paved way for the age of plastics 16 Safety and hazard developments Edit Concerns regarding the safety and environmental impact of large scale chemical manufacturing facilities were also raised during this period Silent Spring published in 1962 alerted its readers to the harmful effects of DDT a potent insecticide 17 The 1974 Flixborough disaster in the United Kingdom resulted in 28 deaths as well as damage to a chemical plant and three nearby villages 18 The 1984 Bhopal disaster in India resulted in almost 4 000 deaths citation needed These incidents along with other incidents affected the reputation of the trade as industrial safety and environmental protection were given more focus 19 In response the IChemE required safety to be part of every degree course that it accredited after 1982 By the 1970s legislation and monitoring agencies were instituted in various countries such as France Germany and the United States 20 Recent progress Edit Advancements in computer science found applications designing and managing plants simplifying calculations and drawings that previously had to be done manually The completion of the Human Genome Project is also seen as a major development not only advancing chemical engineering but genetic engineering and genomics as well 21 Chemical engineering principles were used to produce DNA sequences in large quantities 22 Concepts EditChemical engineering involves the application of several principles Key concepts are presented below Plant design and construction Edit Chemical engineering design concerns the creation of plans specifications and economic analyses for pilot plants new plants or plant modifications Design engineers often work in a consulting role designing plants to meet clients needs Design is limited by several factors including funding government regulations and safety standards These constraints dictate a plant s choice of process materials and equipment 23 Plant construction is coordinated by project engineers and project managers 24 depending on the size of the investment A chemical engineer may do the job of project engineer full time or part of the time which requires additional training and job skills or act as a consultant to the project group In the USA the education of chemical engineering graduates from the Baccalaureate programs accredited by ABET do not usually stress project engineering education which can be obtained by specialized training as electives or from graduate programs Project engineering jobs are some of the largest employers for chemical engineers 25 Process design and analysis Edit Main article Process design A unit operation is a physical step in an individual chemical engineering process Unit operations such as crystallization filtration drying and evaporation are used to prepare reactants purifying and separating its products recycling unspent reactants and controlling energy transfer in reactors 26 On the other hand a unit process is the chemical equivalent of a unit operation Along with unit operations unit processes constitute a process operation Unit processes such as nitration hydrogenation and oxidation involve the conversion of materials by biochemical thermochemical and other means Chemical engineers responsible for these are called process engineers 27 Process design requires the definition of equipment types and sizes as well as how they are connected and the materials of construction Details are often printed on a Process Flow Diagram which is used to control the capacity and reliability of a new or existing chemical factory Education for chemical engineers in the first college degree 3 or 4 years of study stresses the principles and practices of process design The same skills are used in existing chemical plants to evaluate the efficiency and make recommendations for improvements Transport phenomena Edit Main article Transport phenomena Modeling and analysis of transport phenomena is essential for many industrial applications Transport phenomena involve fluid dynamics heat transfer and mass transfer which are governed mainly by momentum transfer energy transfer and transport of chemical species respectively Models often involve separate considerations for macroscopic microscopic and molecular level phenomena Modeling of transport phenomena therefore requires an understanding of applied mathematics 28 Applications and practice Edit Chemical engineers use computers to control automated systems in plants 29 Chemical engineers develop economic ways of using materials and energy 30 Chemical engineers use chemistry and engineering to turn raw materials into usable products such as medicine petrochemicals and plastics on a large scale industrial setting They are also involved in waste management and research 31 32 Both applied and research facets could make extensive use of computers 29 Chemical engineers may be involved in industry or university research where they are tasked with designing and performing experiments by scaling up theoretical chemical reactions to create better and safer methods for production pollution control and resource conservation They may be involved in designing and constructing plants as a project engineer Chemical engineers serving as project engineers use their knowledge in selecting optimal production methods and plant equipment to minimize costs and maximize safety and profitability After plant construction chemical engineering project managers may be involved in equipment upgrades troubleshooting and daily operations in either full time or consulting roles 33 See also Edit Chemistry portal Engineering portalRelated topics Edit Education for Chemical Engineers English Engineering units List of chemical engineering societies List of chemical engineers List of chemical process simulators Outline of chemical engineering Related fields and concepts Edit Biochemical engineering Bioinformatics Biological engineering Biomedical engineering Biomolecular engineering Bioprocess engineering Biotechnology Biotechnology engineering Catalysts Ceramics Chemical process modeling Chemical reactor Chemical technologist Chemical weapons Cheminformatics Computational fluid dynamics Corrosion engineering Cost estimation Earthquake engineering Electrochemistry Electrochemical engineering Environmental engineering Fischer Tropsch synthesis Fluid dynamics Food engineering Fuel cell Gasification Heat transfer Industrial catalysts Industrial chemistry Industrial gas Mass transfer Materials science Metallurgy Microfluidics Mineral processing Molecular engineering Nanotechnology Natural environment Natural gas processing Nuclear reprocessing Oil exploration Oil refinery Paper engineering Petroleum engineering Pharmaceutical engineering Plastics engineering Polymers Process control Process design Process development Process engineering Process miniaturization Safety engineering Semiconductor device fabrication Separation processes see also separation of mixture Crystallization processes Distillation processes Membrane processes Syngas production Textile engineering Thermodynamics Transport phenomena Unit operations Water technology Associations Edit American Institute of Chemical Engineers Chemical Institute of Canada European Federation of Chemical Engineering Indian Institute of Chemical Engineers Institution of Chemical Engineers National Organization for the Professional Advancement of Black Chemists and Chemical EngineersReferences Edit Villanueva Freda E 19 November 2013 There are about 80 000 chemicals in commercial use in the United States and only about 2 of those have been assessed for their safety Retrieved 26 December 2013 Cohen 1996 p 172 Cohen 1996 p 174 Swindin N 1953 George E Davis memorial lecture Transactions of the Institution of Chemical Engineers 31 Flavell While Claudia 2012 Chemical Engineers Who Changed the World Meet the Daddy PDF The Chemical Engineer 52 54 Archived from the original PDF on 28 October 2016 Retrieved 27 October 2016 Reynolds 2001 p 176 Cohen 1996 p 186 Perkins 2003 p 20 Cohen 1996 p 185 Ogawa 2007 p 2 Perkins 2003 p 29 Perkins 2003 p 30 Perkins 2003 p 31 Reynolds 2001 p 177 Perkins 2003 pp 32 33 Kim 2002 p 7S Dunn Rob May 31 2012 In retrospect Silent Spring Nature 485 7400 578 579 Bibcode 2012Natur 485 578D doi 10 1038 485578a ISSN 0028 0836 S2CID 4429741 Bennet Simon September 1 1999 Disasters as Heuristics A Case Study Australian Journal of Emergency Management 14 3 32 Kim 2002 p 8S Perkins 2003 p 35 Kim 2002 p 9S American Institute of Chemical Engineers 2003a Towler amp Sinnott 2008 pp 2 3 Herbst Andrew Hans Verwijs Oct 19 22 Project Engineering Interdisciplinary Coordination and Overall Engineering Quality Control Proc of the Annual IAC conference of the American Society for Engineering Management 1 ISBN 9781618393616 15 21 What Do Chemical Engineers Do McCabe Smith amp Hariott 1993 p 4 Silla 2003 pp 8 9 Bird Stewart amp Lightfoot 2002 pp 1 2 a b Garner 2003 pp 47 48 American Institute of Chemical Engineers 2003 Article III Soriano Molina P Garcia Sanchez J L Malato S Plaza Bolanos P Aguera A Sanchez Perez J A 2019 11 05 On the design and operation of solar photo Fenton open reactors for the removal of contaminants of emerging concern from WWTP effluents at neutral pH Applied Catalysis B Environmental 256 117801 doi 10 1016 j apcatb 2019 117801 ISSN 0926 3373 S2CID 195424881 Nieto Sandoval Julia Gomez Herrero Esther Munoz Macarena De Pedro Zahara M Casas Jose A 2021 09 15 Palladium based Catalytic Membrane Reactor for the continuous flow hydrodechlorination of chlorinated micropollutants Applied Catalysis B Environmental 293 120235 doi 10 1016 j apcatb 2021 120235 ISSN 0926 3373 Garner 2003 pp 49 50 Bibliography EditAmerican Institute of Chemical Engineers 2003 01 17 AIChE Constitution archived from the original on 2011 08 13 retrieved 2011 08 13 Bird R Byron Stewart Warren E Lightfoot Edwin N 2002 Kulek Petrina ed Transport Phenomena 2nd ed United States John Wiley amp Sons ISBN 0 471 41077 2 LCCN 2001023739 LCC QA929 B 2001 Carberry James J 2001 07 24 Chemical and Catalytic Reaction Engineering McGraw Hill Chemical Engineering Series Canada General Publishing Company ISBN 0 486 41736 0 LCCN 2001017315 LCC TP155 7 C37 2001 Cohen Clive June 1996 The Early History of Chemical Engineering A Reassessment PDF Br J Hist Sci Cambridge University Press 29 2 171 194 doi 10 1017 S000708740003421X JSTOR 4027832 S2CID 145005140 archived from the original PDF on 2012 06 01 Engineering the Future of Biology and Biotechnology Rice University archived from the original on 2010 07 25 retrieved 2011 08 07 Garner Geraldine O 2003 Careers in engineering VGM Professional Career Series 2nd ed United States McGraw Hill ISBN 0 07 139041 3 LCCN 2002027208 LCC TA157 G3267 2002 Kim Irene January 2002 Chemical engineering A rich and diverse history PDF Chemical Engineering Progress Philadelphia American Institute of Chemical Engineers 98 1 ISSN 0360 7275 archived from the original PDF on 2004 08 21 McCabe Warren L Smith Julian C Hariott Peter 1993 Clark B J Castellano Eleanor eds Unit Operations of Chemical Engineering McGraw Hill Chemical Engineering Series 5th ed Singapore McGraw Hill ISBN 0 07 044844 2 LCCN 92036218 LCC TP155 7 M393 1993 Ogawa Kōhei 2007 Chapter 1 Information Entropy Chemical engineering a new perspective 1st ed Netherlands Elsevier ISBN 978 0 444 53096 7 Perkins J D 2003 Chapter 2 Chemical Engineering the First 100 Years in Darton R C Prince R G H Wood D G eds Chemical Engineering Visions of the World 1st ed Netherlands Elsevier Science ISBN 0 444 51309 4 Reynolds Terry S 2001 Engineering Chemical in Rothenberg Marc ed History of Science in United States An Encyclopedia New York City Garland Publishing ISBN 0 8153 0762 4 LCCN 99043757 LCC Q127 U6 H57 2000 Silla Harry 2003 Chemical Process Engineering Design and Economics New York City Marcel Dekker ISBN 0 8247 4274 5 American Institute of Chemical Engineers 2003a Speeding up the human genome project PDF Chemical Engineering Progress Philadelphia 99 1 ISSN 0360 7275 archived from the original PDF on 2004 08 21 Towler Gavin Sinnott Ray 2008 Chemical engineering design principles practice and economics of plant and process design United States Elsevier ISBN 978 0 7506 8423 1 Retrieved from https en wikipedia org w index php title Chemical engineering amp oldid 1137074872, wikipedia, wiki, book, books, library,

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