
Process Engineering and Industrial Management
Beschreibung
Weitere Details
Weitere Ausgaben
Inhalt
- Cover
- Process Engineering and Industrial Management
- Title Page
- Copyright Page
- Table of Content
- Foreword
- Foreword
- Introduction
- Acknowledgments
- PART 1: THE COMPANY AS OF TODAY
- Chapter 1 The Industrial Company: its Purpose, History,Context, and its Tomorrow?
- 1.1. Purpose, structure, typology
- 1.1.1. The four pillars of the company
- 1.1.2. Typology of enterprises
- 1.2. A centennial history
- 1.2.1. The Europeanization of the planet
- 1.2.2. Evolution of the company over time
- 1.2.3. The Industrial Revolution in England
- 1.2.4. Taylorism, Fordism, Fayolism
- 1.2.5. The advent of research
- 1.2.6. The individual in the company
- 1.3. New challenges imposed by globalization and sustainable development
- 1.3.1. Globalization
- 1.3.2. Sustainable development
- 1.4. Our planet
- 1.4.1. Balances and biogeochemical cycles
- 1.4.2. Global warming - greenhouse effect
- 1.4.3. Ecology and ecosystems
- 1.4.4. Oceans
- 1.4.5. Demography
- 1.4.6. Energy
- 1.4.7. Water
- 1.4.8. What will be the future for French agriculture?
- 1.5. The company of tomorrow. Some thoughts
- 1.5.1. Emerging countries
- 1.5.2. What are the values for tomorrow?
- 1.5.3. A new company for a new society
- 1.6. Bibliography
- Chapter 2 The Two Modes of Operation of theCompany-Operational and Entrepreneurial
- 2.1. Operational mode
- 2.1.1. Management - company structure organization - organization chart
- 2.1.2. Corporate governance
- 2.2. Entrepreneurial mode, project management - the operational/entrepreneurial conflict
- 2.3. Bibliography
- Chapter 3 The Strategic Management of the Company:Industrial Aspects
- 3.1. Systemic view of the industrial company
- 3.2. Strategy and strategic analysis of the company
- 3.2.1. Strategic analysis tools
- 3.3. Development of the strategic plan: its deliverables
- 3.4. Technological choices and vocations
- 3.5. Bibliography
- PART 2: PROCESS DEVELOPMENT AND INDUSTRIALIZATION
- Chapter 4 Chemical Engineering and Process Engineering
- 4.1. History of chemical engineering and process engineering
- 4.1.1. Chemical engineering
- 4.2. Process engineering
- 4.2.1. Objectives of process engineering
- 4.2.2. The scientific bases and basic tools of process engineering
- 4.3. The chemical reactor
- 4.3.1. Classification of reactors based on the method of feeding
- 4.3.2. Classification according to the phases present
- 4.4. Bioreactors
- 4.4.1. The enzymatic bioreactions
- 4.4.2. Bioreactions using microorganisms
- 4.5. Transportation and transfers
- 4.5.1. Transportation and handling of fluids
- 4.5.2. Heat transfer
- power, cooling, and heat generation
- 4.5.3. Transfer between two immiscible liquids
- 4.6. Unit operations
- 4.6.1. Crystallization in solution
- 4.6.2. Drying and gas/solid contact
- 4.6.3. Distillation
- 4.6.4. Other operations
- 4.6.5. An example of development: membrane technologies
- 4.7. Separation processes: process engineering and the new challenges for life sciences
- 4.8. Acknowledgments
- 4.9. Bibliography
- Chapter 5 Foundations of Process Industrialization
- 5.1. Introduction
- 5.2. The various stages of process development: from research to the foundations of industrialization
- 5.3. The pre-study (or pre-development process)
- 5.3.1. Experimental tools for acquiring kinetic data
- 5.4. Development stage of the process
- 5.4.1. Introduction
- 5.4.2. Data acquisition process
- 5.4.3. Process schemes, simulation, and optimization of the process as a whole
- 5.4.4. End of the development process, the foundations of industrialization
- 5.5. General conclusion
- 5.6. Bibliography
- 5.7. List of acronyms
- Chapter 6 The Industrialization Process: Preliminary Projects
- 6.1. Steps of industrialization
- 6.2. Bases of industrialization or process development
- 6.3. Feasibility study
- 6.3.1. Design of the industrial process - preliminary engineering - preliminary projects
- 6.4. Cost and typical duration of industrialization studies
- 6.5. Content of an industrialization project - conceptual engineering
- 6.6. Typical organization of an industrialization project
- 6.7. Business/industrial interface
- 6.7.1. The questions posed by the business to the industrial function
- 6.7.2. The questions posed by the industrial function to the business
- 6.8. Typology of industrialization projects
- 6.8.1. Parallel projects
- 6.8.2. Small scale projects
- 6.9. The industrial preliminary projects
- 6.9.1. Origin of industrial preliminary projects
- 6.9.2. Perception of a preliminary project by the various players in the company
- 6.10. Selection of production sites
- 6.11. The consideration of sustainability in the preliminary projects
- 6.11.1. HHS indicator
- 6.11.2. MIPS indicator
- 6.11.3. SEP indicator
- 6.11.4. SPI indicator
- 6.11.5. SETAC indicator
- 6.11.6. EPS indicator
- 6.12. Tips for conducting preliminary projects
- 6.12.1. Capacities of the installation
- 6.12.2. Description of the process and essential characteristics
- 6.12.3. Risk analysis
- 6.12.4. Regulatory risks
- 6.13. Modification of the project scope
- 6.14. Host site
- 6.14.1. Essential characteristics of an industrial site
- 6.14.2. Impact of a new process unit on an existing site
- 6.15. Reporting
- 6.15.1. Technical checklist
- 6.15.2. Executive summary
- 6.16. Bibliography
- Chapter 7 Lifecycle Analysis and Eco-Design:Innovation Tools for SustainableIndustrial Chemistry
- 7.1. Contextual elements
- 7.1.1. The lessons of Easter Island
- 7.1.2. On the carrying capacity
- 7.2. The chemical industry mobilized against upheavals
- 7.2.1. Global turmoils
- 7.2.2. New constraints of industrial chemistry
- 7.3. The lifecycle analysis, an eco-design tool - definitions and concepts
- 7.3.1. Eco-design: a few definitions
- 7.3.2. The lifecycle assessment: history
- 7.3.3. Lifecycle assessment: concept and definitions
- 7.3.4. Defining the objectives and scope of the lifecycle assessment
- 7.3.5. Lifecycle inventory analysis
- 7.3.6. Assessing the impact of the lifecycle
- 7.3.7. Interpretation of the lifecycle
- 7.3.8. LCA software
- 7.4. Innovation through eco-design
- 7.4.1. Example: LCA of supermarket shopping bags
- 7.4.2. Example of eco-design from a manufacturer of office furniture
- 7.4.3. Example of eco-design from a manufacturer of detergents
- 7.4.4. The integration process of eco-design in the company
- 7.5. Limits of the tool
- 7.5.1. On the importance of hypotheses
- 7.5.2. On the relevance of inventory data
- 7.5.3. On the influence of allocation rules
- 7.5.4. On the choice of recycling
- 7.6. Conclusion: the future of eco-design
- 7.7. Bibliography
- Chapter 8 Methods for Design and Evaluation of Sustainable Processes and Industrial Systems
- 8.1. Introduction
- 8.1.1. Concept of sustainable development in process engineering
- 8.1.2. Indicators, indices, and metrics of sustainable development in process engineering
- 8.2. AIChE and IChemE metrics
- 8.2.1. AIChE metrics
- 8.2.2. IChemE metrics
- 8.2.3. Using sustainable development metrics
- 8.3. Potential environmental impact index (waste reduction algorithm)
- 8.3.1. Theory of the potential environmental impact
- 8.3.2. Categories of environmental impacts
- 8.3.3. Application of the WAR algorithm
- 8.4. SPI (Sustainable Process Index)
- 8.5. Exergy as a thermodynamic base for a sustainable development metrics
- 8.6. Indicators resulting from a lifecycle assessment
- 8.6.1. Main methods of impact categories
- 8.6.2. Choice of the method of impact categories
- 8.6.3. Toward a sustainable lifecycle assessment
- 8.7. Process design methods and sustainable systems
- 8.8. Conclusion
- 8.9. Bibliography
- Chapter 9 Project Management Techniques:Engineering
- 9.1. Engineer and engineering
- 9.1.1. The engineer
- 9.1.2. Engineering
- 9.2. Project organization
- 9.2.1. Project concept
- 9.2.2. Organization of an engineering project - client / project manager interface
- 9.3. Management tools for industrial projects
- 9.3.1. WBS (work breakdown structure)
- 9.3.2. Value analysis (VA) [AFN 97, DAL 03, LED 91]
- 9.3.3. Functional analysis (FA)
- 9.3.4. The project scope (PS)
- 9.3.5. Planning
- 9.4. The engineering project: from Process Engineering to the start of the facility
- 9.4.1. Process Engineering
- 9.4.2. Construction management - monitoring the progress of the project - cost and time
- 9.4.3. Management of change orders
- 9.5. The amount of investment
- 9.6. Profitability on investment [DOR 81, MIK 10]
- 9.6.1. Principle of calculation of cash flows
- 9.6.2. Depreciation and amortization
- 9.6.3. Concept of discount [MAR 79]
- 9.6.4. Concept of internal rate of return (IRR)
- 9.6.5. Rapid methods: the calculations of the grocer (examples)
- 9.7. Conclusion
- 9.8. Bibliography
- PART 3: THE NECESSARY ADAPTATION OF THE COMPANY FOR THE FUTURE
- Chapter 10 Japanese Methods
- 10.1. Japan from the Meiji era to now. The origin of the Japanese miracle
- 10.1.1. A bit of geography
- 10.1.2. A bit of history
- 10.2. W.E. Deming and Japan
- 10.2.1. A brief account of the Deming system
- 10.2.2. The Japanese system from SQC to TQM
- 10.3. The Toyoda family - Taiichi Ohno - The Toyota Empire
- 10.3.1. Taiichi Ohno (1912-1990), the man of JIT (just in time)
- 10.4. Toyotism
- 10.4.1. General philosophy - principles of management
- 10.4.2. Problem solving
- 10.4.3. The KJ method or affinity diagram
- 10.4.4. Statistical process control
- 10.4.5. Improvements at the workplace
- 10.4.6. Human aspects
- 10.5. The American response
- 10.6. Bibliography
- Chapter 11 Innovation in Chemical Engineering Industries
- 11.1. Definition of innovation
- 11.2. Field of innovation in the chemical engineering industry
- 11.3. The need for innovation
- 11.4. Methods for innovation in chemical engineering industry
- 11.4.1. Method of "Creativity Under Constraints"
- 11.4.2. Approach by the TRIZ method
- 11.4.3. Management of the innovation process
- 11.4.4. The company organized to innovate
- 11.4.5. Technical choices
- 11.5. Conclusion
- 11.6. Bibliography
- Chapter 12 The Place of Intensified Processesin the Plant of the Future
- 12.1. Process intensification in the context of sustainable development
- 12.2. Main principles of intensification
- 12.2.1. Mass, heat and mixing limitations
- 12.2.2. Thermodynamic limitations
- 12.2.3. Limitation by energy input
- 12.2.4. Kinetic limitations
- 12.3. Connection between intensification and miniaturization
- 12.4. Applications
- 12.4.1. Intensification for safer processes
- 12.4.2. Intensified processes for energy
- 12.5. New economic models implied by process intensification
- 12.5.1. Assessment of operation cost reduction
- 12.5.2. Assessment of investment costs of intensified processes
- 12.5.3. Technico-economic advantages of the modular plant
- 12.6. Conclusion
- 12.7. Bibliography
- Chapter 13 Change Management
- 13.1. The company: adapt or die
- 13.2. The company: processes and know-how
- 13.2.1. The company, a multitude of processes (processes, methods, procedures)
- 13.2.2. The expertise of the company - core competencies
- 13.3. Human aspects of change
- 13.3.1. Creating a feeling of trust
- 13.3.2. Visual management
- 13.3.3. Brainstorming
- 13.4. Basic tools for change management
- 13.4.1. Systems analysis
- 13.4.2. Continuous improvement, the PDCA, the Deming wheel
- 13.4.3. Pareto analysis
- 13.4.4. External audits
- 13.5. Changes and improvement of the industrial facility
- 13.5.1. Continuous improvement and process control
- 13.5.2. Looking for a breakthrough
- 13.5.3. Corporate risk
- 13.6. Re-engineering, the American way
- 13.7. Conclusion
- 13.8. Bibliography
- Chapter 14 The Plant of the Future
- 14.1. Developed countries - companies - industrial firms
- 14.1.1. France - heat wave of 2003
- 14.1.2. The ISO 26 000 standard
- 14.2. Typology of means of production
- 14.2.1. Industrial facilities reviewed in the light of the
- 14.3. Product and plant design
- 14.3.1. Products
- 14.3.2. Processes
- 14.3.3. The plant of the future
- 14.4. Management of production and operations (MPO)
- 14.4.1. Essential tasks
- 14.4.2. Tools of the MPO
- 14.5. The IT revolution - IT management
- 14.6. And the individual?
- 14.7. Conclusion
- 14.8. Bibliography
- List of Authors
- Index
Introduction
Process Engineering and Industrial Management: Industrial Projects and Management of Change 1
This book is a collection of the experiences of professionals from the academic and industrial worlds.
The book aims to explain what a company is, demonstrate its mechanisms and organization, and explain the processes that are at the root of its evolution. Its purpose is to depict the importance of process engineering in companies, whose mission is the transformation of matter and energy, and to define its contribution to the evolution of society.
This book is intended for students, to assist them in their research projects. By providing the basis for process development in the laboratory, and engineering techniques, it will serve professionals who design production tools, make them work, and improve them.
Lifecycle analysis, process assessment methods, progress techniques and the basics of risk management complement the range of essential tools for the engineer, who was considered to be the honorable man of the 19th Century, and is anxious to assert his role in society.
This book is not meant to be a project management guide or a book dedicated to business strategy for students in business schools.
It is above all a general book, a book of reflection in which the reader can benefit from the basic knowledge scattered across multiple works.
It rests on two essential pillars: process engineering and the company.
The concept of process engineering followed the concept of chemical engineering which originated in the United States during the early 20th Century when the oil industry was in the development stage. It accompanied the extraordinary growth of the chemical industry, in particular, during and after World War II. This concept, developed by the late Jacques Villermaux, Professor at the ENSIC (National School of Chemical Industries, Nancy, France), was based on the fact that chemical engineering techniques can be applied to all process industries, that is to say all industries that can transform matter and energy; pharmaceuticals, biotechnology, paper, cement, the environment, energy, metallurgy, cosmetics industries, and so on.
It received its consecration at the first congress held in Nancy, France in 1987. The GFGP (French Group of Process Engineering) was founded in 1988, and in 1997 became the SFGP (French Process Engineering Society), a learned society whose mission is to promote process engineering.
Manufacturing industry deals with the production of “discrete” goods with defined outlines (automobiles, electronic appliances, construction industry, etc.). Many chemical products of all kind are used in the processes of this industrial sector.
A European car uses 130-190 kg of plastics, silicones, paints (5 kg), oils (4 kg), and glass (90-140 kg).
Process and manufacturing industries have much in common whether it is management, strategic approach, how projects are led, concept of sustainable development, risk management, and so on.
The industrial company, as we presently know it, was shaped during the 18th Century. As early as 1712, blacksmith Thomas Newcomen’s atmospheric steam-engine enabled the use of mines by pumping out water that flooded them frequently. During the 19th Century, the Industrial Revolution expanded rapidly in Britain due to the industrial use of steam.
France, Germany, and the United States followed suit from the mid-19th Century.
Players in the Industrial Revolution raised their capital to move from inventions toward innovations, of which the railways are perhaps the best illustration. They invested by taking risks to create the most diverse machines which enabled them to create wealth. These enormous changes wreaked total havoc on predominantly rural societies as well as on the environment. In Britain, the first industrialized country, it was not until the late 19th Century that the average individual started enjoying the benefits of industrialization.
Extraordinary characters who were active between the 19th and 20th Centuries, such as Edison, Ford, Fayol, Taylor, to name but a few, invented the basics of company management which are still in use today.
The company that we are focusing on is essentially the industrial company which can be distinguished from service companies by the fact they use an industrial tool. That distinguishes them from service companies.
To take an example: an industrial company will use its know-how in process engineering to transform fossil resources and biomass into all sorts of chemicals, pharmaceuticals, transportation means, power generators, and so on, to offer society an increasing number of goods and services that are essential for human well-being.
The company today is still a source of wealth and well-being but may also be a source of harm to both humans and the environment. The company must take itself to task.
It is faced with a situation that is unprecedented in the history of mankind, and subjected to considerable changes. The company, through its innovations, causes societal change at a rate never seen before.
Let us cite some of the most critical challenges faced by our societies:
– the depletion of raw fossil materials with increasing costs due to their location in inhospitable areas or politically unstable countries: oil, copper, lithium, rare earth minerals, and so on;
– developed countries had become accustomed to abundant energy at a low price, which in addition to comfort, which gave us a sense of unprecedented freedom where mobility is the most visible consequence. Those days are gone!
– water scarcity. Water is life! A billion people do not have a sufficient quantity and quality of water. This water imbalance has led to water borne diseases especially in young children, and this may become a source of conflict if planned efforts are not implemented worldwide! 500 million people live in the Brahmaputra basin. Tibet is the water tower of Asia! The White Nile and Blue Nile pass through 10 countries! The Turkish project, called Anatolia of the South-East, includes 22 dams; giving Turkey control of the Tigris and the Euphrates!
– global warming is subject to controversy, but its effects are already manifesting themselves! Examples of global warming include melting glaciers, melting ice packs, vegetation change, rising sea levels, and so on;
– population growth is putting an increasingly strong pressure on the environment and is accentuating a significant discrepancy in wealth between countries. The aging of the population in some of the developed countries such as Japan, Germany, and Italy is another source of imbalance whose effects are already being felt.
The current economic crisis which originated with the bankruptcy of Lehman Brothers in September 2008 took the world by surprise. It highlighted the complexity and opacity of the banking systems.
Presently, trust has not been restored. The industrialized world hopes that only growth can create wealth and jobs. This requires consumption leading to a loss of raw materials, and increased adverse human impact on the environment. Has not the world returned to a paradoxical, even inconsistent, economic and industrial process?
Globalization has jostled the balance arising from the Europeanization of the world following the conquests of the Portuguese in the 15th and 16th Centuries which was then followed by Spanish, British, French, and German imperialism. Currently, China has emerged as the banker of the United States and the workshop of the world. What a change!
The company, faced with increasingly demanding customers in a world under media scrutiny, where everything goes faster and where competition, especially under the impact of emerging countries, is intensifying, should review its strategy in a timely manner. This strategy can be simply defined by answering the following questions:
– in which markets should we remain, which should we expand, or abandon?
– which technologies should be used, which means of production and distribution should be implemented?
Answers to these questions result in a strategic plan for the company. This plan underpins a portfolio of research projects, investments, and disinvestments of structural changes.
Its implementation requires knowledge of company operations, project management, and the industrialization process. These areas implement process engineering and the engineering of which it is a component.
The company must ensure the smooth running of operations that frees up the profit essential to its survival, and also manage the change resulting from its strategic vision.
Change management is implementing processes that rely on hard techniques and the most advanced social and human sciences; part of the book is devoted to this.
The societies of industrialized countries are based on science and technology.
The IT revolution is not over; the petaflops computer has arrived! Along with a society based on IT, a new forward-looking concept can now be added: a society based on knowledge.
The employee, to face this changing world, will be forced to undergo training throughout his lifetime.
Knowledge management has been made necessary because of the abundance and fragmentation of knowledge generated by the increasing complexity, the proliferation of technology, and by the mobility of required or subjected individuals.
The concept of sustainable development is not the latest media concept in fashion. The company is aware that our present behavior will affect the lives of future generations.
The...
Systemvoraussetzungen
Dateiformat: PDF
Kopierschutz: Adobe-DRM (Digital Rights Management)
Systemvoraussetzungen:
- Computer (Windows; MacOS X; Linux): Installieren Sie bereits vor dem Download die kostenlose Software Adobe Digital Editions (siehe E-Book Hilfe).
- Tablet/Smartphone (Android; iOS): Installieren Sie bereits vor dem Download die kostenlose App Adobe Digital Editions oder die App PocketBook (siehe E-Book Hilfe).
- E-Book-Reader: Bookeen, Kobo, Pocketbook, Sony, Tolino u.v.a.m. (nicht Kindle)
Das Dateiformat PDF zeigt auf jeder Hardware eine Buchseite stets identisch an. Daher ist eine PDF auch für ein komplexes Layout geeignet, wie es bei Lehr- und Fachbüchern verwendet wird (Bilder, Tabellen, Spalten, Fußnoten). Bei kleinen Displays von E-Readern oder Smartphones sind PDF leider eher nervig, weil zu viel Scrollen notwendig ist.
Mit Adobe-DRM wird hier ein „harter” Kopierschutz verwendet. Wenn die notwendigen Voraussetzungen nicht vorliegen, können Sie das E-Book leider nicht öffnen. Daher müssen Sie bereits vor dem Download Ihre Lese-Hardware vorbereiten.
Bitte beachten Sie: Wir empfehlen Ihnen unbedingt nach Installation der Lese-Software diese mit Ihrer persönlichen Adobe-ID zu autorisieren!
Weitere Informationen finden Sie in unserer E-Book Hilfe.