Valid for: 2016/17
Decided by: Education Board C
Date of Decision: 2016-03-31
Compulsory for: K4-p, W4-p
Elective for: B4-pt
Language of instruction: The course will be given in English on demand
Energy and resource efficient processes are a prerequisite for a
sustainable society. The efficiency of energy and material use can
be achieved through optimization of existing processes in an
industry, the process of integration of energy and materials
between different industries, and between industry and society.
This contributes to a more sustainable use of limited resources,
lower production costs and reduced environmental impact. Advanced
process design is the cornerstone of this work.
The aim of the course is to give the student the tools needed to
combine multiple unit operations in an industrial process and to
study the dependence between unit operations and how the total
resource is affected when key parameters are varied.
Knowledge and understanding
For a passing grade the student must
• Through technical design calculations be able to evaluate
the energy efficiency, raw material utilization and environmental
impact for different processes.
• At the design stage be able to optimize the integration of
energy conversion processes with respect to energy efficiency
and environmental impact, as well as discuss the strengths and
weaknesses of the selected design.
• Be able to describe how the design of various process depend on
physical transport processes and phase equilibria and how this
affects the optimization when different processes are to be
integrated into an industrial process.
• Be able to use flowsheeting as a tool to describe how energy
conversion processes, separation processes and reaction technology
affects the design of various process steps, and how the
integration of these process steps to an optimized industrial
process can be implemented.
Competences and skills
For a passing grade the student must
• Independently formulate and analyze various energy
conversion processes for efficiency and environmental impact for
both fossil and renewable energy sources.
• In an engineering way being able to design technical processes
for industry and municipalities.
• Be able to write a technical report of good quality (in
language and factually) in which the technical design and the
reasons behind design choices is described as well as verbally to
give a brief account of the same.
• With flowsheeting be able to make advanced models for material
and energy balances in chemical engineering or biotechnological
systems.
• Be able to make use flowsheeting tools to analyze and optimize
chemical and biotechnological processes.
Judgement and approach
For a passing grade the student must
• By flowsheeting calculations and written and oral
communication demonstrate familiarity with industrial problems and
ability in an engineering way to design a variety of industrial
processes.
• Be able to assess and evaluate how the various ways to optimize
an industrial process (in terms of energy efficiency and
environmental impact) affect the design.
• Be able to value how different parameters affect industrial
processes capacity, energy efficiency, product quality and the
ability to integrate with other process steps.
• Be able to obtain relevant information from different sources
and evaluate this in an independent way.
The course is structured around a number of themes. The course covers design of industrial processes using flowsheeting programs and contains in-depth sections on phase equilibria, distillation, physical transport processes and energy conversion, multi-component distillation, absorption and evaporation. Energy and environmental aspects are illustrated by the section on energy, energy production, water and waste management, as well as gas purification. Also included is optimization of industrial processes with respect to energy efficiency and environmental impact.
Grading scale: TH
Assessment: Assessment through active participation in subprojects, showed in written and oral reports, as well as written exam and written take home exam.
The final grade is based on the written exam, and additional credits may be obtained on mandatory projects. Certain minimum levels of additional credits are required for grades 4 and 5. The exact credit levels are announced before each edition of the course.
Parts
Code: 0116. Name: Written Exam.
Credits: 5. Grading scale: TH. Assessment: Written exam with calculation tasks
Code: 0216. Name: Written Take Home Exam.
Credits: 3. Grading scale: UG. Assessment: Written take home exam
Code: 0316. Name: Projects.
Credits: 7. Grading scale: UG. Assessment: Active participation in group work and group discussions. Approved project exercises.
The number of participants is limited to: No
The course overlaps following course/s: KETN15, KETN05, KET010
Course coordinator: Ola Wallberg, ola.wallberg@chemeng.lth.se
Course coordinator: Helena Svensson, helena.svensson@chemeng.lth.se
Teacher: Mats Galbe, mats.galbe@chemeng.lth.se
Course homepage: http://www.chemeng.lth.se/ketn20?lang=en