LPLK10360U From Plants to Bioenergy
Volume 2013/2014
Education
MSc Programme in Agriculture
MSc Programme in Biology-Biotechnology
MSc Programme in Biology-Biotechnology
Content
This international course is based on the
premise that demands are set by EU and globally for utilization of
bioenergy in transportation by converting lignocellulosic biomass
into ethanol and other liquid energy carriers. There is a demand
for candidates that have sufficient understanding of the molecular
breeding and carbohydrate chemistry to develop technologies for
this new direction in the roadmap of biofuel study and production.
Topics covered are:
• Carbon and Nitrogen partitioning
• Cell wall components and their structure
• Molecular plant breeding strategies for biomass target traits
• Process enzymology
• Chemistry and physics of carbohydrates and lignocelluloses
• Conversion technologies for biomass to energy carriers
• Biomass crop production in temperate and tropical area
• Carbon and Nitrogen partitioning
• Cell wall components and their structure
• Molecular plant breeding strategies for biomass target traits
• Process enzymology
• Chemistry and physics of carbohydrates and lignocelluloses
• Conversion technologies for biomass to energy carriers
• Biomass crop production in temperate and tropical area
Learning Outcome
Learning Outcome
The course will provide the theoretical bases for understanding carbon and nitrogen sequestration in plants, the biosynthesis and structure of type I and type II plant cell walls, introduction to enzymes for plant polymer conversion and methods for processing and conversion of biomass into solid and liquid carriers. The principles of forward and reverse genetics will be provided and strategies for utilizing candidate genes in molecular breeding for plants with improve biomass conversion potential presented. The perspectives for biomass crop production in temperate and tropical areas will be discussed and put in a socio-economics and environmental context.
Knowledge
• Describe the structure and biochemistry of carbohydrates, cellulose, ligno-cellulose
• Give an overview of enzymes implicated in the biosynthesis of plant cell walls
• Describe molecular breeding towards altering biomass make-up
• Describe the function of hydrolytic enzymes important for plant polymer conversion
• Summarize processing and conversion of biomass to solid and liquid energy carriers
Skills
• Compare differences in cell wall structure and composition between plant species
• Apply reverse genetic tools to modify biomass composition
• Identify target genes encoding enzymes relevant for bioconversion
• Participate in academic discussions on sustainability of bioenergy production systems
Competencies
• Assessment of C- and N- sequestration in different crop plants in response to growth condition
• Evaluate feasibility of forward and reverse genetics of improved biomass conversion
• Propose an ideal crop plant for bioenergy
The course will provide the theoretical bases for understanding carbon and nitrogen sequestration in plants, the biosynthesis and structure of type I and type II plant cell walls, introduction to enzymes for plant polymer conversion and methods for processing and conversion of biomass into solid and liquid carriers. The principles of forward and reverse genetics will be provided and strategies for utilizing candidate genes in molecular breeding for plants with improve biomass conversion potential presented. The perspectives for biomass crop production in temperate and tropical areas will be discussed and put in a socio-economics and environmental context.
Knowledge
• Describe the structure and biochemistry of carbohydrates, cellulose, ligno-cellulose
• Give an overview of enzymes implicated in the biosynthesis of plant cell walls
• Describe molecular breeding towards altering biomass make-up
• Describe the function of hydrolytic enzymes important for plant polymer conversion
• Summarize processing and conversion of biomass to solid and liquid energy carriers
Skills
• Compare differences in cell wall structure and composition between plant species
• Apply reverse genetic tools to modify biomass composition
• Identify target genes encoding enzymes relevant for bioconversion
• Participate in academic discussions on sustainability of bioenergy production systems
Competencies
• Assessment of C- and N- sequestration in different crop plants in response to growth condition
• Evaluate feasibility of forward and reverse genetics of improved biomass conversion
• Propose an ideal crop plant for bioenergy
Literature
Compendium of articles, laboratory notes and mongraphs
Academic qualifications
Bachelor degree in
biology, biotechnology or similar plant science
Teaching and learning methods
Teaching methods Foundation
lectures will give overview of plant genetics and genome structure.
Lectures will be dedicated to biomass components, cell wall
structures, lignocellulose, starch and carbohydrate chemistry.
Exercises will build students skills of applying empirical and
dynamic models on investigating the relations biomass conversion
using prediction software. Self studies will build students
capacity to review and identify the most important relations in
dynamic and complex settings summarized and presented for the
general reader following the Nature News in Science concept.
Practicals will include carbohydrate-arrays and anatomy by
microscopy survey of plant tissues. Excusions to industrial plants
converting biomass and producers of converting enzymes. Group
presentations and discussions will build competencies in terms of
presenting and discussing on an academic level on complex
issue.
Workload
- Category
- Hours
- Excursions
- 20
- Lectures
- 74
- Practical exercises
- 20
- Preparation
- 60
- Theory exercises
- 32
- Total
- 206
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Continuing Education - click here!
Exam (Final Examination: 4 hours of written
exam)
- Credit
- 7,5 ECTS
- Type of assessment
- Written examination, 4 hours under invigilationWritten exam in lecture hall
- Exam registration requirements
- Participation in 80% of teaching activity, which includes lectures, lab exercises, poster preparation and excusions.
- Aid
- All aids allowed
- Marking scale
- 7-point grading scale
- Censorship form
- External censorship
One external examinator
- Re-exam
- If 10 or fewer register for the reexamination the examination form will be oral.
Criteria for exam assesment
See learning outcome
Course information
- Language
- English
- Course code
- LPLK10360U
- Credit
- 7,5 ECTS
- Level
- Full Degree Master
- Duration
- 1 block
- Placement
- Block 2
- Schedule
- B
- Continuing and further education
- Study board
- Study Board of Natural Resources and Environment
Contracting departments
- Department of Plant and Environmental Sciences
- Department of Geoscience and Natural Resource Management
Course responsibles
- Søren Kjærsgaard Rasmussen (skr@plen.ku.dk)
Claus Felby medkoordinator
Saved on the
24-09-2013