NSCPHD1065 Fundamentals of Biomaterials: An Introduction to Biomimetics/Biomimicry
Volume 2013/2014
Education
Ph D and Masters- Masters
students with appropriate background allowed after getting
permission for their study plan. The course is not for students who
have previously taken polymer science courses.
Content
This course is meant for students that
have no or little background in polymers and polymer materials
science and could be particularly useful for students interested in
biomass, bioenergy, food science, etc. It is intended for students
who would like to gain some knowledge of the fundamentals of
material science of natural materials and of interesting examples
in the area of biomimetics and biomimicry. The purpose of the
course is that the student gets a grasp of how structure of a
polymer and other materials can relate to its properties, commonly
known as structure-property relationships. Molecular weight
distributions, glass transition temperature and other basic, but
very important polymer concepts will be covered. The concepts of
intermolecular bonding, surfaces and adhesion will be taught. We
will try and relate some of the concepts you learn to natural
materials such as lignocellulosic material, and materials that
exist in both human and animal bodies. Subjects such as the
chemistry of polymerization and how polymers are synthesized will
not be covered.
1. A: Introduction to Biomimetics and Biomimicry.
2. B: Primary and secondary atomic bonding.
3. C: Polymers:
Introduction to polymers.
What is the glass transition temperature (Tg)?
How chemical structure and morphology influences Tg and properties?
Structure-property relationships in polymers.
4. D: Surfaces and Adhesion:
Surface properties and Wetting
Adhesion Mechanisms
5 Bio-based Material:
E: Plant Based: Relating what has been learned in the previous sections; we will discuss and read papers on wood (softwood and hardwood), plant and agricultural fibers, and other natural and bio-based materials. This will include knowledge on wood, hemicellulose, lignin and cellulose.
F: Animal based: An introduction to diverse materials such as spider webs, seashells, fish scales, bones, mussels, barnacles, etc. will be taught to give an idea of biomimetics and biomimicry. and others interested in natural materials.
1. A: Introduction to Biomimetics and Biomimicry.
2. B: Primary and secondary atomic bonding.
3. C: Polymers:
Introduction to polymers.
What is the glass transition temperature (Tg)?
How chemical structure and morphology influences Tg and properties?
Structure-property relationships in polymers.
4. D: Surfaces and Adhesion:
Surface properties and Wetting
Adhesion Mechanisms
5 Bio-based Material:
E: Plant Based: Relating what has been learned in the previous sections; we will discuss and read papers on wood (softwood and hardwood), plant and agricultural fibers, and other natural and bio-based materials. This will include knowledge on wood, hemicellulose, lignin and cellulose.
F: Animal based: An introduction to diverse materials such as spider webs, seashells, fish scales, bones, mussels, barnacles, etc. will be taught to give an idea of biomimetics and biomimicry. and others interested in natural materials.
Learning Outcome
Introduction
to Biomimetics and Biomimicry. Primary and secondary bonding.
Molecular weight distributions, glass transition temperature and
other basic polymer concepts will be covered. The relation of how
structure of the polymer determines properties, commonly known as
structure-property relationships, will be an important part of the
course. Surface phenomenon and basics of adhesion and elementary
concepts of composites will be covered. We will try and relate some
of the concepts you learn during the course to understand natural
materials such as lignocellulosic material, and materials that
exist in both human and animal bodies. The
course is not for students who have previously taken polymer
science courses. Understanding the basics and fundamentals is
a very important part of the course.
Literature
Basic book on primary and
secondary molecular bonding. Scientific papers will be distributed
throughout the course.
Formal requirements
Bachelor completed.
Basic knowledge of natural sciences.
Teaching and learning methods
The course will run for
about 3 weeks, with about 12 (50 min) lectures: about two
consecutive lectures, twice a week. Total of about 12 lectures of
50 min each. 6 hours of supervision which can be up to 1 hr after
each 2 consecutive classes. Some homework and extensive reading
material based on peer reviewed articles, from fundamental
principles of polymers and papers based exclusively on bio-based
(plant and animal) materials. Also included will be reading
material that will enhance the knowledge of what has been taught.
Handouts and papers on natural materials will also be distributed
and this is a big part of the course. After each 2 classes,
students will/may stay to discuss and answer question from previous
lectures.
Workload
- Category
- Hours
- Course Preparation
- 80
- Exam Preparation
- 10
- Lectures
- 12
- Preparation
- 14
- Seminar
- 6
- Tutoring
- 6
- Total
- 128
Sign up
Contact Anand Ramesh Sanadi at
email: anrs@ign.ku.dk
Registration deadline: 1. april. 2014
Registration deadline: 1. april. 2014
Exam
- Credit
- 5 ECTS
- Type of assessment
- OtherThe student will need to give a seminar based on a peer reviewed scientific article relevant to the course. Questions based on the seminar and paper will be part of the evaluation. Questions on the fundamentals taught during the course can also be asked during this period
- Marking scale
- passed/not passed
- Censorship form
- No external censorship
Course information
- Language
- English
- Course code
- NSCPHD1065
- Credit
- 5 ECTS
- Level
- Ph.D.
- Duration
- May 2014
- Placement
- Spring
- Schedule
- Not relevant
- Course capacity
- max 12
- Study board
- Natural Sciences PhD Committee
Contracting department
- Department of Geoscience and Natural Resource Management
Course responsibles
- Anand Ramesh Sanadi (anrs@ign.ku.dk)
- Søren Talbro Barsberg (sbar@ign.ku.dk)
Lecturers
Anand Ramesh Sanadi
Saved on the
28-11-2013