Course syllabus
Course-PM
TRA345 Advances in bioimaging for next generation drug delivery lp4 VT24 (7.5 hp)
Course is offered by the department of Tracks
Contact details
Examiner
HJ: Hana Jungová (hana.jungova@chalmers.se)
FH: Fredrik Höök (fredrik.hook@chalmers.se)
Teachers:
HJ: Hana Jungová (hana.jungova@chalmers.se)
FH: Fredrik Höök (fredrik.hook@chalmers.se)
DM: Daniel Midtvedt (dmidtvedt@gmail.com)
MH: Margaret Holme (holmema@chalmers.se)
MW: Marcus Wilhelmsson (marcus.wilhelmsson@chalmers.se)
Guest Lecturers:
RC: Rafael Camacho. Rafael works at the Centre for Cellular Imaging (CCI) - the national core facility that integrates both light and electron microscopy. His area of expertise are light microscopy, super-resolution microscopy, single molecule localization microscopy and image analysis.
TBA
Course purpose
The course aims to provide an in-depth knowledge of bioimaging settings used in drug design and delivery. The students will have the possibility to work jointly across discipline borders to solve practical challenges based on contemporary research.
The course is part of the theme Emerging technologies - from science to innovation in TRACKS educational initiative on Chalmers. It is not included in any educational program and/or department but is suitable as an elective course.
Course design
This course offers a comprehensive overview of nanoscale drug development, bioimaging, and microscopy techniques through lectures, including specialized topics and guest lectures from industry experts. Students engage in practical labs and workshops for hands-on experience and participate in a Journal Club to develop critical analysis skills of scientific literature. The course includes a collaborative project proposal component, allowing students to explore a topic of interest in depth, culminating in a presentation to peers and mentors.
Lectures: The initial segment of this course is dedicated to lectures that will equip you with an understanding of the fundamental concepts in nanoscale drug development, bioimaging, and essential microscopy techniques. This foundational phase is concluded with a non-graded Midterm Discussion, where we meet in small groups to recapitulate the topics covered and address any uncertainties. The second half of the course introduces specialized lectures on particular topics alongside guest presentations. Professionals from Chalmers and Astra Zeneca will share insights from their research, which presents a unique opportunity to engage with experts from industry and academia and ask about areas of personal interest.
Journal club: This component provides you with the necessary skills to efficiently access and read scientific literature. You will engage in the critical examination of two scientific papers that align with the course's subject matter. These discussions will take place over two sessions, each dedicated to one paper.
Labs, workshops and site visits: To complement the theoretical knowledge gained from lectures, this course offers practical experiences through laboratory sessions, workshops, and site visits. You will have hands-on opportunities to apply the principles discussed in class. Activities include creating lipid nanoparticles, characterizing their sizes, and exploring modern image processing techniques.
Project Proposal: In the first half of the course, you will form small groups based on your backgrounds and interests and choose a project proposal topic. This project, which spans the second half of the course, allows you to dive deeper into a subject of your choice and collaborate with peers with diverse skill sets. Your proposals are encouraged to be imaginative, outlining potential avenues for future research. Each group will be mentored by an instructor who will provide guidance and support throughout the project's duration. The project will be concluded by a presentation during the final week of the course.
Learning outcomes
General Learning Outcomes (all TRACKS courses):
- be able to critically and creatively identify and formulate advanced architectural or engineering problems
- be able to master problems with open solutions spaces which includes to be able to handle uncertainties and limited information.
- be able to lead and participate in the development of new products, processes and systems using a holistic approach by following a design process and/or a systematic development process.
- be able to work in multidisciplinary teams and collaborate in teams with different compositions
- show insights about cultural/ethnic differences and to be able to work sensitively with them.
- show insights about and deal with the impact of architecture or engineering solutions in a global, economic, environment and societal context.
- be able to identify ethical aspects and discuss and judge their consequences in relation to the specific problem
- be able to orally and in writing explain and discuss information, problems, methods, design/development processes and solutions
- fulfill project specific learning outcomes
Specific Learning Outcomes
After completing the course, the student should be able to
- Understand the fundamental principles of nanoscale drug development and bioimaging, along with the essential microscopy techniques used in the field.
- Analyze and critically evaluate scientific literature within the context of nanotechnology, drug delivery and bioimaging.
- Apply theoretical knowledge in practical settings, through hands-on laboratory sessions and workshops.
- Engage in collaborative project work, demonstrating the ability to work effectively within diverse teams towards a common research goal.
- Develop and present a research proposal in a clear and coherent manner, both orally and in writing.
Examination form
To pass the course, you have to participate in the lectures (>80% presence) and in project work, journal club and oral exam. Final grades will be awarded through combination of, journal club (25%), project work (50%) and oral exam (25%).
Schedule
Date |
Time |
Place (prel) |
Topic |
Lecturer |
Mon 18/3 |
13:15 – 17 |
FL52 |
Course introduction |
HJ |
|
|
|
Facts of life |
FH |
|
|
|
Introduction to Nanomedicine |
HJ |
Thu 21/3 |
9 - 11:45 |
FL52 |
Virus infection, immunology and vaccine design | FH |
|
|
|
Design of nanocarriers - introduction |
MH |
Fri 22/3 |
15:15-17 |
FL52 |
Introduction to journal club 1 |
HJ |
|
|
Bio-imaging - introduction |
HJ |
|
Mon 25/3 |
13:15-17 |
Raven&Fox |
Bioimaging 1, 2 |
HJ |
|
Introduction to the proposal writing |
|
||
Mon 8/4 |
13:15 – 17:00 |
LAB - Preparation of LNPs |
|
|
Wed 10/4 |
DEADLINE Paper review 1 |
Canvas |
|
|
Thu 11/4 |
8 - 11:45 |
|
LAB - Characterization of LNPs |
|
|
||||
Mon 15/4 |
13:15-17 |
Raven&Fox |
Surface-sensitive techniques, Journal club |
HJ |
Thu 18/4 |
9 - 11:45 |
Raven&Fox |
Design of nanocarriers: Lipid nanoparticles |
MH |
Fri 19/4 | 15:15 - 17 | Raven&Fox |
Design of fluorescent probes |
MW |
Mon 22/4 |
13:15 - 17 |
CCI |
Super-resolution techniques; Site visit to CCI |
RC |
Wed 24/4 |
DEADLINE Paper review 2 |
Canvas |
|
|
Thu 25/4 |
9 - 11:45 |
SB3-S37 | Processing and analyzing microscope images, theory and practice |
DM |
Fri 26/4 | 15:15 - 17 | Raven&Fox |
Journal Club 2 |
HJ |
Mon 29/4 |
13:15 - 17 |
Fysikgränd 3, 6th floor |
Midterm discussions; Proposal discussions |
HJ, FH |
Thu 2/5 |
9 - 11:45 |
Raven&Fox |
Design of nanocarriers: Lipid nanoparticles |
MH |
Mon 6/5 |
Morning |
Mölndal |
Site visit to Astra Zeneca |
MH |
Mon 6/5 |
DEADLINE Proposal - submission 1 |
|
|
|
Mon 13/5 |
13:15 - 17 |
Vasa 6 |
Entrepreneurship / company presentations (Nanolyze, LanteRNA) |
|
Wed 15/5 |
DEADLINE Proposal - peer review |
Canvas |
|
|
Thu 16/5 |
10 - 11:45 |
Raven&Fox |
Guest lecture: Sabrina Leslie, UBC, Vancouver |
|
Mon 20/5 |
14 - 17 |
PJ-salen |
Guest lectures / Alexandra Stubelius (Chalmers) / Anders Wittrup (Lund) / Lennart Lindfors (Astra Zeneca) |
|
Thu 23/5 |
9 - 11:45 |
Raven&Fox |
Project presentations |
FH & HJ |
Sun 26/5 |
DEADLINE Proposal - final submission |
Canvas |
||
Week 27/5 - 31/5 |
|
|
Individual oral exam (1h times #students) |
FH & HJ |
Course literature
Lecture notes. Reading will be specified for each lecture individually.
Course summary:
Date | Details | Due |
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