Information Package

Master's of Biomedical Engineering without Thesis

BME540

OPTICAL APPLICATIONS IN MOLECULAR MEDICINE

Course Code
BME540
Semester
-
Theory+Practice
3 + 0
ECTS
10
Course TypeElective Course
Course LevelMaster's Degree Without Thesis
Year of Study-
Semester-
ECTS10
Name of Lecturer(s) -
Learning Outcomes

At the end of this course, the students;

  1. Gain the ability to understand and apply the basic (physic, chemistry, biology) and engineering sciences related to a specific field in medicine at an advanced level.
  2. Gain the ability to detect, design, and implement related to original light-activated smart biostructures at nanoscale
  3. Gain the ability to examine the ideas and developments in the special field.
Mode of DeliveryFace to face
PrerequisitesNo
Recommended Optional Programme Componentsnone
Course DescriptionNature of Light. Light-soft matter interaction ;Light Absorption of Biomolecules Supramolecular polymers - special structures for physicochemical properties Photochemistry Photothermal Therapy (PTT) Design, targeting and responsive nano-platforms for advanced PTT-s Photodynamic Therapy (PDT) Photodynamic PDT ; Biological Damages caused by photosensitizers; Designing photosensitizers for photodynamic therapy: Strategies, challenges and promising developments Innovative approach for photoactivated biomolecules. Effects of different material types on outcomes of wLED-activated nanocomposites for targeted therapy
Course Contents
WEEK TOPICS
1st Week The Nature of Light. Lights Soft Matter Interaction
2nd Week Light Absorption by Biomolecules
3rd Week Supramolecular Polymers- Special Structural and Physicochemical Properties
4th Week Photochemistry
5th Week Photothermal Therapy (PTT)
6th Week Desing, Targeting and Responsive Nano Platforms for Enhanced PTT
7th Week MIDTERM
8th Week Photodynamic Therapy (PDT)
9th Week Photodynamic PDT Biological Damage from Light/ Photosensitizers Designing Photosensitizers for Photodynamic Therapy: Strategies, Challenges and Promising Developments.
10th Week Innovative Approach for Photoactivated Biomolecules. Effects of different material types on the outcomes of wLED activated nanocomposites for targeted therapy
11th Week Effects of different material types, synthesis methods, material morphologies and surface modifications on the outcomes of PTT and PDT (paper-based)
12th Week Advances in nanomaterials for use in photo thermal and photodynamic therapeutics (paper-based)
13th Week Project Presentation
14th Week Project Presentation
Recommended or Required Reading1. Molecular Biophysics. M.V. Volkenstein\ 1977 M.V. Volkenstein 977 Elsevier Inc. All rights reserved. https://doi.org/10.1016/B978-0-12-723150-1.X5001-8
2. Light-Matter Interaction: Physics and Engineering at the Nanoscale 1st Edition John Weiner, Frederico Nunes
3.Biophysics of DNA-Protein Interactions From Single Molecules to Biological Systems Editors: Williams, Mark C., Maher, III, L. James (Eds.)
Planned Learning Activities and Teaching Methods
  • Questions/Answers
  • Presentation
  • Discussion
  • Lecture
Assessment Methods and Criteria
Quantity Percentage (%)
Mid-term 1 25
Other 1 30
Total(%) 55
Contribution of In-term Studies to Overall Grade(%) 55
Contribution of Final Examination to Overall Grade(%) 45
Total(%) 100
ECTS Allocated Based on Student Workload
Activities Quantity Duration (Hour) Total Workload (Hour)
Midterm exam 1 72 72
Preparation for Quiz 0 0 0
Individual or group work 2 3 6
Preparation for Final exam 1 24 24
Course hours 14 3 42
Preparation for Midterm exam 1 11 11
Laboratory (including preparation) 0 0 0
Final exam 1 96 96
Homework 2 12 24
Project 1 24 24
Total Work Load299
Total Work Load / 30 (h)9.96
ECTS Credit of the Course10
Language of InstructionEnglish
Work Placement(s)No
LO1 LO2 LO3
K1 X X X
K2 X X X
K3 X X X
K4 X X X
K5 X X X
K6 X X X
K7 X X X
K8 X X X