Faculty of Engineering and Natural Sciences · Molecular Biology and Genetics (English 30%) · Undergraduate
Course Objective
The aims of the course can be summarized as follows:
- To introduce the cell beyond its basic structure and explain its mechanisms of action,
- How cells form tissues,
- Detailed examination of the cell membrane structure and substance transport,
- Intracellular molecular transport mechanisms,
- Cytoskeleton structure and function,
- Detailed functions and structures of organelles,
- Cell culture studies in vitro,
- Determination of cell growth rate.
Course Content
This course covers the properties of cells and cellular components, basic molecular cell biology, ATP production in the cell, cell growth rate determination, and cytotoxic test protocols.
Explanations
This course is the first part of the cell biology course, and advanced topics and laboratory applications are given in the second semester as Cell Biology-II. The content of the Cell Biology-I course consists of organelles, membrane structure and transport of substances across the membrane, membrane potential calculations, cell culture applications, cytoskeleton structure, intracellular substance transport, and tissue formation.
Rules
All students are required to attend 70% of the theoretical lectures and 80% of the laboratory lectures.
Students with a laboratory grade point average below 50 points will not be allowed to take the final exam.
The passing grade for the course is 50 points.
The allowed time for being late to class is the first 10 minutes.
The allowed time for being late to the exam is 20 minutes.
If anyone leaves the exam within the first 20 minutes, students who are late will not be admitted regardless of the 20-minute time limit.
Non-class activities (playing games, voice calls on the phone, texting on the phone, consuming strongly scented foods such as spices, garlic, and onions, personal care, etc.) are prohibited during class.
Course Learning Outcomes
- Will gain knowledge of cell components
- Will gain knowledge of structure and function of cellular membrane
- Will develop understanding the cellular mechanism of molecular transport
- Will understand the cytoskeleton function
- Will be able to organize cell culture and reviewing cellular morphology
- Will interpret the cellular shape changes under the microscope
- Will be able to test toxicological substance effects on the human cells
- Will acquire knowledge of importance of the membrane potential for the cellular energy metabolism and will be able to calculate the membrane potential of the cells
- Will explain the structure of mitochondrial membrane transport
- Will explain the ATP synthesis through the ETS and oxidative phosphorylation
- Will interpret the vesicular transport
- Will comprehend the cellular attachment and tissue formation association
- Will be able to interpret the cellular organization
Core Area Distribution
Teaching Methods
Assessment & Evaluation
ECTS / Workload
| Activity | Quantity | Duration (h) | Total Workload |
|---|---|---|---|
| Course Duration (Including Exam Week) | 16 | 3 | 48 |
| Out of Class Study Period | 16 | 4 | 64 |
| Midterm | 1 | 5 | 5 |
| Quiz | 0 | 0 | 0 |
| Assignment | 0 | 0 | 0 |
| Practice | 14 | 3 | 42 |
| Final | 1 | 5 | 5 |
Course Schedule
| Week | Subject | Preparation |
|---|---|---|
| 1 | Introduction To The Course | Course content will be shared |
| 2 | Basics-definition of the cell and its compartments | Course content will be shared |
| 3 | Chemical components of membrane | Course content will be shared |
| 4 | Membranous organelles: Endoplasmic reticulum | Course content will be shared |
| 5 | 05: Membraneous organelles: Golgi apparatus | Course content will be shared |
| 6 | Cytoskeleton | Course content will be shared |
| 7 | Midterm | Midterm |
| 8 | Cellular digestion | Course content will be shared |
| 9 | Energy Generation I: Mitochondria | Course content will be shared |
| 10 | Transport Mechanisms Mediated by Membrane | Course content will be shared |
| 11 | Transport Mechanisms Mediated by Vesicle and Neuronal Potential | Course content will be shared |
| 12 | Vesicular Transport | Course content will be shared |
| 13 | Energy Generation: Chloroplast | Course content will be shared |
| 14 | Tissue formation by cellular attachment | Course content will be shared |
| 15 | General reivew and preparation to the exam | Course content will be shared |
| 16 | Final Exam | Exam |


