Data
Official data in SubjectManager for the following academic year: 2026-2027
Course director
-
Zand Afshin
assistant professor,
Department of Public Health Medicine -
Number of hours/semester
lectures: 12 hours
practices: 0 hours
seminars: 0 hours
total of: 12 hours
Subject data
- Code of subject: OBF-TBS
- 1 kredit
- Biotechnology MSc
- Optional modul
- autumn semester
-
Course headcount limitations
min. 5 – max. 20
Available as Campus course for . Campus-karok: GYTK TTK
Topic
Biotechnology is not just a single field; it is a multi-colored spectrum of solutions. While much of modern science focuses on medicine (Red Biotech), this course explores the full rainbow of innovation. We look at how the same high-tech tools—like CRISPR, AI, and Synthetic Biology—are uniquely applied to solve problems in our oceans, our food, and our environment. This course will broaden your horizon, showing you how to be a versatile scientist ready for a career in everything from sustainable energy to climate-resilient agriculture.
Lectures
- 1. The Rainbow of Innovation: Introduction to the "Colors" and how one discovery can change multiple industries - Zand Afshin
- 2. Green Biotech (Agriculture): Engineering "Climate-Resilient" crops to feed a warming planet. - Zand Afshin
- 3. White Biotech (Industry): Turning microbes into "Cell Factories" to create bioplastics and clean fuel. - Zand Afshin
- 4. Blue Biotech (Ocean Treasures): Finding "Extremophile" enzymes in the deep sea for new drug discovery. - Zand Afshin
- 5. Yellow Biotech (Food Science): The science of "Cultivated Meat" and personalized nutrition. - Zand Afshin
- 6. Brown & Grey Biotech (Environment): Using metagenomics to restore deserts and monitor ecosystems. - Zand Afshin
- 7. Gold Biotech (AI & Data): How AI-driven protein design (AlphaFold) is creating new biological catalysts. - Nancy Zeineddine
- 8. Purple Biotech (The Patent Wars): Understanding who "owns" CRISPR and the rules of biological property. - Nancy Zeineddine
- 9. Black Biotech (Biosecurity): Staying one step ahead of pandemics and protecting digital DNA sequences. - Nancy Zeineddine
- 10. The Multi-Color Merger: Real-world examples of how different "Colors" work together to solve a crisis. - Nancy Zeineddine
- 11. Future Frontiers: Synthetic Genomics—the art of "writing" entirely new chromosomes. - Nancy Zeineddine
- 12. Brainstorming & Vision: Collaborative Summary where students pitch a "Color Startup" of the future. - Nancy Zeineddine
Practices
Seminars
Reading material
Obligatory literature
Literature developed by the Department
Course materials consist of weekly presentation slides covering the lecture topics. These are supplemented by curated "Fact Sheets".Additionally, a "Curriculum Question Bank" consisting of 25 comprehensive questions will be distributed at the start of the semester to guide self-study and provide the basis for both the "Group-Pulse" interactive activity and the final written assessment.
Notes
Recommended literature
Conditions for acceptance of the semester
One assignment at the end of the course
Mid-term exams
It's not required
Making up for missed classes
Not possible
Exam topics/questions
I. Logic: The "Why" of the Spectrum
Why is it logical to use the same CRISPR technology differently in a plant (Green) than in a human (Red)?
What is the logical reason for dividing biotechnology into "Colors," and how does this help the industry?
Why is "White" (Industrial) biotechnology considered a key part of the "Green Deal" for a sustainable future?
How does the logic of "Bioprospecting" help us find new medicines in the ocean (Blue Biotech)?
Why is "Yellow" (Food) biotech becoming a major area of investment for venture capitalists?
II. Application: Real-World Solutions
How can "Green" biotech help a country like Hungary adapt its crops to longer, hotter summers?
Describe a scenario where a "White" microbial factory could replace a traditional chemical plant.
How is "Blue" biotech using algae to capture carbon and fight climate change?
What is the role of "Grey" biotech in cleaning up heavy metal contamination in industrial soil?
How can "Yellow" biotechnology create "Cultivated Meat" without the need for traditional farming?
III. Mechanism: How the Tech Works
Explain the mechanism by which a microbe can be "programmed" to produce biodegradable plastic.
How does an "Extremophile" enzyme survive in the boiling heat of a volcanic vent or the freezing arctic?
What is the basic mechanism of "Soil Microbiome" engineering to help plants grow in the desert?
How does "Synthetic Genomics" allow us to build a chromosome from scratch in the lab?
Describe how a "Biosensor" can be used in the environment to detect a specific pollutant in real-time.
IV. Diversity: Beyond the Clinic
What makes "Marine Biotech" (Blue) so different from "Land Biotech" in terms of the chemicals we find?
Why is "Brown" biotech specifically focused on the challenges of arid and desert lands?
How does "Gold" biotech (AI) speed up the discovery of enzymes for industrial use?
What is the difference between "GMO" and "CRISPR-edited" crops in the eyes of the public?
Why is "Biosecurity" (Black Biotech) becoming a top priority for governments worldwide?
V. Ethics & Policy: The Global Rules
Why are the "CRISPR Patent Wars" (Purple) important for the future of small biotech startups?
Should we be allowed to "write" the genome of a new species that has never existed?
What are the ethical concerns regarding "Dual-Use" research (Black Biotech)?
Who should own the rights to a discovery made from an enzyme found in international waters?
How can we ensure that "Green" biotech benefits small farmers and not just giant corporations?