The video discusses the transition from the software revolution to the living software revolution, highlighting the potential to program biochemistry for advancements in medicine, agriculture, and energy. It explores current tools like CRISPR, challenges in programming biology, and the concept of biological computation. The speaker shares research on embryonic stem cells and emphasizes the need for interdisciplinary collaboration and ethical considerations in developing living software.

What is the primary material used in the living software revolution?

• Metal

• Plastic

• Biology

• Silicon

Which tool allows precise gene editing in the context of living software?

• CRISPR

• AutoCAD

• Photoshop

• JavaScript

What is unique about embryonic stem cells?

• They are only found in plants

• They can become any cell type

• They cannot be reprogrammed

• They are already specialized

What is the process of transforming an adult cell back to a naïve state called?

• Reprogramming

• Transcription

• Cloning

• Mutation

What does the developed tool use to encode observations?

• Artistic drawings

• Physical models

• Mathematical expressions

• Chemical formulas

What is the ultimate goal of understanding biological computation?

• To replace all computers

• To eliminate all diseases

• To predict and manipulate cell behavior

• To create new art forms

What is necessary for programming biology to be successful?

• More funding

• Interdisciplinary collaboration

• Fewer regulations

• More computer scientists

What is a potential risk associated with programming biology?

• Increased pollution

• Misuse of technology

• Slower internet speeds

• Higher costs

What is a potential application of living software in agriculture?

• Creating new animal species

• Developing perennial crops

• Building taller skyscrapers

• Designing faster cars

What is a key ethical consideration in the development of living software?

• Increasing speed

• Preventing misuse

• Ensuring accessibility

• Reducing costs