Through engineering, we can create clever constructions that lead to interesting behaviors in fluid dynamics, similar to how glider guns and gates operate in the Game of Life.

The complexity of living organisms cannot be reduced to mere mechanical processes; they are dynamic systems with interdependent parts that evolve and adapt in ways machines cannot. No machine can autonomously write its own program; biological organisms have had billions of years to develop complexity and abilities that machines have yet to achieve.

Cells can respond intelligently to their needs, demonstrating a form of intelligence that is not solely based on genetic programming or past experiences.

Games exist at the intersection of logic and emotion, combining mathematical thinking with artistic expression to create meaningful experiences. Games are the aesthetic form of thinking and doing, occupying an important overlap between engineering and art.

The idea that we live in a simulation doesn't add anything meaningful; the laws of nature themselves can be seen as a computer program that governs our reality.

Life may have originated from random accidents, as demonstrated by the Miller experiment, where amino acids formed from a chaotic mixture of gases and a spark.

Life is characterized by a remarkable capacity to adapt and respond to challenges quickly, often without prior mechanisms for such changes.

Self-play mechanisms in AI, where systems play against themselves, have led to significant advancements in reinforcement learning, exemplified by systems like AlphaGo and AlphaZero.

Games serve as an aesthetic form of thinking and doing, enabling players to pursue goals, solve problems, and understand systems in an engaging way.