My life & career
Better biological manufacturing could change medicine, food and materials over time.
Imagine a laboratory that can design, build, test and learn from biological prototypes in a repeating cycle.
Making new biological products can involve designing a molecule, growing it, testing it and returning to the drawing board. Imagine a laboratory where computer models help suggest changes and machines can carry out many of the tests without rebuilding the process each time. Researchers could learn from more experiments and investigate new ingredients, proteins or medicines more quickly. The opportunity is a new kind of invention workshop for biology. Living systems remain unpredictable, so success in a small experiment does not guarantee safe or affordable production at commercial scale.
Big change is fascinating. Its implications are what matter.
Better biological manufacturing could change medicine, food and materials over time.
Automated design-build-test loops could shorten research cycles if the data can be trusted.
Food, agriculture and pharma may gain new biological production options.
Jim’s work across food, healthcare and agriculture explores the convergence of biotechnology and automation.
Meet the futurist behind YottaBit ↗Find the wet-lab result required before a biological design can be called a product.
Here's what researchers have demonstrated, what's still ahead, and where to check the source. It should deepen the story—not get in the way of understanding it.
What's happening today: Biological AI and lab automation exist; output remains application-specific.
The next challenge: Biological behavior is messy, and safety and scale-up remain critical.
How the technologies connect: DNA design + robotic build/test + ML learning.
EMBL-EBI & DeepMind — AlphaFold Protein Structure Database ↗