No PriorsNo Priors Ep. 34 | With Ginkgo Bioworks Co-Founder and CEO Jason Kelly
Elad Gil and Jason Kelly on programming Living Cells: AI, Synthetic Biology, and Future Biosecurity Infrastructure.
In this episode of No Priors, featuring Elad Gil and Jason Kelly, No Priors Ep. 34 | With Ginkgo Bioworks Co-Founder and CEO Jason Kelly explores programming Living Cells: AI, Synthetic Biology, and Future Biosecurity Infrastructure Jason Kelly, co‑founder and CEO of Ginkgo Bioworks, explains synthetic biology as treating DNA like code, while emphasizing how messy, physical, and fundamentally different biological systems are from digital computers.
At a glance
WHAT IT’S REALLY ABOUT
Programming Living Cells: AI, Synthetic Biology, and Future Biosecurity Infrastructure
- Jason Kelly, co‑founder and CEO of Ginkgo Bioworks, explains synthetic biology as treating DNA like code, while emphasizing how messy, physical, and fundamentally different biological systems are from digital computers.
- He describes Ginkgo’s core model: a highly automated ‘foundry’ that runs large-scale biological experiments, generates proprietary data, and lets in‑house ‘DNA programmers’ design cells for customers across pharma, agriculture, and industrial applications.
- Kelly outlines how foundation models for proteins, built on Ginkgo’s experimental data and partnerships like its Google deal, could let AI rapidly ‘speak’ biology and outperform humans far sooner in biological domains than in natural language tasks.
- The conversation also covers pandemic preparedness and biosecurity, advocating a “cybersecurity for biology” model with global genomic surveillance, rapid vaccine response, and employee-controlled corporate governance for powerful bio platforms.
IDEAS WORTH REMEMBERING
7 ideasTreat DNA as code, but respect biology’s physical and unpredictable nature.
While DNA resembles digital code, biological systems are noisy, non-deterministic, and physically embodied, so engineering them requires tolerating uncertainty and leveraging probabilistic and evolutionary approaches rather than strict logical debugging.
Scale and automation in wet labs are crucial to unlock AI for biology.
Ginkgo’s robotic ‘foundry’ turns manual experiments into high-throughput, standardized processes that generate large, consistent datasets—exactly what’s needed to train effective AI models for protein engineering and cell design.
Foundation models that ‘speak protein’ could rapidly outpace human intuition.
Because humans did not evolve to read or design biological code, AI models trained across massive protein datasets may achieve superhuman performance in understanding and generating functional proteins much earlier than they do in human-language tasks.
A horizontal “AWS for cells” model challenges today’s vertically integrated biotech.
Ginkgo is betting that many organism-engineering tasks share enough commonality to justify shared infrastructure and platforms—contrary to the prevailing belief in pharma and ag that every product requires its own bespoke tech stack.
AI‑discovered drugs are bottlenecked more by data than by compute.
Large models are now feasible, but high-quality, sufficiently rich biological and clinical datasets—especially those tied to outcomes like efficacy and safety—remain scarce and fragmented, slowing full-stack AI drug discovery.
Pandemic defense should mirror cybersecurity: continuous monitoring plus rapid patching.
Kelly advocates building global ‘bio-radar’ via wastewater and travel surveillance, combined with rapid-response vaccine and countermeasure platforms, to detect and contain outbreaks early—treating infectious disease like a constantly managed security risk.
Embedding governance with workers, not just founders or capital, is a deliberate safety choice.
By giving all current employees super‑voting shares, Ginkgo aims to ensure that those closest to the work—and answerable to real-world social consequences—have ultimate control over how a powerful biological platform is used.
WORDS WORTH SAVING
5 quotesThe core idea of synbio is that it runs on code, and then what can we bring over from programming into this world that actually sticks?
— Jason Kelly
In biology, sometimes you can run the bug to ground and sometimes it’s just a part of the biology we don’t understand well enough that’s broken—and you’ve gotta stomach that.
— Jason Kelly
We think these computer brains are gonna kick our ass a lot faster in this domain than they do in English.
— Jason Kelly
We would not allow our computers to be as exposed to viruses as we allow ourselves to be.
— Jason Kelly
Who should control the platform? Humans. Not divorced capital… the theory was that the workers, because they’re humans and actually work there, are a good group to give governance to.
— Jason Kelly
QUESTIONS ANSWERED IN THIS EPISODE
5 questionsHow far can the analogy between programming DNA and programming software realistically be pushed before it breaks down, and what are the most important limits?
Jason Kelly, co‑founder and CEO of Ginkgo Bioworks, explains synthetic biology as treating DNA like code, while emphasizing how messy, physical, and fundamentally different biological systems are from digital computers.
What specific types of biological data would most accelerate AI-driven drug discovery and protein design if they were generated or shared at scale?
He describes Ginkgo’s core model: a highly automated ‘foundry’ that runs large-scale biological experiments, generates proprietary data, and lets in‑house ‘DNA programmers’ design cells for customers across pharma, agriculture, and industrial applications.
How could a global ‘bio-radar’ network be governed and funded in a way that respects privacy, sovereignty, and equity while still being fast and effective?
Kelly outlines how foundation models for proteins, built on Ginkgo’s experimental data and partnerships like its Google deal, could let AI rapidly ‘speak’ biology and outperform humans far sooner in biological domains than in natural language tasks.
If AI becomes superhuman at ‘speaking biology,’ how should we think about responsibility and control over designs that no human fully understands?
The conversation also covers pandemic preparedness and biosecurity, advocating a “cybersecurity for biology” model with global genomic surveillance, rapid vaccine response, and employee-controlled corporate governance for powerful bio platforms.
What risks and failure modes does Ginkgo see in its employee super‑voting governance model, and how will it adapt if those emerge in practice?
EVERY SPOKEN WORD
Install uListen for AI-powered chat & search across the full episode — Get Full Transcript
Get more out of YouTube videos.
High quality summaries for YouTube videos. Accurate transcripts to search & find moments. Powered by ChatGPT & Claude AI.
Add to Chrome