01
Cost
Reduce the cost structure of bioengineering by moving design iteration out of the wet lab and into software. Move beyond repeated empirical failure with focused validation of the strongest candidate designs.
The biological compiler
Applied Evolution is developing BioC: the compiler for programming biological function into living systems.
Biology as Software
Biology as software: executable design, compressing iteration cycles, and radically accelerating biological development.
02
Speed
Accelerate bioengineering by turning slow experiments into rapid software-driven design cycles. Compress months of manual redesign with compile-test-select loops around the strongest candidates.
03
Scalability
Scale bioengineering with modular genetic compilation workflows. Replace one-off system engineering with repeatable pipelines that expand across organisms, functions, and applications.
Architecture
BioScript captures the language specification. BioC lowers that specification into context-aware genetic material, connecting high-level biological function to concrete implementation.
01
BioScript
Encode biological intent as explicit, modular structure that can be parsed, constrained, compiled, and checked. Represent genes, molecules, proteins, and regulatory logic in a form BioC can reason over directly.
02
BioC
Compile high-level biological specifications into candidate DNA-level implementations. Enable deterministic, traceable compilation so every generated system can be inspected, constrained, and validated for biosafety.
03
DNA
Compile functional genetic systems for plasmid or chromosomal implementation. Account for biological context across host strain, regulation, and expression environment.
Future
BioC will enable full-stack life engineering with programmable control across every biological vector: cells, organisms, and delivery systems.
01
Eukaryotic Programming
Extending BioC beyond bacterial systems into higher-order eukaryotic cell engineering. Compile complex regulation, expression, and cellular behavior across integrated biological contexts.
02
Viral Delivery
Engineering viral vectors for programmable gene delivery and therapeutic design. Compile delivery systems that target the right cells, express the right payloads, and operate within defined biological constraints.
03
Organism Engineering
Expanding BioC toward programmable control over multicellular and whole-organism biology. Coordinate tissue behavior, cellular function, and organism-level architecture from high-level intent.