Machines that have to be right.

The problem

A VPN provider sees every site you visit, keeps logs, and can be ordered to hand them over. Separately, traffic recorded today can be decrypted later if quantum computers get strong enough.

How it works

Vantablack connects your machine to other machines and uses them to carry your traffic. Each message is encrypted with hybrid ML-KEM-768 and X25519, split into three Reed–Solomon shards, and sent along divergent routes. A shard that arrives modified fails its own authentication tag and is discarded before reassembly.

What it gives you

• No provider. There is nobody holding your traffic to log it.
• Post-quantum encryption. ML-KEM-768 with X25519, so a recording made today has to be broken against a cipher built for later.
• Tamper detection. Every shard carries its own HKDF-derived key and Poly1305 tag.
• Packet-loss tolerance. Any two of the three shards rebuild the message.

Setup

The problem

Commercial agreements hide conflicting indemnities, ambiguous termination rights, and contradictory governing law clauses across hundreds of pages of schedules and amendments.

How it works

ClauseLens translates contractual commitments into deontic logic specifications (obligations, permissions, prohibitions). It then evaluates mutual consistency and liability caps across interdependent documents, surfacing direct logical contradictions and unmitigated exposure.

What it gives you

• Automated contradiction detection. Identifies conflicting covenants, overlapping notice windows, and mutual exclusivity paradoxes.
• Bounded risk scoring. Quantifies structural exposure across indemnity caps, force majeure, and dispute escalation trees.
• Deontic logic graph. Visualizes dependency chains between conditioned obligations and payment milestones.
• Client-side execution. Complete confidentiality — documents are analyzed locally in-memory without third-party LLM transmission.

Setup

The problem

Layer-by-layer resin printers run for hours, leave stair-stepping striations where one layer meets the next, and print supports that have to be cut off afterwards.

How it works

HoloForge computes holograms that make 405 nm light from several rotary angles intersect only where the part should cure, then models what follows: radical polymerisation, dissolved-oxygen inhibition, and the surface the finished part measures.

What it gives you

• Under fifteen seconds per part, with no support structures to remove.
• Cure accuracy of 94.6–96.7% IoU in simulation, with under 0.02% overcure.
• Parametric generators for dental crowns, microfluidic chips and aspheric lenses, plus arbitrary .stl voxelisation.
• A vat aberration conjugate mask that cancels cylindrical vial astigmatism on the SLM, without an index-matching bath.

Setup