60+
experiments
Scientist
Quantitative research
Generates hypotheses and runs controlled experiments with quantitative evidence before proposing any change to the protocol.
How we verify
Basis Network is blockchain-as-a-service for enterprises. Credentials and connection are delivered in direct onboarding with your team. This page explains the technical substance that justifies the trust: how transactions cross the network without revealing their content, and how every line of the protocol kernel passes through mathematical verification before reaching production.
02 · ZKPs & security
Each subnet operates its private data sovereignly. When a transaction crosses the subnet boundary —toward another subnet or toward the base layer— it is emitted wrapped in a Zero-Knowledge Proof. Validators across the network verify it mathematically, without accessing its content.
Private subnet
Transactions, contracts and sensitive data live in an isolated environment controlled by your organization. None of your information leaves the boundary.
Cryptographic proof
When a transaction leaves the subnet, it is emitted wrapped in a zero-knowledge proof. The proof demonstrates that the transaction is valid under the system's rules, without transmitting its content.
Network verification
Validators across the network verify each proof mathematically. They confirm that the transaction is valid without knowing its content. The shared security of the network backs every individual transaction; the data stays inside the origin subnet.
03 · Formal rigor
The Basis Network protocol is developed with the same rigor as aerospace and nuclear systems. Before any code enters the kernel, it goes through a pipeline of four specialized agents that combine iteration speed with formal mathematical proof.
R&D pipeline
Each agent has a narrow responsibility. The "Safety Latch" rule guarantees that no line enters the kernel without going through exhaustive model checking and mathematical proof first.
60+
experiments
Quantitative research
Generates hypotheses and runs controlled experiments with quantitative evidence before proposing any change to the protocol.
1.5B+
states verified
Exhaustive model checking
Translates hypotheses into formal TLA+ specifications and verifies every possible trace of the system via TLC.
47,500
verified lines
1:1 implementation with the spec
Implements the verified specifications in production code, keeping one-to-one correspondence with the matching TLA+ specification.
18
formal theorems
Mathematical proofs in Coq
Certifies correctness with formal mathematical proofs in Coq. Refinement between specification, code and safety theorems.
Kernel tests
2,489
Verified units
18
States explored
1.5B+
Verification errors
0
Guarantee levels
Four independent layers of guarantee, from unit tests to mathematical theorems.
Formal proofs in Coq
Mathematical refinement theorems. Mechanically checked.
Model checking in TLA+
Exhaustive exploration of the protocol's state space.
Adversarial testing
Injection of Byzantine faults, network partitions and malicious nodes.
Unit & integration tests
Continuous code coverage across all components.
04 · Resources