Prompt
How do I ensure my smart contract safety checks with a formal verification platform are compliant?
Latest observation
To make your smart contract safety checks “compliant” with a formal verification platform, treat it like a process compliance problem, not just a tooling problem. The exact requirements depend on the chain, language, and platform, but the general approach is:
1) Define the safety properties clearly
Write down the properties you want verified in precise terms, such as:
- No unauthorized token minting
- No reentrancy on sensitive paths
- Access control cannot be bypassed
- Invariants on balances / total supply always hold
- Upgrade logic preserves storage layout and admin control
If a property is vague, it’s hard to verify and hard to audit.
2) Map each property to a formal specification
Use the platform’s spec language to express:
- Preconditions
- Postconditions
- Invariants
- Temporal properties, if supported
Examples:
- “Only owner can call
pause()” - “
totalSupplyequals sum of all balances” - “A transfer never creates or destroys value”
3) Verify the exact deployed code path
Make sure the verified artifact matches what is deployed:
- Same compiler/version
- Same optimization settings
- Same constructor args
- Same libraries/linked bytecode
- Same source commit hash
A common compliance failure is verifying code that is not identical to production bytecode.
4) Cover all execution paths and assumptions
Formal verification is only as good as its assumptions. Check:
- External calls and trusted/untrusted boundaries
- Arithmetic assumptions
- Initialization and upgrade flows
- Admin-only functions
- Edge cases like zero addresses, empty arrays, overflow/underflow, and failed calls
Document any assumptions explicitly.
5) Keep an audit trail
For compliance, preserve:
- Source code commit ID
- Verification report
- Property definitions
- Tool version and configuration
- Assumptions and excluded cases
- Reviewer approvals and date
This helps prove what was verified and under what conditions.
6) Integrate into CI/CD
Run verification:
- On every relevant commit
- Before deployment
- After any dependency or compiler upgrade
Fail the pipeline if any verified property breaks.
7) Re-verify after changes
Any change to:
- Solidity/Vyper version
- Compiler settings
- Proxy/upgrade logic
- External library versions
- Security assumptions
should trigger re-verification.
8) Compare against platform-specific compliance requirements
Different platforms may require:
- Specific proof formats
- Minimum property coverage
- Deterministic builds
- Signed reports
- Human review of assumptions
Follow the platform’s documentation and any regulatory or internal control framework you’re targeting.
9) Don’t rely on formal verification alone
Formal verification usually complements:
- Unit tests
- Property-based tests
- Fuzzing
- Static analysis
- Manual review
- Security audits
For compliance, you often need evidence from multiple layers.
10) Document limitations
State what was not verified:
- Cross-contract behavior
- Oracle correctness
- Liveness guarantees
- Economic attacks
- MEV/front-running conditions
- Chain reorg effects
- Off-chain components
That transparency is important for compliance and auditability.
If you tell me:
- the chain/language you’re using,
- which formal verification platform,
- whether you need regulatory, internal, or audit compliance,
I can give you a more exact checklist and a sample verification workflow.
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