Signer concentration
Low-threshold multisigs can still fail when a small set of signers, devices, or workflows are compromised.
Institutional authorization layer
Decentralized high-threshold MPC authorization for institutional digital asset operations.
Why now
Recent incidents keep pointing to the same operational gap: private-key custody, multisig UI, and smart-contract admin rights are not enough when authorization itself lacks strong separation, threshold discipline, and reviewable evidence.
Low-threshold multisigs can still fail when a small set of signers, devices, or workflows are compromised.
A signature alone often does not prove whether the underlying request, policy, committee, and risk path were valid.
Mint, upgrade, treasury, bridge, and emergency controls need stronger authorization than ordinary wallet transfers.
Product surface
The current implementation supports technical review of the core threshold-signing path. The product surface is being shaped as SDK/API integration, signing-session orchestration, and evidence export for design partners.
Luvion is aimed at teams that already operate treasuries, protocol admin keys, bridges, mint/burn roles, or institutional digital asset workflows and need stronger authorization before execution.
Protocol shape
Instead of treating authorization as a final click, Luvion models each high-value action as a session with request data, policy checks, decentralized committee participation, threshold signing, and audit-ready output.
A treasury transfer, mint, upgrade, or bridge action enters as a structured authorization request.
The request is checked against context such as asset type, destination, amount, role, and operational intent.
Signing power is distributed across a high-threshold participant set rather than a small static signer group.
The output is designed to explain what was authorized, by which committee path, and under which policy conditions.
System view
Luvion is not positioned as another consumer wallet. The first product direction is an infrastructure layer for teams that already manage valuable on-chain operations and need a stronger authorization primitive.
Initial use cases
The first design-partner conversations should focus on institutional workflows where security budgets already exist and where decision evidence matters.
High-value transfers, foundation wallets, grant disbursements, and treasury rebalancing.
Validator updates, emergency actions, cross-chain admin rights, and route-sensitive approvals.
Mint, burn, reserve movement, issuer operations, and regulated workflow authorization.
ProxyAdmin upgrades, security committee actions, parameter changes, and emergency governance.
Demo
For technical and investor review, the local demo shows a full request-to-verification flow in a deterministic environment. It is useful for proving protocol mechanics, not for making a production security claim.
The demo uses synthetic local shares and a pre-audit codebase. External security review and production hardening remain required before deployment.
Current stage
We keep the public claims precise: Luvion has a running core protocol demo, is not yet production or audited, and is moving toward a Sui-first MVP and external security review.
A local deterministic demonstration of the high-threshold signing path for investor and technical review.
Core modules map to signing, Lagrange logic, DKG/VSS, resharing, view change, orchestration, and network facades.
The first productized path is being shaped around critical digital asset operations rather than consumer wallet traffic.
Formal review is part of the financing plan before any production security claim is made.
No third-party audit, production deployment, or ECDSA/secp256k1 backend claim is made at this stage.
Go-to-market
The commercial path is B2B: design-partner pilots, SDK/API integration, enterprise support, and security-driven deployment support for teams managing valuable digital asset workflows.
Teams with real treasury, admin, bridge, or mint/burn authorization pain points.
Security reviewers who can validate the cryptographic design, implementation assumptions, and review scope.
Infrastructure teams that can help turn the core protocol into practical deployment paths across institutional workflows.