Cryptographic Security Architecture

    Cryptographically Secure Voting

    Discover the engineering behind tamper-evident corporate balloting. Cryptographic ballot integrity hashing, SHA-256 Merkle audit chains, PostgreSQL Row-Level Security, and multi-witness Scrutinizer unblocking protocols.

    The 4 Pillars of Ballot Sealing & Integrity

    Engineered with rigorous technical controls so unauthorized modifications are mathematically detectable.

    1. SHA-256 Ballot Hashing & Secrecy Preservation

    Ballots are hashed with SHA-256 for cryptographic tamper evidence, protected in transit via TLS 1.3, and isolated in storage through PostgreSQL Row-Level Security so individual voter selections remain confidential until official unblocking.

    2. SHA-256 Merkle Proof Audit Ledger

    Every cast vote produces a unique cryptographic hash linked into an auditable Merkle Tree, creating mathematical verification that no votes were inserted, deleted, or altered.

    3. Secure OTP Shareholder Authentication

    Credential verification combined with time-sensitive keyed OTP delivery ensures only verified shareholders matching the official record date voter roster can access ballots.

    4. Scrutinizer Multi-Witness Unblocking

    Only the designated independent Scrutinizer can unblock the vote tallies post-meeting in the presence of at least 2 independent witnesses, satisfying Rule 20(4)(xii).

    Cryptographic Security FAQs

    Technical specifications regarding encryption, Merkle trees, and access controls.