Qubits · Memory Blocks · records students own
Why the records have to last, not just cost less.
Cheap AI is the easy story. The harder story is that the records every institution signs today, transcripts, credentials, research, patient charts, will stop being verifiable within the next decade. A sufficiently capable quantum computer breaks the digital signatures we all rely on now. When that happens, the transcript you signed last year stops being provable to anyone.
Proofnet signs records under post-quantum cryptography from day one and keeps them in its own record layer, Memory Blocks. The signature still verifies a decade from now, whether or not the original vendor, certificate authority, or identity service is still running. And because every record is tied to the person who generated it, students carry verifiable proof of their own work forever, not rented access to a vendor's dashboard.
01 · For the CIO and security architect
Which algorithms survive Q-day.
Proofnet uses the NIST-final post-quantum primitives and nothing experimental. These are the same families federal agencies are mandated to migrate to under CNSA 2.0 and OMB M-23-02.
ML-DSA-87
FIPS 204 module-lattice digital signatures. Primary signing primitive.
SLH-DSA
FIPS 205 stateless hash-based signatures. Backup for long-horizon claims.
ML-KEM-1024/Kyber-1024
NIST-selected module-lattice KEM. Used in PQTLS key exchange.
SHA3-512
FIPS 202 canonical digest across every attesto and Memory Block row.
Classical algorithms (RSA, ECDSA, Ed25519) still work where an existing adapter requires them. The Proofnet signature over each record is always post-quantum.
02 · For procurement and legal review
How Proofnet and Proofnet split.
Two entities, one clean boundary. The open protocol is free to audit, run, and extend. The production implementations are commercial so one company is accountable for engineering, support, and deployment outcomes.
Open · Proofnet
Bitcoin Attestation Network
Specification for record shape, digest family, signature primitive, row commitment, and block sealing. Permissionless. Documentation and reference implementations are free.
Commercial · Blockie Talkie LLC
Proofnet BTC and the six licensed components
AttestoBind, Memory Blocks, AttestoScript, BTCore, PQTLS, Toshi PQ1. Licensed with support contracts, SLAs, and enterprise or government deployment scoping.
A procurement team reviewing Proofnet signs with Blockie Talkie LLC for the implementation. The underlying protocol remains independently verifiable at any time.
03 · The part every per-seat SaaS tool can't give you
Students own their records. And with ownership comes the ability to earn.
When a student's coursework, credential, tutoring session, research contribution, or published artifact lives as an identity-bound attesto in Memory Blocks , signed under the student's own post-quantum key , the student can do things no SaaS dashboard allows:
Present
Portable credentials
Transfer, graduate, or apply for a job and hand over a verifiable packet directly. No registrar bottleneck. No vendor portal.
Earn
Tutor / peer-review
Proof-of-knowledge attestations: a student who mentored another earns a signed record. Paid in Bitcoin through Blockie Talkie payment QR. Auditable.
Contribute
Training data
Opt in and let Proofnet AI learn from your verified records. The attribution is permanent , every model output that cited your work can be traced back and compensated.
Build
Research provenance
Every dataset contribution, lab result, and paper revision lands as a signed attesto. Priority disputes evaporate. Authorship is post-quantum verifiable.
This is what the per-seat SaaS model takes away: in the SaaS model, the student's work and the AI's response to it live inside the vendor's database. The institution rents it. The student has no asset. In the Proofnet model, every record is signed by the student, stored in Memory Blocks the institution owns, and the student carries verifiable proof of everything they did , for life, under post-quantum cryptography.
“The per-seat AI question was really a deeper question. Who owns the student's record? Who owns the AI trace? Who still has verifiable proof of what happened here in twenty years, after the vendors, the providers, and the classical signatures are gone?”
, The real answer
How it actually works
Attestos record the fact, not the file. The network grows every time an institution joins.
Two design choices matter here. First, Memory Blocks don't store raw student work, patient charts, or research drafts. They store the cryptographic fingerprint of those artifacts plus the attestation that an identity-bound actor produced, approved, or verified them. Second, every institution that runs Proofnet adds capacity, redundancy, and witness depth to the shared record layer, which makes records harder to lose and faster to verify over time.
01 · Knowledge attestos
Records without the raw input.
A knowledge attesto is a signed statement of the form: this identity attests that this exact content, digested to this SHA3-512 value, was produced, reviewed, or approved at this moment. The raw artifact, the essay draft, the lab notebook, the DICOM scan, the contract PDF, stays inside the institution's own storage.
The Memory Block row carries the digest, the identity binding, the ML-DSA-87 signature, and any relationships to other attestos, what advisor approved it, what policy applied, what earlier record it builds on. Years later, anyone can re-hash the artifact locally, compare it to the digest in the block, and prove it is the same file the institution attested to. No central vendor, no external index, no raw content egress.
What the block storesIdentity digest, content digest, timestamp, signature, relationships
What the block does not storeEssay text, patient data, dataset bytes, raw transcripts, private keys
02 · Network growth
Every institution makes the next one stronger.
A Proofnet deployment starts inside a single institution. The first Memory Blocks are local: one campus, one hospital, one agency. As trusted peers join, for example a peer university the registrar accepts transfer credit from, or a partner research group co-authoring publications, they run their own Proofnet node and begin replicating relevant attestos across the shared layer.
Three things improve automatically. Records are harder to lose because multiple institutions hold copies of the block headers and can verify any cited attesto. Cross-institution verification becomes instant because the receiving institution already trusts the signer's identity under the shared adapter framework. And the cost of running the network goes down per participant because capacity and witness depth are shared, not duplicated.
DurabilityMore peers, more copies of each block header
VerifiabilityCross-institution attestos replay instantly
CostShared capacity lowers per-seat network cost
The compounding effect: a transcript an institution signed in 2026 still verifies in 2046 because every peer that ran Proofnet in between kept a copy of the block header. When a student presents their record twenty years later, any Proofnet node in the network can re-hash the file, re-check the signature, and confirm the match, without the original institution still being around. That is the durability the qubit threat actually requires.