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Glama

Knos carries research across the valley of death: see who wants it and where, then get paid only on proof.

A demand check on Qloo sets the terms, and the money waits on Solana until the proof passes.

Ready briefs: 2.08x fewer output tokens, 70% vs 5% passed (measured).

Devnet, test money, no customers yet.

Check demand · Check every claim yourself

How it works

flowchart TB
    idea["A paper or an idea"] --> demand["Demand check on Qloo: who wants it, the launch city and the pre-order target"]
    demand --> ready["Ready brief: each milestone has a target, a checker and a deadline, locked by a hash"]
    ready --> held["Backers pre-order or fund milestones; the money is held on Solana devnet"]
    held --> proof["The maker sends the proof for one milestone"]
    proof -->|verified| paid["The maker is paid for that milestone"]
    proof -->|not verified by the deadline| back["Nobody is paid; the money goes back to the backers"]

No money locks on a vague brief. Each step is paid only when its proof is verified.

  1. Check demand. A demand check asks Qloo who would buy the product and where. Qloo's heatmap names the launch city.

  2. Ready brief. That city and the pre-order target become the terms of a Ready brief. Each milestone has a target, a checker and a deadline. A criteria hash locks them. If the city falls short by the first deadline, every pre-order is refunded.

  3. Money held. Pre-orders and milestone funding wait in a program on Solana, not with Knos.

  4. Paid on proof. The maker sends the proof. When it is verified, the program pays for that milestone. Example: an agent was paid 5 test units for verified work on devnet. The newest payout, read from chain, says what released it.

Add Knos to Claude Code with one command: claude mcp add --transport http knos https://knos.onrender.com/mcp

Open call: have research waiting for a market? Cross it on Knos: the page counts every crossing and pre-order by people outside Knos, live.

Related MCP server: memmd-mcp

Paid on proof

The proof is checked before any money moves. A milestone names its checker in the brief. The proof can be:

  • a lab result or a public evidence page, read by the milestone's checker;

  • checks that GitHub signs, verified on chain;

  • the same verdict signed by two of three referees;

  • a verdict from IRIS inside a lab's own walls. Its agent can only say no or ask a person.

flowchart TB
    held["The money is held on Solana devnet"] --> proof["The maker sends the proof for one milestone"]
    proof -->|verified| paid["The program pays the maker for that milestone"]
    proof -->|not verified by the deadline| back["The program refunds every backer"]

Nothing is paid on a promise. A missed deadline sends the money back.

Try it in ten seconds

Open the demand check in your browser. Type what you are about to build, or press one of the samples. Qloo's taste data says who wants it and where to launch it. The whole crossing runs in the app, with nothing to install and no sign-up.

Why nobody can fudge the count

The terms of a brief are locked by a hash before any money moves. A changed target or deadline gives a different hash. So a change cannot hide.

The money waits in a program on Solana, not with Knos. That program pays only on a verified proof. At the deadline it refunds the backers instead.

Neither the maker nor Knos can move the money alone.

Today one person can still change that program, after a public wait (who holds the keys).

Today Knos earns its fee only when work is accepted. When you get a refund, the fee goes back to you. So Knos gains when work passes, and it is not yet fully neutral (what is enforced and what is a promise).

Is it real?

It runs on test money only: test USDC on Solana's practice network, devnet.

There are no customers yet. Nobody has bought anything (what is not real yet).

One person holds every key today. Any change to the programs waits in public for 8 days first (who holds the keys).

What

Today

Read from

This copy

Release 0.4.0, October 2026. A copy naming an older release, or another product, is out of date

CHANGELOG.md; the newest: PyPI

Reproduced by someone else

0 of 267

docs/reference/CAPABILITIES.md, the rows "reproduced by someone else"

Exercised at the public devnet program ids

26 of 267: GitHub token verification, funding by one comment, funding from a wallet, pay on merge, refund at the deadline, pause, work orders, an order paying up to four payees, orders checked by the buyer's black-box tests, auto-accepted orders, a holdback released after its warranty, top-ups, single-use tokens, one counted evaluation, a counted batch of evaluations, the seller's own count, a payee's passkey wallet, a passkey funder, the passkey relay, the site's Buy page, an x402 order, the upgrade gate, strict JSON in the verifier, an outcome that is not code, ES256 tokens in one transaction, the presentation grace

docs/reference/CAPABILITIES.md, the rows "exercised on devnet"

Deployed at the public devnet program ids, no transaction recorded

3 of 267: GitLab token verification, the key guardian, holding pay for a payee with no wallet

docs/reference/CAPABILITIES.md, the rows "deployed on devnet"

Tested here only

234 of 267, each with the test its row names

docs/reference/CAPABILITIES.md, the rows "tested locally"

Written, not tested

4 of 267

docs/reference/CAPABILITIES.md, the rows "implemented"

Outside funders

0

docs/NUMBERS.md, row 1

Outside repositories

0

docs/NUMBERS.md, row 2

Outside payees

1, on tasks Knos funded itself

docs/NUMBERS.md, row 3

Payments between unrelated accounts

3, on tasks Knos funded itself

docs/NUMBERS.md, row 4

Buyer interviews held

0

docs/NUMBERS.md, row 5

Letters of intent

0

docs/NUMBERS.md, row 6

Reproductions signed by GitHub

0

docs/NUMBERS.md, row 7

Outside programs reading the verifier

0

docs/NUMBERS.md, row 8

Shadow counts published

0

docs/NUMBERS.md, row 9

Paying customers

0

docs/reference/DISCLOSURE.md

Revenue

0; test USDC is not money

docs/PRICING.md

Outside security review

none

docs/reference/ASSURANCE.md

Key holders

one person holds every key; an upgrade waits 8 days in public

docs/reference/GOVERNANCE.md

Network and money

Solana devnet, test USDC; mainnet is not touched

docs/reference/SECURITY.md

From a terminal

knos demand "a vegan ramen food truck" --place London     # Qloo's demand check: who, where, price tier
knos idea get arxiv:<id> --out idea.json                  # a paper as one claim record
knos idea wanted idea.json                                # demand evidence and the stage plan; sends nothing
knos idea commit idea.json --units <n> --price <n>        # lock the stages on devnet, one order a stage
knos idea check idea.json <oracle>                        # is one stage met right now?
knos idea release <commitment> <stage> --sig <verdict>    # pay a met stage on the referees' signed verdicts
knos idea refund <commitment> <stage> --wallet <keypair>  # refund a missed stage; anyone may send it

Install with pip install knos. The app answers the same steps over HTTP: POST /api/check (the demand check), POST /api/ready (the Ready brief) and POST /api/preorder (a pre-order on devnet). Run knos idea --help for every option.

Check every claim yourself

Start at the release page: the code, how it is built, what runs on devnet, the payments and the fees.

One payment from start to end, on 9 Oct 2026 with Knos 0.3.23, in a repository Knos owns, with test USDC (one step fixed by hand): funded · wrong work refused · paid (on verified proof) · replay paid nothing more · the record.

Rebuild knos_oidc and knos_pay, the programs that check the proof and pay, and compare: the hash devnet runs equals the verified build hash recorded for each (PROVENANCE). Read on 27 Oct 2026.

solana-verify get-program-hash -u devnet FkwZdsYCmzicJMtHLTkPK76bYNVG4WNwkWJBiVWNtF3W   # knos_oidc: a2df952d262c48edacf2f594a01321e805c28f1dc523cb6efa75f2c45f34e632
solana-verify get-program-hash -u devnet 5y7iWJ1VAMJjnnWbbdo2a2PsWJEwTExSNpzrvQSEnS8k   # knos_pay: 8b3c044024eac6e00cf10930c325465d5682c3fb7273fe2f0d59c6e01f99867c

Words

Qloo, Ready brief, milestone and more, each in one plain line: docs/WORDS.md.

Questions

What is Knos?

Knos takes research from a paper to a product people want. It pays each step only on verified proof.

How does Knos pay an AI agent?

You post the task, your checks and the pay before work starts. When the checks pass and you merge, a program pays the agent.

Does Knos use real money?

No. It runs on devnet, Solana's practice network, with test USDC worth nothing.

What does Knos cost?

Ten demand checks a month are free; releases will cost companies 1%. Today devnet charges 0.30%, at least 0.05 test USDC.

Who holds the money?

A program on Solana holds it, not Knos. Today one person can change that program, after a public wait.

Can the buyer refuse to pay?

Not once the checks pass and the work is merged. Before that, the buyer still chooses whether to merge.

Who keeps the count of accepted work?

Neither side alone. A program checks GitHub's signature of which workflow ran, on which commit.

How do I try Knos?

Open the front door and type the product you want to build. It says who wants it and where, with no sign-up.

Read more

  • Get started: check demand, write a Ready brief, then hold the money and pay on proof.

  • Pricing: what Knos costs. Demand checks are free, 10 a month. The maker keeps 100%; the company pays the 1% release fee and the payment costs on top. Nobody is charged today.

  • Trust: who holds the keys, and what is tested.

  • The story: one crossing, step by step, each with its evidence.

  • Every other document: the map of the documents.


Contact: open an issue, or report a security problem privately: SECURITY.md.

Below: tables that scripts write from the code and the chain, and the licence. Nobody types them by hand.

program

address

on devnet, as docs/capabilities.json records it

knos-oidc, the verifier

FkwZdsYCmzicJMtHLTkPK76bYNVG4WNwkWJBiVWNtF3W

runs 2.2

knos-pay, the payment program

5y7iWJ1VAMJjnnWbbdo2a2PsWJEwTExSNpzrvQSEnS8k

runs 2.2

knos-meter, the count

FUMKkcE95x2kZUj1zZTCbgcYBmJ3WXPHL8pyA8J6anX

runs 1.1

knos-passkey, a wallet from a passkey

FQPX9i5kQxLYKZyyPgM2fVK9am3w1LSk1Cuoer1sSY85

runs 1.1

Every program the app or this site uses, and who can upgrade it, read from devnet on 2026-10-26 (scripts/program_authorities.py):

program

address

used for

upgrade authority

knos-pay 0.3.34: the app's live program (0.3.34)

FaMHCjzyUexFncZrmNyFQNz3gBdsLbhTLke7QBFykJY4

every pre-order, milestone payout and agent payout of the app

CKCrTBN542pVhizxuSPVg8tvdnPooNxt9B7o97VuTjz2, the Squads vault (an upgrade waits out its 8-day time lock)

knos-oidc 2.2: the verifier of GitHub's signed checks

FkwZdsYCmzicJMtHLTkPK76bYNVG4WNwkWJBiVWNtF3W

pay on merge, the site's signature line

CKCrTBN542pVhizxuSPVg8tvdnPooNxt9B7o97VuTjz2, the Squads vault (an upgrade waits out its 8-day time lock)

knos-pay 2.2: the payment program

5y7iWJ1VAMJjnnWbbdo2a2PsWJEwTExSNpzrvQSEnS8k

pay on merge, the site's work orders

CKCrTBN542pVhizxuSPVg8tvdnPooNxt9B7o97VuTjz2, the Squads vault (an upgrade waits out its 8-day time lock)

knos-meter: the count

FUMKkcE95x2kZUj1zZTCbgcYBmJ3WXPHL8pyA8J6anX

the meter on the site

CKCrTBN542pVhizxuSPVg8tvdnPooNxt9B7o97VuTjz2, the Squads vault (an upgrade waits out its 8-day time lock)

knos-passkey: a wallet from a passkey

FQPX9i5kQxLYKZyyPgM2fVK9am3w1LSk1Cuoer1sSY85

passkey wallets in the app

CKCrTBN542pVhizxuSPVg8tvdnPooNxt9B7o97VuTjz2, the Squads vault (an upgrade waits out its 8-day time lock)

knos-hook: the transfer hook

AFQFtodihz5jAHpVBUk87AkH8FJsQdmHt8Z5NKLWRj1T

the app's Token-2022 project credits

CKCrTBN542pVhizxuSPVg8tvdnPooNxt9B7o97VuTjz2, the Squads vault (an upgrade waits out its 8-day time lock)

knos-oidc, first deployment

vpWym9azbPU5f2PH2a6n8c4RfmsyUeW2dMuWr1DSHcE

the site's history of the first deployment

none: nobody can change it

knos-pay, first deployment

9UzPFbh2A4e4sEPgngKG523FfYLnQ3qPfFVfFTTAdfDi

the site's history of the first deployment

none: nobody can change it

SPL Record (Solana)

recr1L3PCGKLbckBqMNcJhuuyU1zgo8nBhfLVsJNwr5

the app's chain-state records

7VaWK6qq7WLBiMQ8TTAGwrFJfAekAwra4UPKr4S5UNjB, one key

SPL Memo (Solana)

MemoSq4gqABAXKb96qnH8TysNcWxMyWCqXgDLGmfcHr

the app's fee estimate and its notes on chain

none: not an upgradeable program

Token-2022 (Solana)

TokenzQdBNbLqP5VEhdkAS6EPFLC1PHnBqCXEpPxuEb

the app's project credits

3URRPr96EV2wuNRgQKwQpuZitHHsVyDUen1eRSvEun9G, one key

Squads multisig

SQDS4ep65T869zMMBKyuUq6aD6EgTu8psMjkvj52pCf

the upgrade and guardian vaults

HM5y4mz3Bt9JY9mr1hkyhnvqxSH4H2u2451j7Hc2dtvK, one key

This page names no time for an upgrade, so it stays true before and after one. To see whether a change to the programs is waiting, done or withdrawn, run knos status, or read the site's banner or its upgrade record (web/upgrades.json is the copy kept here).

The first set of programs (programs) has no upgrade authority, so nobody can change it. It stays as a record, and no new task is funded there.

Reproduced by someone else: none recorded yet. Exercised on devnet: verify_github, fund_by_comment, fund_from_wallet, pay_on_merge and more, each named in the table. Deployed on devnet: verify_gitlab, key_guardian, hold_and_bind. Everything else is tested locally, implemented or not built: the table with the evidence has one row for each capability, from docs/capabilities.json. Only runs at the public program ids count here. Each capability's row also notes, with its transaction, any earlier trial run at separate test addresses (Knos 0.3.14).

MIT licence, all of it. Built by drexthealpha. Everything Knos remembers is kept by the Sibyl memory engine.

Available Tools

3 tools
aboutAInspect

What is known about one thing: a file, a person, a topic.

NameRequiredDescriptionDefault
thingYes

Output Schema

NameRequiredDescription
resultYes

TDQS

A3.5/5.0
Behavior3/5

Does the description disclose side effects, auth requirements, rate limits, or destructive behavior?

With no annotations provided, the description carries the full burden of disclosing behavior. 'What is known' suggests a read-only retrieval operation, which is useful, but it does not state what happens for unknown entities, whether any side effects occur, or whether special permissions/identifiers are needed.

Agents need to know what a tool does to the world before calling it. Descriptions should go beyond structured annotations to explain consequences.

Conciseness5/5

Is the description appropriately sized, front-loaded, and free of redundancy?

The description is a single clear sentence with no filler, and the core semantic ('what is known about one thing') is front-loaded. It earns its place without redundant phrasing.

Shorter descriptions cost fewer tokens and are easier for agents to parse. Every sentence should earn its place.

Completeness3/5

Given the tool's complexity, does the description cover enough for an agent to succeed on first attempt?

For a single-parameter tool with an output schema present, the description is minimally adequate: it names the input concept and implies retrieval. But it leaves the parameter format ambiguous and gives no routing guidance relative to 'search' and 'remember', which are the main completeness gaps.

Complex tools with many parameters or behaviors need more documentation. Simple tools need less. This dimension scales expectations accordingly.

Parameters3/5

Does the description clarify parameter syntax, constraints, interactions, or defaults beyond what the schema provides?

The input schema provides only a required property named 'thing' with no description, so schema coverage is 0%. The description partially compensates by defining the parameter as a file, person, or topic, but it does not specify the expected format, identifier type, or how to distinguish between those referent kinds.

Input schemas describe structure but not intent. Descriptions should explain non-obvious parameter relationships and valid value ranges.

Purpose4/5

Does the description clearly state what the tool does and how it differs from similar tools?

The description conveys a lookup-style tool for a single referent ('What is known about one thing') and gives concrete examples ('a file, a person, a topic') that clarify the resource scope. It is distinguishable from the siblings 'search' and 'remember' by emphasizing facts about one entity rather than discovering or storing, though it does not name the siblings directly and uses the vague word 'thing'.

Agents choose between tools based on descriptions. A clear purpose with a specific verb and resource helps agents select the right tool.

Usage Guidelines3/5

Does the description explain when to use this tool, when not to, or what alternatives exist?

Usage is implied: use this tool when you need known information about a single file, person, or topic. However, there is no explicit guidance about when to prefer 'search' for broader discovery or 'remember' for storing knowledge, and the siblings are not mentioned in the description.

Agents often have multiple tools that could apply. Explicit usage guidance like "use X instead of Y when Z" prevents misuse.

rememberAInspect

Write something back, so the next session in any agent knows it too.

Set `claiming` when you are about to start work on this, rather than
just noting something. Other agents are then told you have it and knos
withholds it from them until you finish or half an hour passes. Writing
a plain fact claims nothing: a note everybody can read is the point.
NameRequiredDescriptionDefault
factYes
aboutYes
claimingNo

Output Schema

NameRequiredDescription
resultYes

TDQS

A3.8/5.0
Behavior5/5

Does the description disclose side effects, auth requirements, rate limits, or destructive behavior?

There are no annotations, so the description carries the full burden. It goes beyond the schema by disclosing that claimed facts are withheld from other agents, that the claim releases when work finishes or after half an hour, and that plain facts are readable by everyone. This is meaningful, non-obvious behavior.

Agents need to know what a tool does to the world before calling it. Descriptions should go beyond structured annotations to explain consequences.

Conciseness4/5

Is the description appropriately sized, front-loaded, and free of redundancy?

The description is short and front-loaded: purpose first, then only the claiming nuance that materially affects how the tool behaves. It is not bloated, though the typo 'knos' is a minor polish issue.

Shorter descriptions cost fewer tokens and are easier for agents to parse. Every sentence should earn its place.

Completeness3/5

Given the tool's complexity, does the description cover enough for an agent to succeed on first attempt?

The essential write-and-claim semantics are well covered, and because an output schema exists, return values need not be described. However, given the locking/timeout complexity and no annotations, a complete definition should also explain the required 'about' parameter and perhaps give an example of a fact/about pair.

Complex tools with many parameters or behaviors need more documentation. Simple tools need less. This dimension scales expectations accordingly.

Parameters3/5

Does the description clarify parameter syntax, constraints, interactions, or defaults beyond what the schema provides?

Schema description coverage is 0%, so the description must explain parameters. It thoroughly explains 'claiming' and clarifies that a 'plain fact' is a shared note, but it never defines the required 'about' parameter or the expected shape/scope of 'fact'. This partial compensation leaves one required parameter ambiguous.

Input schemas describe structure but not intent. Descriptions should explain non-obvious parameter relationships and valid value ranges.

Purpose4/5

Does the description clearly state what the tool does and how it differs from similar tools?

The first sentence identifies a concrete action — 'Write something back' so future sessions know it — and the rest clarifies that this is a shared note versus a claimed work item, which separates storing from searching. The resource is a bit vague ('something'), but the required fact/about parameters and the write-vs-claim distinction make the core purpose clear.

Agents choose between tools based on descriptions. A clear purpose with a specific verb and resource helps agents select the right tool.

Usage Guidelines3/5

Does the description explain when to use this tool, when not to, or what alternatives exist?

The overall use case is implied: persist information so a future session can read it. It gives clear advice on setting 'claiming' when starting work instead of merely recording a fact, but it never explicitly contrasts this tool with the sibling tools 'search' or 'about' or states when not to use remember.

Agents often have multiple tools that could apply. Explicit usage guidance like "use X instead of Y when Z" prevents misuse.

Tool Schema Changelog

Recent tool additions, removals, and schema changes observed during successful MCP inspections.

  1. 3 tool updatesv0.1.2
    • First observedabout
    • First observedremember
    • First observedsearch

TDQS

A3.9/5.0

Scored across 3 tools

Disambiguation4/5

search and about both query stored knowledge, so an agent could initially confuse a broad search with an entity-focused lookup, but the descriptions make the distinction clear: search returns provenance-backed results from repo memory, while about targets one thing. remember is wholly separate as a write operation.

Naming Consistency4/5

All tool names are lowercase single words, creating a simple and consistent style; search and remember are clear verbs, while about is more of a query noun/preposition, slightly deviating from a strict verb pattern.

Tool Count5/5

Three tools is well-scoped for a focused memory/knowledge server: query broadly, query a single entity, and write back. Each tool has a distinct role and none feel redundant or missing at this level of abstraction.

Completeness4/5

The core read/write/query lifecycle for shared repo memory is covered, and claimed work handling is integrated into search and remember. Minor gaps exist around updating or forgetting explicit memories, but agents can work around these with search.

Maintenance

ActivityActive
ResponsivenessWithin a week

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