aweb-naapp
The reusable Native Agentic App (naapp) docs surface. Every naapp built with it serves the same standard surface — so the standard is shared code, not a doc copied by hand.
An app supplies its canonical aweb-app.json manifest, a SiteConfig (brand,
nav, footer), and its own landing body, and gets:
- the aweb design system (Paper/Clay), vendored and sha-pinned, served at
/css/aweb.css; - the shared chrome — head, header, footer, theme toggle, and copy button;
- manifest-driven llms.txt blocks — the operations list and the team-certificate authentication section;
- the
/referencepage — every operation in parallel as the canonicalaw <verb>command and the raw HTTP wire format, with the honest team-cert v2 envelope linked to the conformance vector.
import aweb_naapp as naapp
site = naapp.SiteConfig(
origin="https://library.aweb.ai",
brand="library",
title="library — agent profiles for AWID teams",
description="...",
nav_links=(naapp.NavLink("Reference", "/reference"), ...),
footer_blurb="...",
footer_columns=(...),
footer_bottom="library is a Native Agentic App on the aweb.ai hub. AWID is the identity authority.",
)
reference_html = naapp.render_reference(manifest, site, verb="library")
landing_html = naapp.page(site, body_html, include_copy_llms=True)
css_bytes = naapp.aweb_css()
For numbered instructions under a section's h2, use the shared component:
steps_html = naapp.render_numbered_steps([
naapp.NumberedStep("Choose a task", "Read the <code>reference</code>."),
naapp.NumberedStep("Run the command", "Use your team's identity.", "example --help"),
])
Titles and commands are escaped plain text. description_html is trusted,
developer-authored inline HTML; never put user content in it. Commands are
optional and use the shared copy button. The component's responsive styles are
part of the normal CSS bundle; no app-local stylesheet is needed.
The docs surface is pure standard library. Request-time runtime code (the
team-auth verifier, approvals, passkeys, and team-server discovery from the
team's AWID aweb.team-server/1 record) lives under aweb_naapp.runtime and
needs the runtime extra: aweb-naapp[runtime]. Two parts the core server
shares import without it: the durable outbox, aweb_naapp.outbox
(aweb-naapp[outbox]), and the signing-key reader, aweb_naapp.signing_key
(aweb-naapp[signing-key]).
The egress guard, aweb_naapp.egress, is for naapps that call an external
service with their own credential. It needs only the egress extra,
aweb-naapp[egress], and none of the runtime. It canonicalizes and matches
outbound URLs under the contracts in docs/vectors/egress-url-v2.json and
docs/vectors/egress-address-v1.json, resolves names itself and refuses any
denied address, and sends a request only to the destination it matches,
through one pinned, verified connection. Redirects come back as responses, no proxy is read from
the environment, and a failure is classed as not sent or of unknown outcome.
The email sender, aweb_naapp.email, sends a naapp's links and notices, one
recipient per message, over SMTP with TLS required and the certificate
verified. It is pure standard library and needs no extra.
EmailSettings.from_env(prefix) reads <PREFIX>EMAIL_SMTP_HOST, _SMTP_PORT,
_TLS (starttls or implicit), _USERNAME, _FROM, an optional
_CA_FILE, and the password from the key file named by _PASSWORD_FILE
(aweb_naapp.key_file), never from the environment; anything missing or
malformed fails at startup. A failed send raises EmailNotSent with a code, and
neither errors nor logs carry the body or the full recipient.
A server that produces hook events (docs/hook-events.md) uses
aweb_naapp.hooks.producer and aweb_naapp.hooks.transport, with the hooks,
outbox and egress extras. HookProducer.enqueue(tx, ...) signs an event and
stores it on the outbox's hooks channel in the effect's own transaction. An
audit-critical event is refused with audit_target_unavailable unless the
registration view the caller read beforehand is fresh and holds a registration
owed it. The drain resolves deliveries with hook_targets(registrations), and
HookTransport re-checks each binding, signs a hook-delivery request and sends
it through the egress guard to the binding's endpoint only.
Producing runtimes install aweb-naapp[runtime,egress]. A manifest with
an implemented app production in aweb.hooks v1 must declare and configure a
hook-event key and a hook-resolve key in app_key_files; the runtime loads
them at construction.
A manifest-command production also requires manifest_request_key_file, the
independent random 32-byte commitment key in the shared key-file format.
No-hook runtimes need none of this configuration.
Unknown catalogs, versions and hook names remain in the served manifest but
configure no producer, drain or commitment. Core-only and client-only hooks
likewise configure no app producer. A supported production in the same manifest
still requires its own purpose keys.
runtime.hook_registrations() returns one TeamServerRegistrations source on
that exact runtime.hook_resolver(). Fetch its view outside authority locks.
runtime.hook_producer(installation_id=..., generation=...) -> HookProducer
uses the installation resolved by the grant/fence, the served app identity and
the loaded hook-event key. Call its enqueue(tx, ...) in the actual effect or
operational-record transaction; an Authorization and a completed HTTP
response do not provide that transaction. Required enqueue failure rolls back
the local effect. The runtime starts and joins a separate hooks-channel drain
in its lifespan, using HookTransport with that same registration source/key.
App-event delivery stays on its own channel. The default egress rejects
private destinations; a self-hosted operator may explicitly supply
hook_egress and hook_internal_cidr under the shared guard's existing rules.
hook_events_stalled_after_seconds and hook_delivery_timeout_seconds bound
retry reporting and each drain call.
For a generic manifest command, runtime.authorized() reads the bounded
original body and prepares the commitment after authenticating, matching the
tool and resolving its fresh installation grant. It does this before policy or
credential injection. The effect owner then calls:
await runtime.record_manifest_command(
tx, request=request, authorization=auth, http_status=201,
resource_refs=("thing:opaque",), result_ref="result:opaque",
)
The call enqueues in tx; let any enqueue failure roll back the effect. Call
once for the logical effect, preserving its stored event on replay. No response
wrapper can supply that transaction. An attributable scope/policy refusal is
recorded by the guard in its own refusal transaction; successful enqueue
preserves its HTTP status. Storage failure still fails closed. A handler's own refused outcome uses the same method with
refused=True and no result_ref. Refusals without complete bounded bytes,
verified authentication, a matched tool and installation emit no generic event;
an over-bound body returns 413 without draining the rest. The bound is
manifest_hook_max_request_bytes (default 1 MiB, maximum 16 MiB).
Mutations fire; reads fire only when listed by that production. Configure
hook_tool_effects={"tool": "post-secret-use-hook"} (or
post-governance-hook) for tools owned by a specific declared production;
these never also fire the generic hook, including on refusal. The generic
payload carries only the matched tool, request HMAC and safe outcome/opaque
refs; concrete paths, query/header/body values never enter it. HMAC context
comes from the served app and resolved installation. The raw external target
(including mount prefix), counted Content-Types and exact JSON/raw body bytes
are bound before injection. Only verified signed trace IDs are propagated.
Rotate by replacing the configured HMAC key, restarting producer replicas and
destroying the old key; the key is loaded once per runtime. New runtimes use
the new key, while existing outbox signing bytes/signatures remain unchanged
across retries and restarts.
Hook production still requires owner activation and updated receiver support
before deployment; none is inferred from a manifest declaration alone.
For admission, call HookProducer.require_admission(tx, *, team_id, hook, occurred_at, view, max_backlog_age) with a fresh view obtained outside
authority locks. It reads that team's/hook's eligible target backlog directly
from the shared outbox, including unmaterialized events. No target refuses
with audit_target_unavailable; all eligible targets beyond the age bound
refuse with audit_delivery_stalled. A healthy target next to a stalled
secondary admits. View freshness and backlog age are checked again using the
live clock after the DB query returns, including after a lock wait. Apply the
outbox's new ordered admission-index migration.
The helper grants no use authority and replaces no dispatch fence.
HookProducer.enqueue_refusal(tx, *, team_id, payload, actor, occurred_at, signed_trace_id=None) accepts only secret-use action=refused and fixes
result_status=denied. Target availability/backlog cannot block the refusal's
local record; validation, signing and transactional storage still apply.
Record the operational/console refusal in that same transaction. With no target
owed at the event time, zero deliveries are owed: a future target is never sent
old refusals retroactively. Existing targets receive their backlog after
recovery. Neither method authorizes an external effect (decision 94).
Operators: a hook target is sent to as a public destination. A self-hosted
operator who also wants hooks to reach targets inside its own network allows
internal destinations on the egress and passes that network as
HookTransport(internal_cidr=...); a target the guard refuses as a private
address is then tried once more inside that network, and only there. This is
an opt-in to server-side requests into your network: any activated binding
whose origin resolves inside internal_cidr becomes reachable, and a
third-party app's owner controls its own DNS, so keep internal_cidr as
narrow as the hosts of your own apps. A hosted deployment allows neither, so
private addresses are never reached. Before rotating the producer's hook key,
drain the hooks channel: undelivered events carry the old key's signature,
and their deliveries would end rejected.
Database schema
An app's tables live in <PREFIX>DB_SCHEMA (default public). The runtime pins
every connection's search_path to it, so the app works whatever its database
role's default search_path is. A new app should set its own schema: apps that
share one database also share the runtime's own tables (the outbox, observed
principals) unless their schemas differ.
Each shared store, meaning every aweb_naapp module with its own migration
module (the outbox, idempotency and rate limits among them), owns its tables in
the app's schema, and its migrations apply before the app's own. An app's migrations
never create or alter a store's table: CREATE TABLE IF NOT EXISTS under the
same name collides silently, and which shape wins depends on which migration
applied first.
Current link-creator membership
Before opening any transaction for a creator-scoped link use, call
proof = await runtime.check_current_member(team_id, certificate_id=..., team_did_key=...).
The team scope must be verified, and the certificate id and team key must come
from the authenticated mint-time Principal, retained as immutable link metadata.
An observed-principal row or a bare creator DID is not membership evidence.
This uses the request verifier's AWID cache, with the same maximum 60-second
revocation window. Success returns the frozen MembershipProof from
aweb_naapp.runtime.team_auth: team_id, certificate_id, team_did_key,
checked_at and fresh_until. Both times use time.monotonic() from the
original facts' fetch-start and expiry. A cache hit does not renew them. The
proof stays in the same process: never serialize, persist or accept it from a
request. Facts that expired during lookup raise retryable 503.
After taking the link lock, check the proof's team against both the link scope
and immutable mint evidence, and its certificate id and key against that
evidence. Read the monotonic clock after acquiring the lock; refuse a missing,
mismatched or expired proof (now > fresh_until) with 403
current_member_required. There is no network call under the lock.
require_current_member(...) remains a thin wrapper discarding the proof;
it may do network I/O and must also run before any transaction.
Incomplete evidence, an unknown or
revoked certificate, or a changed team key raises HTTPException with status
403 and detail.code=current_member_required. Unavailable or unreadable AWID
facts raise 503 with detail.code=current_membership_unavailable; propagate
that retryable failure rather than treating it as revoked authority. The host
still checks the creator's page/installation permissions separately.
App keys
An app names its signing keys by kid, as key files:
<PREFIX>APP_KEY_FILES='{"<kid>": "/run/secrets/<file>"}'. A key file holds the
32-byte Ed25519 seed as 64 hex characters, with one trailing newline allowed. It
must be a regular file of at most 1 KiB, and must not be group- or world-writable. The
app-event key may instead be given as <PREFIX>APP_EMIT_KEY_SEED_HEX with
<PREFIX>APP_EMIT_KID, a form that signs app events only. An app with
<PREFIX>APP_EVENTS_ORIGIN set (https, or http on loopback) must hold its app-event key.
The served manifest
The committed aweb-app.json is a template. It declares the app's kids and the
purposes each signs (a version 2 manifest in app_keys, a version 1 manifest's
event_emitters as app-event keys), its local event types, and the hosted
app.id default, and it commits no did_key. At startup the runtime fills in
the deployment's own <PREFIX>APP_ID, its public origin, and each declared kid's
did:key derived from that kid's configured key, then serves the canonical bytes
(aweb_naapp.manifest.fill_manifest). The app does not start if a declared kid
has no configured key, if a key is configured for a kid the template does not
declare, if the template commits a did:key or names an event type with an app
prefix, if the filled manifest is invalid,
or if it would serve the hosted app id at an origin others can reach (anything
but the hosted origin or a loopback origin, private-network addresses included).
Operator rules:
- The app id is permanent. Keep
<PREFIX>APP_IDstable for the deployment's lifetime: installations are bound to it, so changing it orphans them. - Rotating a key is a new kid. Add the new kid beside the old one in the template, configure its key, and deploy. The served bytes change, so every team re-pins the new digest; a kid keeps the did:key it was first published with.
- The same configuration always serves byte-identical manifest and catalog bytes, on every replica and restart, so their digests can be recorded at deploy.
Health
/live reports the app's id and build commit. /health and /ready also run
the app's dependency checks and report each by name: ready is 503 when any
check fails, and health always answers 200. The runtime checks its database
and reports the age of its oldest undelivered outbox event
(NaappRuntime.health_checks()). An app adds its own as async callables that
return a CheckResult. A check that raises, or does not answer within 5 s,
fails, and its error is logged, never served. /ready serves only whether each
check passed; /health adds each check's detail, whose values are numbers,
booleans or null, never text. The routes are unauthenticated,
so the checks run at most once every 10 s: concurrent requests share the run in
flight, and later ones get its result until it expires.
Agent and human origins
An app with pages for people in a browser serves them on their own origin.
aweb_naapp.runtime.origins.split_origins(agent_app, human_app, agent_origin=..., human_origin=...) is one ASGI app that dispatches on Host:
- the agent origin serves the runtime's app, with no cookies in either direction, so its only authority is the team-auth signature;
- the human origin refuses any request carrying
Authorization,X-AWEB-*orX-AWID-*(403 team_auth_refused); - any other host is
421 unknown_origin.
A route exists on one origin because it is declared in one of the two apps. The lifespan is the agent app's.
Team grants
aweb_naapp.runtime.team_grants.TeamGrantSource implements the runtime's
GrantSource. Construct it with AppIdentity(app_id=..., origin=..., digest=...) for the exact manifest bytes the app serves, an
AppCredentialSigner for app-grant-read, and the runtime's shared
TeamServerDirectory as discovery. It reads only the team's controller-signed
server URL; it creates no directory or resolver of its own.
runtime.team_cache() and runtime.team_server_directory() return the same
configuration-only objects before, during and after the lifespan; constructing
them makes no network requests. This permits wiring the grant source and
registering runtime.authorized(grants=source, policy=...) before startup's
route validation. The database remains available only inside the lifespan.
For example, before mounting the guarded routes:
import hashlib
from aweb_naapp.runtime.app_credentials import APP_GRANT_READ, AppCredentialSigner
from aweb_naapp.runtime.app_keys import load_app_key
from aweb_naapp.runtime.team_grants import AppIdentity, TeamGrantSource
key = load_app_key(settings, runtime.manifest, APP_GRANT_READ)
source = TeamGrantSource(
identity=AppIdentity(
app_id=runtime.manifest.app_id,
origin=runtime.manifest.document["app"]["origin"],
digest="sha256:" + hashlib.sha256(runtime.manifest_bytes).hexdigest(),
),
signer=AppCredentialSigner(app_id=runtime.manifest.app_id, key=key, purpose=APP_GRANT_READ),
discovery=runtime.team_server_directory(),
)
guard = runtime.authorized(grants=source, policy=policy)
The runtime's cached runtime.hook_resolver() uses that same directory and the
served app identity. If the manifest declares hook-resolve, its key is loaded
at construction: missing or ambiguous configuration refuses startup. An app
without that purpose can start but cannot obtain a resolver using another
purpose's key. The keyword-only team_server_transport constructor seam is
for requests to the coordination server; awid_transport remains the AWID
registry seam. Both default to normal production networking.
For event ingestion, use the same publication check as request authentication:
await team_auth.require_active_certificate(runtime.team_cache(), team_id=..., certificate_id=...). It returns current AWID facts only for a published,
unrevoked certificate, preserving 401 for unknown/revoked membership and 503
for unavailable authority. This helper does not verify a certificate or event
signature; consumers still verify their signed artifacts.
grant_for(team_id) returns an active Grant or None when no key is
registered or the installation is not active. status_for(team_id) shares
the same cache and returns a GrantStatus with the installation's state,
identity, generation, scopes and origin provenance. Unknown states grant no
use; None is never evidence of uninstall. Discovery failures, malformed or
mismatched answers, and failed refreshes raise GrantUnavailable.
Missing-key denials expire after five seconds to allow prompt post-install retries.
Answers expire at most 60 seconds after the shared read starts; the server may specify less. Expired answers are never served. The default total timeout is 5 seconds, including discovery, and concurrent grant reads share a refresh.
Hook resolution
aweb_naapp.runtime.hook_resolver.HookResolver asks a team's coordination
server where to deliver its hook events (registrations), whom it accepts them
from and with which keys (productions), its own bindings in every state
(own_bindings), and the server's core producer keys (core_producer_keys).
It signs with the app's hook-resolve key and reaches only the server the
team's AWID aweb.team-server/1 record names. Answers are reused for at most
60 seconds and never past their freshness. Every failure raises
HookResolutionUnavailable, except a missing complementary binding, which
raises HookBindingRequired. A binding is listed while active, including
before its active_from, which the caller compares with an event's
occurred_at. The server's side is described in docs/app-registry.md.
Approvals and passkeys
aweb_naapp.runtime.approvals is the single-use human approval primitive that
apps share. An agent proposes an exact request; any one of the owner-designated
humans eligible for it approves or rejects it; a trusted dispatcher then admits
exactly one dispatch of that exact request.
- Frozen request.
request_sha256is SHA-256 overaweb.approval-request/1\nplus the canonical JSON of the request and its policy reference and version. Changing any covered value needs a new approval.parse_request_jsonrefuses duplicate keys, floats and non-finite numbers. - Who decides. A policy names its
approver_scopes, and the app'sApproverDirectory.candidates(policy, request)returns the eligible approvers: one designated person each, never a group, role or shared subject. Mint freezes them as the approval'scandidates, one per subject, without the requester unless the policy setsallow_requester_approval; with nobody left it refusesno_eligible_approver. The requester never chooses an approver, a contact or a delivery. The requester sees onlyRequesterView(request_id, state, delivery status, outcome): never a link, token or capability. The requester rule comparesrequested_bywith each approver's subject and, when set, theirprincipal_did, at mint and again at decide, so the app names the requester the same way. - One decision. Any one candidate decides, and the first approve or reject
is the only one: it is recorded as
decided_by(scope, subject, assurance, evidence ref) and every other candidate's link is revoked. A failed ceremony consumes nothing. - Presentation. A link presentation sends each candidate their own one-use
link to their registered contact through the app's
ApprovalDelivery; only its SHA-256 verifier is stored. A link is personal: it decides only for the candidate it was sent to, and a link no longer usable answerslink_unavailablewhatever the approval's state. Opening a link consumes nothing; a successful decision uses it. Under a passkey-minimum policy the request is shown only after aviewassertion, which consumes nothing; otherwise, or when the policy setslink_reveals_request, link possession alone reveals the request. A task presentation names its candidate withsubject=, and needs the app'sTaskAnswerVerifierto verify the member-signed answer and its receipt, given by that candidate'sprincipal_did; the authenticator proof is bound to that task answer, and the approval stays pending until both verify. Candidates without a principal are not eligible for a task presentation. - Assurance. Each
ActionPolicysets a minimum ofmember_sessionorpasskey. AnAuthenticatoradapter derives the evidence from a verified proof; a caller cannot claim an assurance by naming it. The passkey adapter is below;member_sessionis an adapter seam for apps that have member sessions. Every proof is bound bychallenge_bindingto one approval, candidate, purpose (approve, reject or view) and task answer. - Current approver. A decision is only as good as its approver's current
designation: challenge and decide refuse a candidate with
approver_retiredonce theApproverDirectoryno longer names them or they were retired, and withno_eligible_approveronce no candidate is left; admit refuses an approval whose decider is no longer current. Retiring an approver takes them off pending approvals, with their links, and revokes the approvals they decided that are not yet dispatched. - Admission.
admit()is a compare-and-set under a row lock and a lock per request digest. A retry under the same operation ID retrieves the admission and is not a new dispatch; afternot_sentit allows a transport retry while the approval is unexpired and unrevoked. The outcome lives on the consumption:dispatching → completed | not_sent | outcome_unknown, and the owner reconcilesoutcome_unknown. While a dispatch of the same request digest is dispatching or unknown, no other approval of it is admitted. No outcome rearms an approval. - Transactions.
mint,decide,admit,record_outcome,reconcile,revokeandrevoke_manytake an optional pgdbm transaction from the same database, so the change commits with the app's own writes. Minted in a transaction, an approval's links are not sent:mintreturns aPendingApproval, which the app passes todeliverafter the commit, so no link points at an approval that rolled back. Audit events go to the app'sAuditSinkinside the transaction of the change they record. - Bulk locks.
lock_many(tx, approval_ids)holds existing approval rows in ascending ID order until the supplied transaction ends, with no writes, audit or request-digest advisory locks. Missing and duplicate IDs are harmless.revoke_manytakes these sorted locks itself. For several batches or a confirmation plus containment, prelock the complete union before any individual B2 call; take app authority and covering-record locks first. Sorting each separate batch cannot order locks across the whole operation. - Storage.
ApprovalStoreis the interface;PgApprovalStore(db)keeps the records in the app's own pgdbm schema, andmigrate()applies its migrations (moduleaweb_naapp_approvals).
aweb_naapp.runtime.passkeys verifies app-local WebAuthn passkeys with
py_webauthn, maintained by Duo Labs
since 2017. It does all of the WebAuthn cryptography and
parsing: attestation formats, COSE keys, signature and counter checks. Its
server-only API takes the expected challenge, relying party ID, origin and
user-verification requirement as explicit arguments, which this module binds to
the approval, decision, policy and the app's own origin.
- The relying party is the app's own origin (
RelyingParty). verify_registration(credential, challenge=..., rp=...)andverify_assertion(proof, challenge=..., rp=..., credential_id=..., public_key=..., sign_count=...)are the stateless ceremony checksPasskeysuses, for any caller with its own challenges and credentials. They always require user verification and raiseWebAuthnRefusedon any failure.verify_assertiontakes the stored credential the caller chose for the expected subject and refuses a proof naming any other credential, since the proof's credential ID is not signed. The caller makes each challenge single-use, stores the credential and advances its counter with a compare-and-set onnew_sign_count.designate(tx, scope=..., contact=..., evidence=...)runs in the caller's transaction. The evidence is aVerifiedOwnerAct, which the owner-act verifier (aweb_naapp.hooks.owner_act_nonces) consumed in that same transaction:app-role.designatefor a scope's first approver,app-credential.recoverto replace one. The act names the scope, commits to the contact by hash and takes effect once. For a scope the app does not count as an owner scope (Passkeys(owner_scopes=...), every scope by default), the evidence may instead be anOwnerApprovalfromowner_approval(): an owner's decided approval, admitted and completed through B2 in the same transaction. It designates only a scope's first approver. Whether the approved request asks for that designation is the app's check.- Nothing is sent inside the transaction. After the commit the caller sends the
enrolment link and any recovery notices with
deliver(designation). If that never happens,reissue_enrolment(tx, scope=...)revokes the unused link and issues a new one to the same contact, while the approver has not enrolled. - The enrolment link goes only to the designated contact. Whoever first completes enrolment through the link registers the passkey: this is trust on first use, and the audit event records it as such. The link is as strong as the contact channel it travels through.
- Recovery from a lockout retires the previous approver at once, with its
passkeys, unused enrolment links and live approvals (through
ApprovalRevocation, in the same transaction). The new approver takes effect after a cooling-off period (LockoutPolicy, at least 72 h), during which the scope has no approver, and every contact previously recorded for the scope is notified.recovery_pending_untiltells the app to freeze its own widening changes meanwhile. retire(tx, scope=..., evidence=...)ends a scope's designation on anapp-role.revokeact consumed in the same transaction, for instance when the owner role behind the scope is revoked. The act'ssubject_refmust name the approver retire finds current, so a recovery committed after the act was signed is never retired by it. The current approver, or a recovery's pending one, is retired with its passkeys, unused enrolment links and live approvals. The scope then has no approver: its next designation is a first one and enrols a new passkey, and the retired passkeys stay dead.- Apps with a separately authorized containment path can call
retire_in(tx, scope=..., subject=..., authorized_by=..., protect=...)to retire the full designation, including a compromised contact. To revoke one lost device, userevoke_passkey_inwith the same arguments pluscredential_id(bytes). Other usable credentials preserve the designation; losing the last credential retires it. Both paths void that holder's pending/live decisions. B3 checks the subject under the scope lock, so a stale target never retires a replacement. These methods confer no authority and require no owner act or passkey ceremony: the app authenticates and authorizes the actor first. The optional asyncprotect(tx, scope, subject)hook runs under that lock before writes. The app holds its installation/role/coverage fences first and enforces its own enrolled-owner population, for example by raisingRetirementRefused("last_owner_protected"). A credential-specific hook can close over the credential ID to check siblings. Audit, key and decision changes commit or roll back in the caller transaction; nothing is sent externally. - Sessions recheck
login_evidence_is_current(scope, subject, evidence_ref)on each request, along with their own expiry. It requires login-purpose evidence for that scope/subject and an unrevoked exact credential. Revoking one key ends its sessions while a surviving key's sessions remain eligible. For an action, passtx=...after the app's authority fences to hold the approver then the credentialFOR SHAREthrough commit; retirement waits for that transaction. Withouttx, it uses a short read transaction.can_log_inalone only checks whether the holder has some usable credential. - Lock order when withdrawing an approver's authority. An app that
withdraws authority (a role, a membership, an owner) does it in one
transaction, in this order: any installation fence; the authority's own
delete (for example the S5 role delete or team purge); then
ApprovalRevocation.approver_retired, orPasskeys.retire, which calls it; then its other writes. A path that checks authority before acting on an approval takes locks in the same order: fence, authority hold, then the approval. Retiring approvals before removing the authority inverts that order and can deadlock with such a path. - A contact change needs the approver's own passkey, takes effect after a delay
(at least 24 h) and is notified to the old and the new contact. An owner can
also schedule one through an owner-confirmed change, with
change_contact_by_owner(tx, scope=..., new_contact=..., evidence=...)on anOwnerApprovaladmitted in that transaction. The delay and notices are the same, and the notices go out withsend_noticesafter the commit. It changes the contact only: no passkey is enrolled at the new contact without a recovery. The last owner's own contact is refused (last_owner_protected). Only one change may be pending at a time (contact_change_pending). The approver cancels a pending change from either path with their own passkey (contact_cancel_options,cancel_pending_contact), and the cancel wins. - A new contact counts only once its holder proves it. Every contact change,
from either path, sends a single-use proof to the new contact alone, through
PasskeyDelivery.deliver_contact_proof, bound to that contact's digest. The holder confirms it withprove_contact(token)before the change's time; a change still unproven by then lapses, and the old contact stays. A contact given at designation is proven by the enrolment completed through it. So an approver's effective contact is always a proven one, which is what the owner count behindlast_owner_protectedrelies on. Security notices, such as recovery notices, go only to proven contacts; the one message an unproven pending contact receives is its own proof. - These durations are floors. App or owner policy may lengthen them, and
deploy configuration may raise the floor itself (
lockout_floor); nothing can go below 72 h and 24 h. - Assertions are bound to one approval, purpose, task answer, request digest
and policy version through
challenge_binding. They need user verification, are single-use, and the authenticator counter must advance. - Designation is the owner's attestation of one natural person. The primitive
cannot detect sharing: a passkey or contact that several people share makes
every approval attributable only to the group. Every
Authenticatormust likewise refuse non-individual principals; amember_sessionadapter needs a per-member principal from the identity layer or a custody attestation. login_options(scope)/verify_login(scope, proof)log in a scope's in-effect approver under the same rules, returningPasskeyLogin(subject, contact, evidence_ref). What a login opens (a console or reader session) is the caller's. Roles are named scopes, such assecrets.owner, each designated through a team owner act.- Retained proof (decision 84). Configure
Passkeys(proof_context=resolver). Its asyncresolver(scope, *, tx)returnsPasskeyInstallationContext(app_id, team_id, installation_id, generation)from the authoritative persisted scope binding. B3 supplies its challenge-write transaction. The resolver reads only: application refresh, installation/role authority and locks precede B3. It must refuse unknown, ambiguous, retired or stale bindings withProofContextUnavailable(proof_context_unavailable). Missing configuration refuses assertion challenges; no context is fabricated from browser fields. - B3 freezes that context, its RP/scope and the exact existing challenge preimage
at issuance. Successful verification retains decoded authenticator data, client
data, signature, exact COSE key/credential ID, original context, counters and
times atomically with the counter CAS and evidence row. B2 passes the exact
immutable
StoredRequest.canonicalsidecar to a fresh per-ceremony passkey adapter; other authenticator adapters are unchanged. Existing challenge and signed-request bytes are unchanged. New storage is migration003. await passkeys.evidence_commitment(evidence_ref, context=admitted_context, scope=scope, subject=subject, purpose="login", tx=action_tx)validates the retained original proof and exact expected bindings, then returns the one canonical unkeyed SHA-256 commitment. Its fixed code on missing/legacy/deleted proof or mismatched bindings ispasskey_proof_unavailable, throughPasskeyProofUnavailable, anAuthenticationFailed. No summary fallback or current-context relabeling occurs. The caller separately enforces session expiry, exact-credential liveness and action authority before mutation.retained_proof(evidence_ref, tx=...)is restricted historical export, never a model projection or a new HTTP route.RetainedPasskeyProof.export()includes raw proof and possibly a credential-bearing request sidecar: authorize its disclosure and never log it. The public hook receives only the commitment. The standalonepasskey_evidence_commitment(proof)reproduces that encoding; independent reviewers additionally need their trusted approver key and expected context. Retired credentials and signing-key rotation do not rewrite history.- App lifecycle deletion quiesces that installation's ceremonies first, then
calls
delete_proofs_in(tx, context=...)to remove its proof and challenge sidecars across all generations, in the caller's transaction. Summary/audit records may remain but cannot recreate proof. Backup erasure and disclosure remain application lifecycle responsibilities. After deletion later proof retrieval is unavailable. - A passkey proves that an app-local human holds the enrolled authenticator. It is not AWID membership, team identity or key custody.
Metadata
Release files for aweb-naapp 0.4.0
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| File | Interpreter | ABI | Platform | Reset |
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| aweb_naapp-0.4.0-py3-none-any.whl | Python 3 | none | any | Details |
Total release size: 1.3 MB
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Security for aweb-naapp 0.4.0
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