@serve.zone/api

@serve.zone/api is the TypeScript client for Cloudly, the serve.zone control plane. It wraps the shared @serve.zone/interfaces contracts with a CloudlyApiClient that can authenticate, open a TypedSocket connection, receive server-pushed events, and call Cloudly management APIs from services, automation, and CLI-style tools.

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Install

pnpm add @serve.zone/api

What It Provides

The package exports a browser-safe management client and an explicit Node-only runtime client:

import { CloudlyApiClient } from '@serve.zone/api';
import { CloudlyApiClient as CloudlyRuntimeApiClient } from '@serve.zone/api/runtime';

CloudlyApiClient provides:

• A TypedSocket client connected to Cloudly.
• A local TypedRouter for Cloudly-to-client callbacks.
• Identity helpers for token-based machine clients and username/password admin login.
• Domain-focused API groups for clusters, services, images, registries, versioned secrets, private networks, platform bindings, backups, settings, tasks, domains, DNS, and deployments.
• An RxJS subject for pushed cluster config updates.

The Node-only @serve.zone/api/runtime entry adds the cluster-only secretRuntime group for recipient enrollment, registration expectations, sealed secret and Corestore credential material exchange, and deployment reporting. The browser-safe root does not resolve or expose the Interfaces runtime module.

Quick Start

import { CloudlyApiClient } from '@serve.zone/api';

const cloudly = new CloudlyApiClient({
  registerAs: 'cli',
  cloudlyUrl: 'https://cloudly.example.com:443',
});

await cloudly.start();

await cloudly.loginWithUsernameAndPassword(
  process.env.CLOUDLY_USERNAME!,
  process.env.CLOUDLY_PASSWORD!
);

const services = await cloudly.services.getServices();

for (const service of services) {
  console.log(service.id, service.data.name, service.data.imageVersion);
}

cloudlyUrl defaults to process.env.CLOUDLY_URL in Node.js and then https://cloudly.layer.io:443 when not supplied. Browser clients use the default URL unless they provide cloudlyUrl explicitly.

Authentication

Use loginWithUsernameAndPassword() for human/admin-style sessions. It talks to Cloudly's HTTP TypedRequest endpoint, registers the active socket through registerCloudlyClientSession, and then stores the returned identity. Login before start() retains the credential and registers it when the socket opens.

const identity = await cloudly.loginWithUsernameAndPassword('[email protected]', 'password');
console.log(identity.role);

Use getIdentityByToken() for machine clients that already have a Cloudly token or jump code. This path uses the active TypedSocket connection, so call start() first.

const identity = await cloudly.getIdentityByToken(process.env.CLOUDLY_TOKEN!, {
  tagConnection: true,
  statefullIdentity: true,
});

Most API groups use cloudly.identity automatically. Pass identities explicitly only for methods that expose an identity argument.

Use await cloudly.setIdentity(existingIdentity) to adopt an IIdentity returned by Cloudly's OIDC exchange or a stored login. The client snapshots the supplied value, serializes it with other authentication operations, and registers the active socket before replacing its API identity. Before start(), adoption retains the credential for initial connection restoration. Assigning the identity property directly does not register a socket or update its reconnect credential.

Use await cloudly.clearIdentity() to log out. It immediately clears identity and the retained reconnect credential, invalidates pending logins and identity adoptions, and then joins socket shutdown. A later start() opens anonymously. Ordinary stop() retains the current identity and session credential for a later restart. identity has type IIdentity | undefined; requireIdentity() returns the current identity or throws when logged out.

tagConnection: true authenticates the exact socket through the registration RPC; the option no longer writes a client-owned identity tag. Cloudly verifies the JWT and assigns its own identity metadata. Only { identity: { jwt }, protocol } is sent, where protocol is this client's protocol offer (see Protocol handshake). Registration and authentication requests bypass TypedRequest hooks and disable automatic retries. A rejected or malformed registration closes the socket and rejects authentication without replacing the existing identity.

statefullIdentity controls the identity used by API methods independently of socket registration. With tagConnection: true, statefullIdentity: false, the client preserves cloudly.identity and retains the separate socket credential for reconnect. With tagConnection: false, token authentication does not change the socket credential. Concurrent authentication calls commit in invocation order. stop() aborts outstanding authentication; late responses cannot change identity or reconnect credentials.

Reconnect re-registers the retained credential before TypedSocket publishes connected. An optional typedSocketClientOptions.restoreConnection callback runs after this registration and receives Socket8's bounded request factory. Use that callback's createTypedRequest and abortSignal for additional connection setup; the public socket is not available during initial startup. An authentication or callback failure prevents connection readiness.

Organization Private Networks

After adopting a Cloudly identity returned by its canonical IDP OIDC login, use privateNetworks.listOwnedOrganizations() for current organization picker entries. Cloudly limits them to the login's original organization grant and current owner membership. Picker entries confer no authority: each protected network or service operation checks current ownership on the server.

const { organizations } = await cloudly.privateNetworks.listOwnedOrganizations();
const organization = organizations[0];
if (organization) {
  const page = { organizationId: organization.id, cursor: null, limit: 50 };
  const { networks, nextCursor } = await cloudly.privateNetworks.listNetworks(page);
  const { services } = await cloudly.privateNetworks.listServiceCandidates(page);
  console.log(networks, nextCursor, services);
}

The facet also provides getNetwork({ organizationId, networkId }), mutateNetwork(mutation), getServiceMembership({ organizationId, serviceId }), and setServiceMembership(mutation). Service candidates contain only IDs and names. Lists use explicit cursors and limits. These calls send only the active JWT credential and use the client's existing socket or HTTP transport with automatic retries disabled.

Mutation types and structural snapshot validators come from @serve.zone/interfaces. The client captures validated mutation bodies before dispatch. Create a mutation ID once per user intent and retain the exact body and ID after an ambiguous failure. An explicit retry resends that intent; changing a body requires a new intent after refreshing current state. Updates and retirement require the observed network revision. Membership expectedRevision: null means no document has ever existed; an existing empty membership uses its current revision. A sole attachment must be the default network; multiple attachments require an explicit default selection or null.

Acceptance records desired state. It does not prove packet enforcement or DNS readiness. A successful replay can return historical state, so refresh current network or membership data after acceptance instead of treating the receipt as the latest revision.

API Groups

The client exposes focused groups instead of one large method list:

| Group | Purpose | | --- | --- | | cluster | Create, list, fetch, and update Cloudly clusters. | | services | Create, list, fetch, update, delete, and inspect service registry targets. | | deployments | List, create, update, restart, scale, and delete deployment records. | | image | Create image records, list images, and push or pull image versions. | | externalRegistry | Manage external container registries and verify registry access. | | secrets | Manage versioned service, SecretSet, platform-provider, and system secrets. | | secretRuntime | Operate cluster-scoped sealed secret delivery, Corestore control-credential retrieval, and credential publication through the Node-only @serve.zone/api/runtime entry. | | platform | Read capabilities, provider configs, desired state, and service bindings. | | backup | Create, list, fetch, restore, and clean up isolated backup rehearsals. | | settings | Read and update non-secret runtime settings, test provider connectivity, and bootstrap Cloudly's dcrouter gateway credential. | | tasks | List tasks, inspect executions, trigger jobs, and cancel executions. | | domains and dns | Manage domain inventory, verification, DNS entries, and zones. |

Example service workflow:

organizationId and serviceData are both required. The former flat service-data argument is removed without a compatibility fallback.

const service = await cloudly.services.createService({
  organizationId: 'organization-primary',
  serviceData: {
    name: 'api',
    description: 'Public API service',
    imageId: 'image-api',
    imageVersion: '1.0.0',
    environment: {
      NODE_ENV: 'production',
    },
    serviceCategory: 'workload',
    deploymentStrategy: 'limited-replicas',
    scaleFactor: 2,
    balancingStrategy: 'round-robin',
    ports: {
      web: 3000,
    },
    domains: [
      {
        name: 'api',
        protocol: 'https',
      },
    ],
    deploymentIds: [],
  },
});

const registryTarget = await service.getRegistryTarget('latest');

Example platform-binding workflow:

const capabilities = await cloudly.platform.getPlatformCapabilities();
const emailBindings = await cloudly.platform.getPlatformBindings({
  capability: 'email',
});

console.log(capabilities.capabilities, emailBindings.bindings);

Secret Management

Version 12 keeps the version 10 removal of the SecretGroup and SecretBundle APIs and exposes their legacy-free replacement as cloudly.secrets. Service.getSecretBundleAsFlatObject() remains removed; plaintext flattening has no replacement API. The client retains the administrative secret RPC surface introduced with Interfaces 24:

• getSecretIngressRecipient()
• listSecrets() and getSecretMetadata()
• createSecret(), rotateSecret(), and changeSecretLifecycle()
• getSecretVersionPurgePreflight() and purgeSecretVersion()
• listSecretSets(), createSecretSet(), updateSecretSet(), and changeSecretSetLifecycle()
• getSecretSetConsumerRollout()
• setServiceSecretSetAttachments()
• previewServiceSecretResolution()

Each method returns the complete Interfaces response, including the applicable secret, target, SecretSet, or attachment revision fences. Requests always use the authenticated client's JWT credential without forwarding identity claims. Purge preflight accepts optional cursor and limit fields and validates the exact request and response schemas. Irreversible purge requires mutationId, secretId, secretVersionId, expectedSecretRevision, expectedSecretVersionRevision, and expectedTargetSecretsRevision fences.

Use provided-bytes when the API client should seal local bytes to Cloudly's current active ingress recipient:

const valueBytes = new TextEncoder().encode(process.env.DATABASE_PASSWORD!);

try {
  const result = await cloudly.secrets.createSecret({
    mutationId: crypto.randomUUID(),
    target: {
      kind: 'service',
      serviceId: 'service-api',
    },
    key: 'DATABASE_PASSWORD',
    environment: 'production',
    name: 'Database password',
    delivery: {
      type: 'launcher-environment',
      variableName: 'DATABASE_PASSWORD',
      uid: 1000,
      gid: 1000,
      mode: 0o400,
    },
    valueInput: {
      mode: 'provided-bytes',
      bytes: valueBytes,
    },
    expectedTargetSecretsRevision: 0,
  });

  console.log(result.secret.id, result.targetSecretsRevision);
} finally {
  valueBytes.fill(0);
}

The client copies caller-provided bytes. Create validates them against the selected delivery; rotate validates the byte type and 500 KiB limit before any request. Both operations obtain a fresh active ingress recipient, seal with SmartCrypto using the exact Interfaces request context, and wipe their owned byte, key, and context copies. The client does not alter the caller's array, cache recipients, retry failed mutations, or log value material. The caller remains responsible for wiping its own byte array. Direct ingress-recipient lookups reject responses with extra fields, invalid recipient metadata, or any recipient that is not active; there is no compatibility fallback.

Use { mode: 'generated', encoding, bytes } to request bounded server-side generation. A strict existing Interfaces { mode: 'sealed', envelope } input is also accepted when the caller already owns sealing; Cloudly validates its recipient and request context. Generated and externally sealed inputs do not perform an ingress-recipient lookup.

These methods require a Cloudly release that implements the Interfaces 24 secret RPCs. Control-plane releases without those handlers reject the calls.

Cluster Secret Runtime

Coreflow-style machine clients import the Node-only runtime client and use cloudly.secretRuntime after token authentication:

import { CloudlyApiClient } from '@serve.zone/api/runtime';

The group exposes the Interfaces 27 runtime request surface:

• getSecretRecipientEnrollmentState()
• beginSecretRecipientEnrollment() and completeSecretRecipientEnrollment()
• getCoreflowSecretRuntimeRegistrationExpectation()
• getResolvedSecretMaterial()
• getCorestoreControlCredentialMaterial()
• publishCorestoreCredentialMaterial()
• reportSecretDeploymentState()

Every request uses only the authenticated client's JWT credential. The client reconstructs the exact wire DTO and drops extra caller fields. Cluster scope is never accepted from method options. Runtime requests use maxRetries: 0; the client does not automatically retry enrollment or deployment-report mutations. Corestore publication likewise requires the caller to reuse its exact mutationId, grant, ingress recipient fence, and sealed envelope for an explicit retry; the client never chooses organization, cluster, or provider authority. These methods do not establish a runtime session. Cloudly must authorize the caller's registered runtime separately from its JWT-authenticated API socket. Registration-expectation responses must be either an exact recognized unavailable response or an exact available response containing fresh, validated target, WorkloadInit approval, and active-recipient authority. Malformed, extra-field, stale, and legacy authority is rejected.

The caller remains responsible for generating and protecting the recipient private key, opening sealed material only after Interfaces verification, and computing the canonical deployment report digest.

Gateway Credential Bootstrap

Cloudly enrolls itself at dcrouter as one least-privilege gateway client. The only way that credential enters Cloudly is a dcrouter admin token an administrator hands in once, for the first enrollment and whenever the enrollment state reads admin-bootstrap-required. The settings group carries the Interfaces 32.29 requests:

• bootstrapExternalGatewayCredential({ target, bootstrapToken })
• getExternalGatewayEnrollmentState()

const tokenBytes = new TextEncoder().encode(adminTokenFromStdin);

try {
  const { state } = await cloudly.settings.bootstrapExternalGatewayCredential({
    target: {
      gatewayUrl: 'https://gateway.example.com',
      gatewayClientId: 'cloudly.example.com',
    },
    bootstrapToken: tokenBytes,
  });
  console.log(state.status);
} finally {
  tokenBytes.fill(0);
}

const { state } = await cloudly.settings.getExternalGatewayEnrollmentState();

target names the dcrouterGatewayUrl (HTTPS only) and dcrouterGatewayClientId the administrator read from Cloudly's settings. The client refuses a token that is not 1 to 1024 bytes of visible ASCII before any request, fetches a fresh active ingress recipient, seals a copy of the token under data.createGatewayBootstrapEnvelopeContext(target) with the same sealing the secret methods use, and validates the finished request with validateBootstrapExternalGatewayCredentialRequest before sending it. The envelope opens only for a request naming the same target, and Cloudly refuses a target that differs from its settings (gateway-target-mismatch). The client wipes its token and context copies, never logs or keeps the token, and never retries the call; the caller wipes its own array and revokes the admin token at dcrouter afterwards. Both methods accept only an exact { state } answer that passes data.validateExternalGatewayEnrollmentState; a refusal is one of data.externalGatewayBootstrapRefusals and leaves the held credential unchanged.

These methods require a Cloudly release that serves the Interfaces 32.29 gateway bootstrap requests. This package has no command line; a CLI built on it reads the token from standard input, never from arguments, and passes the bytes here.

Isolated Restore Lifecycle

Isolated restores rehearse a backup into a server-generated, non-runnable scratch namespace. Cloudly derives the source service and cluster from the authoritative backup and generates the restore, scratch namespace, staging archive, and resource mapping identifiers. Callers cannot select a runnable target service or supply those generated identifiers.

A restore names its target by targetNodeId, the cluster node every control call is routed to. The node name the signed restore grant authorizes is derived from that node by Cloudly and refused as caller input; getIsolatedRestores filters by either.

Use a stable, unique idempotency key for one restore intent. Retrying the same create request with that key returns the original restore instead of provisioning another scratch namespace.

const { restore } = await cloudly.backup.createIsolatedRestore({
  sourceBackupId: 'backup-source',
  targetNodeId: 'node-rehearsal',
  purpose: 'quarterly recovery rehearsal',
  idempotencyKey: 'quarterly-rehearsal-2026-q3',
  ttlMs: 24 * 60 * 60 * 1000,
});

const page = await cloudly.backup.getIsolatedRestores({
  sourceBackupId: restore.sourceBackupId,
  status: 'ready',
  limit: 25,
});

const current = await cloudly.backup.getIsolatedRestoreById(restore.id);

await cloudly.backup.cleanupIsolatedRestore({
  restoreId: current.restore.id,
  reason: 'rehearsal completed',
});

if (page.nextCursor) {
  const nextPage = await cloudly.backup.getIsolatedRestores({
    cursor: page.nextCursor,
    limit: 25,
  });
  console.log(nextPage.restores.length);
}

These methods require an authenticated client identity with a JWT. The client sends only the JWT credential; Cloudly must verify it and derive actor, role, tenant, and ownership authority server-side. Cleanup is asynchronous and idempotent, so inspect the returned restore status or fetch it again until it reaches cleaned.

Server-Pushed Events

Cloudly can call back into connected clients through the client's local TypedRouter. One callback stream is exposed as an RxJS subject:

cloudly.configUpdateSubject.subscribe((configUpdate) => {
  console.log('received cluster config update', configUpdate.configData.id);
});

This is why long-running clients such as Coreflow register over TypedSocket instead of using one-off HTTP requests only.

CoreMail Control Client

CoreMailControlClient is the control-plane side of a CoreMail instance. It is a separate export from CloudlyApiClient because it speaks CoreMail's own TypedSocket protocol directly, not Cloudly's.

CoreMail has two session kinds. The workload session is what a hosted app opens to submit and receive mail, and it lives in @serve.zone/platformclient. The control session is what the control plane opens to tell one CoreMail replica which bindings, gateway and limits it should be running, and to read back reconciliation status and per-service mail statistics. Cloudly owns that session for a cluster, Onebox for a single host.

import { CoreMailControlClient } from '@serve.zone/api';

const coreMail = new CoreMailControlClient({
  endpointUrl: 'https://coremail.example.com/socket',
  credentialId: process.env.COREMAIL_CONTROL_CREDENTIAL_ID!,
  credentialVersion: Number(process.env.COREMAIL_CONTROL_CREDENTIAL_VERSION),
  credentialSecret: process.env.COREMAIL_CONTROL_CREDENTIAL_SECRET!,
});

await coreMail.start();

const status = await coreMail.applyDesiredState(desiredState, {
  expectedAppliedConfigEpoch: lastAppliedConfigEpoch,
});

await coreMail.stop();

Notes on the contract:

• endpointUrl must be one canonical https://host/socket URL. Plaintext http: and ws: are accepted only for a loopback host, for in-process tests and a co-located Onebox.
• A rejected credential arrives as a dropped socket, not a typed error: CoreMail closes the peer before the authentication failure propagates. Handle a disconnect, not an AUTHENTICATION_FAILED envelope.
• applyDesiredState computes the canonical bytes and digest with the @serve.zone/interfaces helpers, so the desired state you pass is normalized and hashed exactly the way CoreMail re-derives it. configEpoch must strictly exceed expectedAppliedConfigEpoch; a stale expectation loses to whichever controller wrote last, instead of both overwriting each other.
• Credential verifiers are argon2id hashes produced by whoever mints the credential. This package deliberately carries no argon2 or other native dependency, and never sees a plaintext binding secret.
• Nothing in this client logs a credential, a bearer token or a grant.

Per-service mail statistics

getServiceMailStatistics({fromDayUtc, toDayUtc, serviceIds?, cursor?, limit}) returns one page of ICoreMailServiceMailStatistics from @serve.zone/interfaces — {tenantId, serviceId, bindingId, dayUtc, outbound, inbound, updatedAt}, where outbound counts submittedApi, submittedSmtp, delivered, deferred, failed and deadLettered, and inbound counts received, acknowledgedProcessed and acknowledgedDiscarded. Days are UTC calendar days, YYYY-MM-DD, and both bounds are inclusive.

Every entry is run through the published normalizeCoreMailServiceMailStatistics, so a page that drops, renames or adds a field fails loudly instead of arriving as a silently zeroed counter. On top of that, the client rejects a page larger than the requested limit, an entry outside the requested day range, and an entry for a service that was not asked for. Omitting serviceIds means every service; an empty array is refused, because it would widen the query rather than narrow it.

Pagination is CoreMail's: follow nextCursor until it is absent.

The transfer-grant caveat

Desired state is pushed in three steps: prepare over the socket, an HTTP PUT of the canonical JSON bytes to the grant's path against the authenticated origin, then apply over the socket. The HTTP hop exists only because CoreMail currently issues HTTP transfer grants; serve.zone/AGENTS.md records that a TypedSocket-native byte transfer is planned to replace them.

That hop is therefore isolated in a single protected method, uploadDesiredState(grant, bytes). It is the only place in this client that touches fetch, and its contract is just "make the grant's bytes reach CoreMail, or throw". When the native transfer lands, that one method is replaced and nothing else changes.

The upload is byte-exact by necessity: CoreMail rejects the PUT unless Content-Length equals the grant's lengthBytes and the body hashes to the grant's sha256, and it re-canonicalizes the received bytes and refuses anything that is not identical to what the digest covers.

Idempotency

A prepare that reports replayed: true means CoreMail already had this exact (configEpoch, digest) staged from an interrupted attempt. It does not mean the state is applied: a staged snapshot still needs its bytes, and a fresh single-use grant is issued on every preparation, so the client uploads and applies either way.

When a sequence fails, the client asks CoreMail what it actually has before retrying. If the epoch and digest are already applied, that status is returned as success — which is what makes an apply that committed but never answered resolve correctly instead of retrying into a fence conflict.

Protocol handshake

The protocol version is the installed @serve.zone/interfaces release: one release is exactly one contract, and there is no protocol number, version suffix or schemaVersion beside it.

Every session registration carries cloudlyClientProtocolOffer — this build's offer for the one session kind the client opens — and Cloudly answers with its own. Cloudly reads the offer before it validates the body or the JWT, so a major mismatch is named instead of arriving as a credential or contract rejection, and the client negotiates the answered offer in turn: a controller that accepted this client but answers an offer this build cannot serve is refused rather than used.

Cloudly negotiates the offer and the client negotiates the answer in that order on every registration; only who receives a refusal differs:

1. When a caller authenticates — setIdentity(), loginWithUsernameAndPassword() or getIdentityByToken({ tagConnection: true }) — the registration runs on the current socket and either refusal rejects that call with CloudlyProtocolIncompatibleError, after closing the socket it could not authenticate.
2. When a connection restores the retained session — the socket start() opens, and every reconnect after it — the same registration runs with no caller on it. The transport denies that restoration terminally and carries this client's CloudlyProtocolIncompatibleError as the denial's cause: a start() that met the refusal rejects with that denial, and a reconnect that met it publishes one restoreDenied diagnostic on the socket's diagnosticsSubject before settling on disconnected. The client ends its own socket lifecycle in step: typedsocketClient is released, the refusal is retained on lastProtocolRefusal, and the session credential is kept.

import { CloudlyApiClient, CloudlyProtocolIncompatibleError, cloudlyClientProtocolOffer } from '@serve.zone/api';

console.log(cloudlyClientProtocolOffer); // { interfacesVersion: '32.x.y', minimumPeerVersion: '32.0.0' }

try {
  await cloudly.loginWithUsernameAndPassword('[email protected]', 'password');
} catch (error) {
  if (error instanceof CloudlyProtocolIncompatibleError) {
    // error.message is the shared refusal line; error.refusal names the reason
    // ('major-mismatch', 'peer-below-minimum', 'self-below-peer-minimum') and both offers.
    console.error(error.refusal.reason, error.refusal.refusing, error.refusal.refused);
  }
}

A refusal stands until an operator upgrades one of the two sides, so this client never retries it: the registration disables retries, and a denied restoration is terminal — the transport never reconnects from it. Offering again is the caller's decision. After a refused restoration the client holds no socket, the reason is on lastProtocolRefusal, and the published denial names the same refusal as its cause; start() opens a new socket lifetime, clears that refusal and re-offers the retained credential, so a caller that has upgraded a side recovers with start() — or with a fresh authentication, which registers the same way.

minimumPeerVersion is 32.0.0 and is raised only by the release that starts depending on a later @serve.zone/interfaces minor, which is named in the changelog.

Transport Notes

The client uses TypedRequest 8 and TypedSocket 8.4 and requires Cloudly to implement registerCloudlyClientSession and to speak the same @serve.zone/interfaces major (see Protocol handshake). Some management methods include HTTP TypedRequest fallback through /typedrequest; socket registration always uses the physical WebSocket.

Call start() before using socket-backed API groups. Concurrent starts share one socket and one router owner. typedsocketClient is undefined before start and after stop; requireTypedSocket() returns the active client or throws a clear lifecycle error. stop() joins startup and socket cleanup so a later start() can reuse the router and restore the retained session.

Image upload and download use directional, connection-bound VirtualStreams. Uploads wait for both the server response and the receiver's acceptance before refreshing image metadata. image.pushImageVersion(version, readable, options) accepts acceptanceTimeoutMs (ten minutes by default, integer milliseconds from 1 through 3,600,000) and abortSignal. The fixed acceptance wait starts after FIN transmission; Cloudly independently limits its own processing time. Transfer progress and parent request deadlines remain unchanged. Caller cancellation aborts and joins the source, request, stream receipt, and final metadata refresh, including cancellation after readable EOF. image.update({ abortSignal }) also supports a cancellable standalone refresh. Downloads expose a backpressured readable stream, accept the remote transfer only after complete consumption, and reject it if the caller cancels reading.

Development

pnpm install
pnpm run build
pnpm test

The package is authored as ESM TypeScript and built strictly with tsbuild tsfolders.

License and Legal Information

This repository contains open-source code licensed under the MIT License. A copy of the license can be found in license.md.

Please note: The MIT License does not grant permission to use the trade names, trademarks, service marks, or product names of the project, except as required for reasonable and customary use in describing the origin of the work and reproducing the content of the NOTICE file.

Trademarks

This project is owned and maintained by Task Venture Capital GmbH. The names and logos associated with Task Venture Capital GmbH and any related products or services are trademarks of Task Venture Capital GmbH or third parties, and are not included within the scope of the MIT license granted herein.

Use of these trademarks must comply with Task Venture Capital GmbH's Trademark Guidelines or the guidelines of the respective third-party owners, and any usage must be approved in writing. Third-party trademarks used herein are the property of their respective owners and used only in a descriptive manner, e.g. for an implementation of an API or similar.

Company Information

Task Venture Capital GmbH Registered at District Court Bremen HRB 35230 HB, Germany

For any legal inquiries or further information, please contact us via email at [email protected].

By using this repository, you acknowledge that you have read this section, agree to comply with its terms, and understand that the licensing of the code does not imply endorsement by Task Venture Capital GmbH of any derivative works.