Neo N3 MCP Server
The Neo N3 MCP Server is a production-ready Model Context Protocol server that provides comprehensive Neo N3 blockchain integration with 34 tools and 9 resources for blockchain operations.
Core Capabilities:
Network Management: Get current network mode and switch between mainnet/testnet
Blockchain Queries: Retrieve blockchain information, block counts, specific blocks by height/hash, and transaction details
Wallet Operations: Create new wallets with secure private key management and import existing wallets using private keys or WIF format
Asset Management: Check NEO, GAS, and NEP-17 token balances, transfer assets between addresses, estimate transfer fees, and claim accumulated GAS rewards
Contract Interactions: List famous contracts (NEO, GAS, NEP-17 tokens), get detailed contract information including manifest and methods, invoke smart contracts with parameters, and estimate gas costs for invocations
Resources (Read-Only Access): Network status monitoring, blockchain data access, contract registry, and asset information via
neo://URLs
Key Features:
Multi-network support for both mainnet and testnet
Enterprise-grade security with input validation and error handling
Built-in rate limiting and network resilience
Multiple deployment options via NPM, Docker, and direct integration with MCP clients like Claude Desktop
Enables containerized deployment of the Neo N3 MCP server, supporting isolated and consistent execution environments across different platforms.
Hosts the source code repository for the Neo N3 MCP server, enabling version control and collaboration on the codebase.
Supports comprehensive testing of the Neo N3 MCP server functionality, ensuring reliability of blockchain interactions.
Hosts the Neo N3 MCP documentation website, providing users with comprehensive guides and API references for interacting with the Neo N3 blockchain.
Provides tools for running the Neo N3 MCP server as an NPM package using Node.js, offering a simple way to access the blockchain functionality.
Allows installation and distribution of the Neo N3 MCP server as a package through the NPM registry, making it easily accessible to users.
Used for implementing the Neo N3 MCP server with strong typing, providing enhanced development experience and code reliability.
Click on "Install Server".
Wait a few minutes for the server to deploy. Once ready, it will show a "Started" state.
In the chat, type
@followed by the MCP server name and your instructions, e.g., "@Neo N3 MCP Servercheck my wallet balance on testnet"
That's it! The server will respond to your query, and you can continue using it as needed.
Here is a step-by-step guide with screenshots.
Neo MCP Server
@r3e/neo-mcp is an MCP server for Neo N3 blockchain queries and controlled, auditable transaction submission. It ships three entrypoints:
Entrypoint | Command | Protocol |
MCP stdio |
| MCP over stdin/stdout, for local clients such as Claude Desktop and Cursor |
MCP HTTP |
| MCP 2026-07-28 stateless HTTP, for remote MCP clients |
REST API |
| Bespoke REST/JSON; not an MCP transport |
The two HTTP servers are unrelated and configured separately. See Remote MCP 2026 HTTP and docs/remote-mcp-transport.md.
Current version: 4.0.2. Node.js >=22 is required. Version 4 speaks only
MCP 2026-07-28; clients using the removed initialization/session protocol are
rejected rather than downgraded.
Quick Start
Install and run the MCP stdio server:
npm install -g @r3e/neo-mcp
neo-mcpOr run it without a global install:
npx -y @r3e/neo-mcpExample Claude Desktop or Cursor configuration:
{
"mcpServers": {
"neo-n3": {
"command": "npx",
"args": ["-y", "@r3e/neo-mcp"],
"env": {
"NEO_NETWORK": "testnet",
"NEO_TESTNET_RPC": "https://testnet1.neo.coz.io:443",
"LOG_LEVEL": "info"
}
}
}
}Related MCP server: BrianKnows MCP Server
Programmatic API
The package root exports the MCP server, HTTP server, services, network enums, and validated configuration:
import { NeoNetwork, NeoService } from '@r3e/neo-mcp';
const neo = new NeoService(
'https://testnet1.neo.coz.io:443',
NeoNetwork.TESTNET,
);
const blockCount = await neo.getBlockCount();
console.log({ blockCount, height: Math.max(0, blockCount - 1) });NeoMcpServer exposes run() and close() for applications that manage the stdio transport lifecycle themselves.
Configuration
Variable | Purpose | Default |
|
|
|
| Mainnet RPC endpoint |
|
| Testnet RPC endpoint |
|
| Per-operation Neo RPC deadline in milliseconds |
|
| Allow a remote plaintext HTTP RPC URL |
|
| Maximum combined system and network fee for a signed transaction, in GAS |
|
| Register state-changing tools and HTTP routes |
|
| Owner-only regular file containing the single server signer WIF | required for writes |
| Durable idempotency journal directory |
|
| Independent HMAC key for MCP multi-round-trip approval state | required for writes |
| Independent bearer token for HTTP write approval | required for writes |
| Enable HTTP wallet create/import administration |
|
| Remote contract name lookup base URL |
|
| Enable N3Index-backed name resolution |
|
| REST API listen address |
|
| Bearer token for REST API routes | unset |
| Comma-separated exact HTTP/HTTPS origins | empty |
| Maximum HTTP request body size |
|
| Remote MCP transport listen port |
|
| Remote MCP transport listen address |
|
| Remote MCP endpoint path |
|
| Bearer token for the remote MCP endpoint; required unless | unset |
| Comma-separated exact origins allowed to connect from a browser | empty |
| Concurrent in-flight MCP request cap |
|
| Concurrent |
|
| Maximum MCP POST body size |
|
| Deadline for receiving an MCP request body |
|
| Deadline for receiving MCP headers |
|
| Overall MCP HTTP request deadline |
|
| SSE keepalive interval; |
|
| Directory for persisted encrypted wallet records |
|
| Enable request rate limiting | enabled outside test environments |
| Per-client minute limit |
|
| Per-client hour limit |
|
|
|
|
| Enable console logging | enabled outside test environments |
| Log file path; setting it enables file logging |
|
| Enable file logging without setting |
|
| HTTP listen port |
|
The aliases NEO_MAINNET_RPC_URL, NEO_TESTNET_RPC_URL, and NEO_NETWORK_MODE remain supported.
Remote RPC endpoints must use HTTPS. Plain HTTP is accepted for loopback RPC endpoints; setting NEO_ALLOW_INSECURE_RPC=true explicitly permits remote plaintext HTTP and should be limited to controlled development environments.
When NEO_NETWORK=both, read-only MCP calls without an explicit network use mainnet. Every state-changing call requires an explicit network and an idempotency key. The HTTP entrypoint rejects both; set NEO_NETWORK=mainnet or NEO_NETWORK=testnet.
Writes are disabled by default. To enable them, create an owner-only signer file outside the repository and configure durable state:
install -m 0600 /dev/stdin /run/secrets/neo-signer-wif
export NEO_ENABLE_WRITES=true
export NEO_SIGNER_WIF_FILE=/run/secrets/neo-signer-wif
export NEO_WRITE_STATE_DIR=/var/lib/neo-mcp/write-operations
export NEO_MCP_REQUEST_STATE_KEY="$(openssl rand -hex 32)"
export HTTP_WRITE_APPROVAL_API_KEY="$(openssl rand -hex 32)"The MCP and HTTP request schemas never accept WIFs, private keys, or passwords.
MCP writes use the 2026-07-28 input_required flow. The server signs the
opaque requestState, binds it to tools/call, expires it after ten minutes,
and executes only after the re-entered response accepts the exact intent
fingerprint. HTTP writes return a pending intent and require a separate approval
request authenticated by HTTP_WRITE_APPROVAL_API_KEY.
Account intelligence remains evidence-first: analyze_account_graph exposes
the replayable, network-scoped transfer graph and curated metadata only. The
backend's deterministic exchange-sweep, coordinated-signer,
community-affinity, and graph-similarity detector queue is deliberately not
exposed as public identity data; pending candidates require human review before
they can become curated metadata.
As of 2026-08-01, both production network detector timers have completed their
detector rerun successfully. The resulting pending queue is operational review
evidence only and is not returned by analyze_account_graph.
HTTP API
This is a bespoke REST/JSON API, not an MCP transport. MCP clients cannot connect to it; they use the stdio entrypoint or the remote MCP transport.
Build and start the HTTP entrypoint:
npm ci
npm run build
export HTTP_API_KEY="$(openssl rand -hex 32)"
NEO_NETWORK=mainnet npm run start:httpThe server listens on 127.0.0.1:3000 by default. A non-loopback HTTP_HOST requires HTTP_API_KEY, and every configured API key must contain at least 32 bytes. When a key is configured, send it as a bearer token on every route except GET /live and GET /health:
curl http://127.0.0.1:3000/live
curl http://127.0.0.1:3000/health
curl -H "Authorization: Bearer $HTTP_API_KEY" \
http://127.0.0.1:3000/api/blockchain/heightThe HTTP listener does not terminate TLS. Plaintext HTTP is supported only on loopback or a trusted host-local proxy network. Remote clients must use HTTPS through a TLS-terminating reverse proxy or load balancer; direct remote plaintext HTTP is unsupported because bearer tokens traverse requests.
The height endpoint distinguishes the node's block count from the latest block index:
{
"blockCount": 12346,
"height": 12345
}HTTP_CORS_ORIGINS is an optional exact-origin allowlist. For example:
HTTP_CORS_ORIGINS=https://console.example.com,https://admin.example.comOrigins must use HTTP or HTTPS and cannot contain paths, credentials, query strings, or fragments. Wildcard CORS is not supported.
POST and PUT bodies must be JSON objects. The default body limit is 1 MiB and can be changed with HTTP_MAX_BODY_BYTES. A write request creates an immutable pending intent:
curl -X POST http://127.0.0.1:3000/api/transfers \
-H "Authorization: Bearer $HTTP_API_KEY" \
-H "Idempotency-Key: transfer-2026-07-11-001" \
-H 'Content-Type: application/json' \
-d '{"network":"mainnet","toAddress":"Nb...","asset":"NEO","amount":"1"}'Approve only after comparing the returned fingerprint with the intended request:
curl -X POST http://127.0.0.1:3000/api/write-intents/INTENT_ID/approve \
-H "Authorization: Bearer $HTTP_WRITE_APPROVAL_API_KEY" \
-H 'Content-Type: application/json' \
-d '{"fingerprint":"RETURNED_64_HEX_FINGERPRINT"}'See API.md for the tool and route reference.
Remote MCP 2026 HTTP
The stateless MCP 2026-07-28 HTTP transport serves the same read-only MCP tools as the stdio entrypoint to remote clients. It is a separate process from the REST API, listens on its own port, and has its own configuration and bearer token.
npm ci
npm run build
export MCP_HTTP_BEARER="$(openssl rand -hex 32)"
NEO_NETWORK=mainnet npm run start:mcp-httpThe server listens on 127.0.0.1:3001 by default and exposes:
Method | Path | Purpose |
|
| Stateless MCP |
|
| CORS preflight |
|
| Unauthenticated liveness probe |
A non-loopback MCP_HTTP_HOST requires MCP_HTTP_BEARER and rejects a token shorter than 32 bytes, mirroring the HTTP_API_KEY rule for the REST entrypoint. When a token is configured, clients send Authorization: Bearer <token> on every request to MCP_HTTP_PATH; /healthz stays unauthenticated so probes can reach it.
Connect with the MCP TypeScript SDK:
import {
Client,
StreamableHTTPClientTransport,
} from '@modelcontextprotocol/client';
const transport = new StreamableHTTPClientTransport(new URL('http://127.0.0.1:3001/mcp'), {
authProvider: { token: async () => process.env.MCP_HTTP_BEARER },
});
const client = new Client(
{ name: 'my-client', version: '2.0.0' },
{
capabilities: {},
versionNegotiation: { mode: { pin: '2026-07-28' } },
},
);
await client.connect(transport);
const { tools } = await client.listTools();Like the REST listener, this listener serves plaintext HTTP and does not terminate TLS. Remote clients must reach it through a TLS-terminating reverse proxy. Requests are stateless, so replicas do not need sticky routing.
See remote-mcp-transport.md for the full configuration reference, an end-to-end local run against the Neo Explorer agent, production deployment guidance, and troubleshooting.
Docker
The production Compose file is docker/docker-compose.yml. It defines two services from the same image: neo-mcp runs the REST API on port 3000, and neo-mcp-http runs the remote MCP transport on port 3001. Each requires its own token, binds the host port to 127.0.0.1 by default, and persists wallet records in its own volume:
export HTTP_API_KEY="$(openssl rand -hex 32)"
export MCP_HTTP_BEARER="$(openssl rand -hex 32)"
docker compose -f docker/docker-compose.yml up -dStart only the remote MCP service. Compose interpolates the whole file before
selecting a service, so the REST service's mandatory HTTP_API_KEY must be set
to any non-empty placeholder even though its container is never started here
(the ">= 32 bytes" check only runs when that container actually starts):
HTTP_API_KEY=unused-when-starting-only-the-mcp-service \
MCP_HTTP_BEARER="$(openssl rand -hex 32)" \
docker compose -f docker/docker-compose.yml up -d neo-mcp-httpTo run a published image instead of building the checkout, use the digest-only registry overlay with the image repository and the release artifact's 64-character lowercase hexadecimal digest:
NEO_MCP_IMAGE_REPOSITORY=r3enetwork/neo-mcp \
NEO_MCP_IMAGE_DIGEST=0123456789abcdef0123456789abcdef0123456789abcdef0123456789abcdef \
HTTP_API_KEY="$HTTP_API_KEY" \
MCP_HTTP_BEARER="$MCP_HTTP_BEARER" \
docker compose -f docker/docker-compose.yml \
-f docker/docker-compose.registry.yml up -dSet HTTP_BIND_ADDRESS=0.0.0.0 (REST) or MCP_HTTP_BIND_ADDRESS=0.0.0.0 (remote MCP) only when the service must be reachable by a TLS-terminating reverse proxy or load balancer. Do not expose either plaintext listener directly to remote clients.
The development Compose file binds locally and supplies local-development tokens by default. It defines neo-mcp-dev for the REST API and neo-mcp-http-dev for the remote MCP transport:
docker compose -f docker/docker-compose.dev.yml up -dThose default tokens are for local development only. Override HTTP_API_KEY and MCP_HTTP_BEARER for any shared environment.
Build and run without Compose:
npm run docker:build
export HTTP_API_KEY="$(openssl rand -hex 32)"
npm run docker:run -- --detachSee DOCKER.md for image, volume, and helper-script details.
MCP Tools and Resources
The default MCP surface exposes 51 non-custodial tools. Every tool that both chains implement takes a required chain discriminator, "n3" or "neox", with no silent default; single-chain tools reject the chain they do not serve. The network parameter is always "mainnet" or "testnet"; the registry rewrites it for Neo X internally, so callers never spell out a chain-qualified network name.
Server and data utilities:
get_network_mode,get_wallet,inspect_neo_value,convert_neo_data,get_neo_service_infoChain, both chains:
get_chain_info,get_block_height,get_block,get_transaction,get_transaction_status,get_balanceContracts, both chains:
call_contract,get_contract_info,simulate_callConstruct, both chains:
build_transfer,build_contract_callNeo ecosystem reads:
decode_neo_script,query_nns,query_neofs,get_oracle_infoDedicated Neo N3 construct:
build_vote,build_nns_operationExplorer and intelligence:
explorer_get_address,analyze_address,analyze_account_graph,analyze_consensus_health,analyze_address_connection,analyze_transaction,investigate_transactions,analyze_contract,analyze_contract_upgrades,get_contract_source_verification,inspect_contract_code,explorer_list_address_transactions,explorer_list_address_transfers,explorer_list_token_holders,explorer_search,query_explorerNeo N3 only:
get_application_log,wait_for_transaction,get_unclaimed_gas,get_nep17_transfers,get_nep11_balances,get_nep11_transfers,get_contract_status,list_famous_contracts,estimate_transfer_fees,estimate_invoke_fees,explorer_list_address_assets,query_explorer_findNeo X only:
query_explorer_graphql
call_contract is strictly read-only: invokefunction on Neo N3, eth_call on Neo X. The build_* tools run the exact read-only simulation and return UNSIGNED transaction proposals for a wallet to review and sign; no default-surface tool holds a key, signs, or broadcasts. build_vote pins the native NEO contract, while build_nns_operation pins the network-correct NameService contract and operation arguments.
query_neofs requires an explicit network field. The selected N3 network is preserved as
address context in the result, while the fixed NeoFS gateway remains global; this prevents
the assistant from presenting a mainnet/testnet N3 context as a NeoFS gateway switch.
Constructed N3 and Neo X proposals are returned with an unsigned-only boundary and are
simulated before the Explorer exposes them to a wallet.
Explorer AI roadmap
The canonical cross-repository plan is maintained in the neo3fura AI Plan and Roadmap. Neo MCP is the typed orchestration boundary: it exposes deterministic Explorer evidence and unsigned, simulated proposals to the assistant while keeping wallet review, signing, and broadcasting outside the hosted MCP service.
analyze_transaction is the primary Neo N3 investigation tool. Its v2 response
adds stable evidence IDs, bounded counts, exact grouped fund flows,
conservative failure classification, and code-based findings. Clients should
cite those IDs, preserve exact decimal strings, and disclose when detailed
opcode or storage traces are unavailable.
investigate_transactions composes one to twelve confirmed Neo N3
transactions into a deterministic, immutable evidence set. It returns a
block-ordered timeline, complete per-transaction analyses, and observed asset
relationships with source transactions, evidence references, confidence
classes, and the requested_transactions_only sampling boundary. It does not
infer shared ownership, causality, hidden calls, or activity outside the set.
analyze_contract is the primary Neo N3 contract-intelligence tool. Its v1
response returns network-scoped ABI, Manifest permission and trust, NEF method
token, compiler, update, and source-verification facts with stable evidence
IDs. Clients must keep declared source URLs, safe=false ABI methods,
deterministic static findings, verified source, simulation, and vulnerability
claims distinct.
inspect_contract_code is the paginated code-inspection companion. It returns
bounded NeoVM operands, resolved syscall names, ABI method ownership, and
static control-flow targets with stable opcode evidence IDs. It is deterministic
disassembly, not a runtime trace, verified source, decompilation, or simulation.
analyze_contract_upgrades compares immutable indexed contract artifacts by
update counter. It reports exact complete or partial historical coverage,
SHA-256 artifact identities, and structural ABI method/event/standard changes.
Missing versions are never synthesized, and storage compatibility remains
not_determined because manifest and NEF artifacts cannot prove a storage
layout.
get_contract_source_verification returns the immutable reproducibility record
for each verified update counter: source bundle digest, immutable repository
commit, compiler settings, and exact manifest, NEF, binary, and script hashes.
Only a record for the current update counter verifies current code. Exact
artifact equality is not a security audit.
A locally launched stdio server with NEO_ENABLE_WRITES=true,
NEO_SIGNER_WIF_FILE, and NEO_MCP_REQUEST_STATE_KEY registers four
additional Neo N3 tools that sign with that owner-supplied key:
transfer_assets, invoke_contract_write, claim_gas, deploy_contract.
They require an idempotencyKey, an explicit network, a modern client that
can fulfil an embedded form request, and acceptance of the exact returned
intent fingerprint through input_required. The MCP HTTP transport is
read-only by design and ignores the setting.
The curated contract list is intentionally empty until each entry has a current network hash and a verified on-chain manifest. Generic contract tools accept a script hash, Neo address, exact N3Index name, or a name learned from a live manifest.
estimate_transfer_fees and estimate_invoke_fees return exact integer decimal strings in networkFeeDatos and systemFeeDatos, plus formatted GAS strings in networkFeeGas and systemFeeGas. Before any transaction is signed or broadcast, the combined system and network fee must not exceed NEO_MAX_TRANSACTION_FEE_GAS.
deploy_contract accepts compiler output as a complete serialized NEF object, nef: { encoding: "hex" | "base64", data: string }, together with its manifest. Raw VM bytecode is not a deployable NEF artifact.
get_block_height returns both blockCount and height, where height is max(0, blockCount - 1).
For Neo N3 block analysis, pass includeStateRoot: true to get_block to
receive the exact StateService root plus local and StateValidator-validated
height boundaries. The returned validated flag is true only when the requested
root is at or below the validated boundary. Neo X rejects this N3-only option,
and ordinary block lookups do not incur the extra RPC calls. Neo N3 block
responses also include a deterministic ISO-8601 timeIso alongside the node's
millisecond time value.
Resources:
neo://network/statusneo://mainnet/statusneo://testnet/statusneo://block/{height}
Security Notes
Keep both HTTP listeners bound to loopback unless remote access is required.
Terminate TLS before every remote HTTP connection; a bearer token authenticates requests but does not encrypt itself in transit.
Use a randomly generated token of at least 32 bytes for
HTTP_API_KEYandMCP_HTTP_BEARER.Keep
NEO_ENABLE_WRITES=falseon any remotely reachable MCP listener; the remote transport exists to serve read-only queries.Keep the signer WIF only in the owner-only
NEO_SIGNER_WIF_FILE; never send it through MCP or HTTP.Persist
WALLETS_DIRon controlled storage with restrictive permissions.State-changing MCP tools require an explicit
network, a stable idempotency key, and an exactinput_requiredapproval whose request state passes HMAC, expiry, method-binding, intent, network, operation, and fingerprint checks.Remote plaintext HTTP RPC endpoints are rejected unless
NEO_ALLOW_INSECURE_RPC=true; prefer HTTPS.Signed transactions are rejected when their combined system and network fees exceed
NEO_MAX_TRANSACTION_FEE_GAS.Rate limiting is enabled by default outside test-like environments.
Testing
# Deterministic unit tests; excludes tests/mcp-*.test.ts
npm run test:unit
# Compile, then run deterministic built-server smoke and lifecycle checks
npm run build
npm run test:mcp
# Unit tests + build + deterministic MCP checks
npm run test:all
# Opt-in public RPC checks; requires a build and network access
npm run build
npm run test:mcp:live
# Explicit stress suite; requires a build
npm run test:mcp:stressnpm run test:integration is an additional built-server integration script that calls public RPC endpoints; it is not part of test:all.
Release and Dependency Checks
npm audit and npm audit --omit=dev are expected to pass. The package uses a scoped lodash@4.18.1 override for the transitive @cityofzion/neon-core dependency.
./scripts/prepare-release.sh installs the lockfile, runs type checking, deterministic tests, the build, both audits, package validation, Compose validation, and container builds. It updates the version only after verification and does not create a commit or tag.
GitHub Actions tests Node.js 22 and 24. Published GitHub releases can publish the npm package and Docker image when the required repository secrets are configured; no production deployment target is defined in this repository.
Documentation
Troubleshooting
Installation failures: verify
node --versionreports Node.js 22 or newer, then retrynpm cior the package install.HTTP_API_KEY is required: the HTTP process is listening on a non-loopback host. Set a key containing at least 32 bytes or bindHTTP_HOSTto a loopback address.HTTP
401: sendAuthorization: Bearer <HTTP_API_KEY>on all routes except/liveand/health.HTTP
413: reduce the request size or increaseHTTP_MAX_BODY_BYTESto a positive integer.Remote MCP
401: sendAuthorization: Bearer <MCP_HTTP_BEARER>;/healthzis the only unauthenticated route.Remote MCP
-32022: the client did not pin2026-07-28, or attempted the removed legacy initialization flow. Upgrade to@modelcontextprotocol/clientv2.Remote MCP
-32020: the request'sMcp-Method,Mcp-Name, or protocol-version headers disagree with its body. Use the v2 SDK instead of hand-building the envelope.RPC errors: verify the selected RPC URL is reachable and supports the requested Neo RPC method.
License
MIT. See LICENSE.
Maintenance
Resources
Unclaimed servers have limited discoverability.
Looking for Admin?
If you are the server author, to access and configure the admin panel.
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