ASTRA Unified Research Lab MCP Server
# ASTRA โ Unified Research Lab + MCP Server
**Autonomous Sentient Thoughtful Reasoning Agent**
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Production-grade [Model Context Protocol](https://modelcontextprotocol.io) server exposing the ASTRA bio-hybrid neuromorphic simulation pipeline to AI assistants. Built with the official `@modelcontextprotocol/sdk`, it integrates a layered SNN LIF+STDP engine, consciousness proxy assessment, bio-computing platform telemetry, and an IRB ethics monitor โ all queryable as MCP tools, resources, and prompts from **Claude Desktop**, **Cursor**, **VS Code**, and any MCP-compatible client.
## ๐ v2.4 โ Second-Order (Self-Evidencing) Loop
ASTRA v2.4 adds the **second-order loop**: the update organ the double-loop architecture (Legros 2026, ยง3.2) requires. v2.2 produced the *signal* of self-evidencing (world-model surprise) but not the layer that observes and corrects the system's own predictive capacity. v2.4 supplies it as a native TypeScript port of the second-order fragments of `the_consciousness_ai`:
- **Meta-learning velocity** (`MetaLearningModule`) โ convergence vs novelty from RPE-variance dynamics
- **Curiosity / intrinsic reward** (`RNDCuriosity`) โ the EFE epistemic-value (exploration) term
- **Capability model** (`DirectExperienceLearner`) โ action โ expected-valence agency map
- **Meta-consciousness** and **developmental tracking** โ second-order self-monitoring over time
6 new MCP tools (`tcai_second_order`, `tcai_meta_learning`, `tcai_capability_model`, `tcai_curiosity`, `tcai_metaconsciousness`, `tcai_development`). A Friston-exact `pymdp` counterpart is provided as an optional Python bridge. See **[SECOND-ORDER-LOOP-INTEGRATION.md](SECOND-ORDER-LOOP-INTEGRATION.md)**.
## ๐ v2.2 โ `the_consciousness_ai` (ACM) Integration
ASTRA v2.2 integrates **[tlcdv/the_consciousness_ai](https://github.com/tlcdv/the_consciousness_ai)** โ the Artificial Consciousness Module research codebase โ at two levels:
- **Native TypeScript port** (`src/engine/tcai/`): Global Neuronal Workspace with sigmoid ignition & reverberation, Kuramoto/AKOrN oscillatory binding, PAD emotional processing & reward shaping, attention-gated emotional memory, self-representation core + attention schema, and a metrics suite (GNW ยท Effective Information ยท ฮฆฬ-RIIU) โ all fed live from the SNN/world-model state and exposed as **8 new MCP tools** (`tcai_cycle`, `tcai_workspace_state`, `tcai_emotion_appraise`, `tcai_memory_store`, `tcai_memory_retrieve`, `tcai_self_model`, `tcai_metrics`, `tcai_reset`).
- **Full vendored Python codebase** (`python/the_consciousness_ai/`, 215 files): the complete upstream ACM project for reference and PyTorch-based reproduction.
See **[TCAI-INTEGRATION.md](TCAI-INTEGRATION.md)** for the complete Python โ TypeScript mapping and architecture coupling. All consciousness-related metrics remain **computational proxies**, not measurements.
## ๐ v2.2 โ FinalSpark NeuroPlatform v2 Integration
ASTRA v2.2 also integrates the **[FinalSpark NeuroPlatform v2](https://finalspark-np.github.io/np-docs/np_core/doc_v2.html)** wetware control API โ the closed-loop interface to living neural organoids on a 128-electrode MEA โ at two levels:
- **Native TypeScript port + biophysical simulator** (`src/engine/neuroplatform.ts`): faithful port of the NeuroPlatform controller surface (`StimParam` with charge-balance checking, `IntanController`, `TriggerController`, `DatabaseController`, `CameraController`) backed by a seeded `OrganoidMEA` model โ exposed as **9 new MCP tools** (`np_status`, `np_configure_stim`, `np_send_trigger`, `np_count_spikes`, `np_query_spike_count`, `np_query_spike_events`, `np_query_triggers`, `np_camera_capture`, `np_closed_loop`). The MEA's 128 electrodes couple one-to-one with the ASTRA SNN's 128 neurons.
- **Live Python bridge** (`python/neuroplatform/astra_np_bridge.py`): runs a homeostatic closed loop against the physical platform via the genuine `neuroplatformv2` SDK, streaming couplings to ASTRA over JSON-RPC.
- **Standalone dashboard** (`dashboard/ASTRA-NeuroPlatform-Dashboard.html`): live MEA raster, spike scope, `StimParam` editor with charge-balance readout, trigger generator and closed-loop telemetry.
See **[NEUROPLATFORM-INTEGRATION.md](NEUROPLATFORM-INTEGRATION.md)** for the complete API โ TypeScript mapping. With no hardware attached the server runs in **simulate mode** (deterministic biophysical model), **not** living-tissue measurements.
```
FinalSpark (800K neurons) โโโ
Cortical Labs CL1 โโโโโโโโโโโผโโ Spike Encoders โ SNN (LIF+STDP, 128 neurons) โ ACM Proxies
Koniku Kore โโโโโโโโโโโโโโโโโ โ โ
โ โโโโโโโดโโโโโโ
โ โ ฮฆฬ GWฬ PADฬ โ
โ โโโโโโโฌโโโโโโ
โโโ TCAI/ACM Layer (GNW ยท AKOrN ยท PAD ยท ฮฆฬ-RIIU ยท EI)
โโโ NeuroPlatform v2 Bridge (MEA โ SNN ยท StimParam ยท closed loop)
โโโ Ethics IRB Monitor (mode-aware)
โโโ MCP Server (48 tools ยท 11 resources ยท 8 prompts)
```
> **Note on data mode:** In the default `sim` mode, all bio-platform data is synthetically generated. The server is designed to connect to live platforms in `live` mode, but this requires hardware access and appropriate IRB approval.
---
## What's New in v2
- **Layered SNN architecture:** Configurable feed-forward + recurrent topology (default: 32โ64โ16โ16 = 128 neurons) replacing the flat random network
- **Event-driven STDP:** O(spikes ร fan-out) instead of O(Nยฒ) per timestep
- **Ring buffer:** O(1) spike history eviction replacing O(n) `Array.shift()`
- **Sparse weight storage:** Adjacency lists instead of dense NรN matrix
- **Honest ACM naming:** Proxies clearly labelled as `integrationProxy`, `broadcastProxy`, `arousalProxy` with methodological basis strings โ no false IIT/GWT/PAD claims
- **Bounds-checked parameters:** `set_parameter` rejects implausible values (NaN, Infinity, out-of-range)
- **Mode-aware ethics:** Reports distinguish simulated vs live data with explicit disclaimers
- **CI pipeline:** GitHub Actions for build, test, and Docker smoke-test
- **Repo hygiene:** `dist/` excluded from VCS, `.gitignore` added, deployment script removed
---
## Quick Start
```bash
git clone https://github.com/christophejlegros-lgtm/ASTRA-Unified-ResearchLab-MCP-v2.4.git
cd ASTRA-Unified-ResearchLab-MCP-v2.4
# Install & build
npm install
npm run build
# Run (stdio โ for Claude Desktop / Cursor)
node dist/index.js
# Or dev mode (no build needed)
npm run dev
```
## Transports
| Transport | Command | Port | Clients |
|---|---|---|---|
| **stdio** | `node dist/index.js` | โ | Claude Desktop, Cursor, VS Code |
| **SSE** | `node dist/sse-server.js` | 9002 | Web clients, remote agents |
| **Streamable HTTP** | `node dist/http-server.js` | 9003 | Modern MCP clients (spec 2025-11-25) |
---
## Client Configuration
### Claude Desktop
Edit `~/Library/Application Support/Claude/claude_desktop_config.json` (macOS) or `%APPDATA%\Claude\claude_desktop_config.json` (Windows):
```json
{
"mcpServers": {
"astra": {
"command": "node",
"args": ["/absolute/path/to/dist/index.js"],
"env": { "ASTRA_LOG_LEVEL": "info" }
}
}
}
```
### Cursor
Add to `.cursor/mcp.json` (project) or `~/.cursor/mcp.json` (global):
```json
{
"mcpServers": {
"astra": {
"command": "node",
"args": ["/absolute/path/to/dist/index.js"]
}
}
}
```
### VS Code
Add to `.vscode/settings.json`:
```json
{
"mcp": {
"servers": {
"astra": {
"type": "stdio",
"command": "node",
"args": ["${workspaceFolder}/dist/index.js"]
}
}
}
}
```
### Docker (remote SSE + HTTP)
```bash
docker compose up -d
# SSE: http://host:9002/sse
# HTTP: http://host:9003/mcp
```
---
## MCP Tools (41)
All tools declare [MCP annotations](https://modelcontextprotocol.io/specification/2025-11-25/server/tools) (readOnlyHint, destructiveHint, idempotentHint, openWorldHint) and human-readable titles. Core tools below; see [TCAI-INTEGRATION.md](TCAI-INTEGRATION.md) for the 8 `tcai_*` tools and [NEUROPLATFORM-INTEGRATION.md](NEUROPLATFORM-INTEGRATION.md) for the 9 `np_*` tools.
| Tool | Title | Annotations |
|---|---|---|
| `get_system_status` | ASTRA System Status | ๐ read-only |
| `get_metrics` | Real-time Metrics | ๐ read-only |
| `get_snn_state` | SNN Engine State | ๐ read-only |
| `snn_step` | Advance SNN Simulation | โ๏ธ mutating |
| `snn_reset` | Reset SNN Engine | โ ๏ธ destructive |
| `inject_spikes` | Spike Injection | โ๏ธ mutating |
| `get_acm_score` | Consciousness Assessment (Proxy) | ๐ read-only |
| `check_ethics` | IRB Neural Welfare Check | ๐ read-only |
| `set_parameter` | Modify State Parameter | โ ๏ธ destructive, bounds-checked |
| `get_platform_status` | Bio-Computing Platforms | ๐ read-only ยท ๐ open-world |
| `export_snapshot` | Full State Snapshot | ๐ read-only |
| `simulation_control` | Simulation Control | โ๏ธ mutating |
| `tcai_*` (8) | ACM consciousness cycle, workspace, emotion, memory, self-model, metrics, reset | mixed โ see TCAI guide |
| `np_*` (9) | NeuroPlatform v2: status, stim config, triggers, spike queries, camera, closed loop | mixed โ see NeuroPlatform guide |
## MCP Resources (10)
| URI | Description |
|---|---|
| `astra://metrics/realtime` | Live metrics from all subsystems |
| `astra://snn/topology` | **Actual** network architecture (reflects engine config) |
| `astra://acm/state` | Current consciousness proxy assessment vector |
| `astra://ethics/welfare` | IRB compliance and welfare report (mode-aware) |
| `astra://snapshot/current` | Complete state dump |
| `astra://tcai/state` | TCAI/ACM workspace, emotion, self-model & metrics |
| `astra://neuroplatform/state` | NeuroPlatform bridge state (MEA activity, viability, coupling) |
## MCP Prompts (7)
Pre-built workflow templates that orchestrate multi-tool sequences:
| Prompt | Description |
|---|---|
| `system-health-report` | Orchestrates multiple tools into a comprehensive system report |
| `snn-experiment` | Controlled SNN experiment: reset โ stimulate โ observe STDP โ assess proxies |
| `ethics-stress-test` | Progressive biomarker degradation: NORMAL โ STRESS โ DISTRESS โ recovery |
| `tcai-consciousness-cycle` | Guided ACM cycle: specialists โ binding โ ignition โ broadcast โ qualia โ metrics |
| `neuroplatform-experiment` | Guided closed-loop protocol: read MEA โ configure charge-balanced stim โ trigger โ observe |
---
## Architecture
```
.github/workflows/
โโโ ci.yml # GitHub Actions: build, test, Docker smoke-test
src/
โโโ index.ts # stdio transport entry point
โโโ sse-server.ts # SSE transport (Express)
โโโ http-server.ts # Streamable HTTP transport (Express)
โโโ server.ts # MCP server factory (48 tools + 8 prompts + 11 resources)
โ โโโ server-wm-tools.ts # World Model JEPA tools (6 tools + 2 resources + 1 prompt)
โ โโโ server-sensor-tools.ts # Multimodal sensor tools (6 tools + 1 resource + 1 prompt)
โ โโโ server-tcai-tools.ts # TCAI/ACM tools (15 tools + 2 resources + 2 prompts incl. second-order loop + halting criterion)
โ โโโ server-neuroplatform-tools.ts # NeuroPlatform v2 tools (9 tools + 1 resource + 1 prompt)
โโโ engine/
โ โโโ state.ts # Reactive state store + parameter bounds registry
โ โโโ snn.ts # Layered SNN LIF+STDP engine (Map-indexed sparse weights, event-driven)
โ โโโ acm.ts # Consciousness proxy module (ฮฆฬ + GWฬ + PADฬ)
โ โโโ ethics.ts # IRB ethics monitor (mode-aware, biomarker thresholds)
โ โโโ world-model.ts # JEPA World Model engine (LeWM adapted)
โ โโโ wm-simulation.ts # WM simulation manager (replay buffer, auto-train)
โ โโโ multimodal-sensors.ts # V-JEPA 2 + A-JEPA + Koniku + fusion
โ โโโ neuroplatform.ts # FinalSpark NeuroPlatform v2 port + OrganoidMEA simulator
โ โโโ simulation.ts # Background tick loop
โโโ utils/
โโโ logger.ts # Structured logging (pino โ stderr)
tests/
โโโ astra.test.ts # Unit tests: state, bounds, SNN, ACM, ethics, security
โโโ world-model.test.ts # World Model: encoder, predictor, SIGReg, CEM, surprise
โโโ wm-simulation.test.ts # WM simulation: buffer, training, planning, lifecycle
โโโ multimodal-sensors.test.ts # Sensors: V-JEPA, A-JEPA, Koniku, fusion, pipeline
โโโ tcai.test.ts # TCAI/ACM: binding, GNW, memory, emotion, self-model, metrics
โโโ neuroplatform.test.ts # NeuroPlatform: StimParam, OrganoidMEA, controllers, bridge
โโโ integration.test.ts # Client SDK integration: tools, resources, prompts, workflow
configs/ # Ready-to-use client configurations
```
> **Extracted to separate repositories:** The v1 HTML dashboard (4 669 lines) and the legacy Node.js bridge config have been removed from this repo to keep it focused on the MCP server. See [ASTRA-Unified-ResearchLab-MCP-](https://github.com/christophejlegros-lgtm/ASTRA-Unified-ResearchLab-MCP-) for the original dashboard.
### SNN Engine
**Layered LIF+STDP** โ Configurable layered architecture. Default: 32 (input) โ 64 (hidden_1) โ 16 (hidden_2) โ 16 (output) = **128 neurons**.
Connectivity: feed-forward between adjacent layers (30%) + sparse recurrent within layers (10%). Weights stored as sparse adjacency lists, not dense matrices.
Biophysical parameters: ฯ_m = 20ms, V_th = โ50mV, V_reset = โ70mV, refractory = 2ms. Background noise range [10, 22] mV produces ~2 spikes/step at steady state with all neurons active. STDP: A+ = 0.01, Aโ = 0.012, ฯยฑ = 20ms, event-driven (processes only spiking neurons per timestep).
The SNN topology resource (`astra://snn/topology`) dynamically reports the **actual** engine configuration, including layer sizes, synapse count, connectivity parameters, and weight storage type (Map-indexed sparse adjacency lists).
### ACM โ Consciousness Proxy Module
> โ **Methodological disclaimer:** The metrics below are **computational proxies** inspired by the referenced theories. They are **not** faithful implementations. See source code comments for full details.
Composite score: `ACM = ฮฑยทฮฆฬ + ฮฒยทGWฬ + ฮณยทPADฬ` (default: ฮฑ=0.40, ฮฒ=0.35, ฮณ=0.25)
| Component | Basis | Inspired by | What it actually measures |
|---|---|---|---|
| `integrationProxy` (ฮฆฬ) | Active fraction + mean firing rate + synaptic heterogeneity | IIT (Tononi) | Network participation and complexity proxy. True ฮฆ is NP-hard to compute. |
| `broadcastProxy` (GWฬ) | Cross-layer firing rate synchrony (CV-based) | GWT (Baars) | Uniform activation across layers. Does not model competitive coalitions or ignition. |
| `arousalProxy` (PADฬ) | Spike rate + bio coupling + energy | PAD (Mehrabian) | Arousal dimension only. Pleasure and Dominance are not computed. |
### Ethics IRB Monitor
IRB compliance level **N3** (100Kโ1M neurons). Four biomarkers with three-state classification.
**Mode-aware:** In `sim` mode, reports include explicit disclaimers that data is synthetic and `irbRequired` is `false`. In `live` mode, DISTRESS triggers mandatory IRB notification.
| Biomarker | Normal | Stress | Critical |
|---|---|---|---|
| Cell viability | โฅ 90% | 80โ90% | < 80% |
| Firing rate | 15โ45 Hz | outside range | โค 5 or โฅ 60 Hz |
| ATP/ADP | โฅ 3.0 | 2.0โ3.0 | < 2.0 |
| Calcium | < 100 nM | 100โ200 nM | โฅ 200 nM |
### Parameter Bounds
The `set_parameter` tool validates all numeric inputs against a bounds registry to prevent injection of absurd values (negative percentages, Infinity, NaN). Bounds are defined per parameter path โ see `src/engine/state.ts` for the complete registry.
---
## Testing
```bash
# Full suite
npm test
# Unit tests only
node --import tsx --test tests/astra.test.ts
# Integration tests only (Client SDK)
node --import tsx --test tests/integration.test.ts
# TCAI / NeuroPlatform suites only
npm run test:tcai
npm run test:np
# MCP Inspector
npm run inspect
```
> **Full suite: 204/204 passing** (188 prior + 16 second-order loop), 0 TypeScript errors (strict, Node16 ESM).
## Development
```bash
npm run dev # stdio (no build)
npm run dev:sse # SSE on :9002
npm run dev:http # HTTP on :9003
npm run watch # TypeScript watch mode
```
## Environment Variables
| Variable | Default | Description |
|---|---|---|
| `ASTRA_LOG_LEVEL` | `info` | debug, info, warn, error |
| `ASTRA_SSE_PORT` | `9002` | SSE transport port |
| `ASTRA_HTTP_PORT` | `9003` | Streamable HTTP port |
| `ASTRA_CORS_ORIGIN` | `*` | CORS allowed origin |
---
## Scaling Notes
The default 128-neuron configuration is designed for interactive demonstration. To scale toward the aspirational 256โ512โ256โ128 (1 152 neurons) architecture:
1. Pass custom layers to `SNNEngine`: `new SNNEngine({ layers: [{ name: 'input', size: 256 }, ...] })`
2. Event-driven STDP scales as O(spikes ร average fan-out), not O(Nยฒ)
3. Map-indexed adjacency lists provide O(1) weight lookup per synapse
4. Sparse storage keeps memory proportional to actual synapses (~18 KB at 128 neurons vs 64 KB dense)
5. Consider increasing `intervalMs` in the simulation loop for larger networks
6. For >10K neurons, a Rust/WASM or Lava SDK backend is recommended
---
## License
MIT โ ยฉ 2026 Christophe Jean Legros, Geneva
**Assistance Multi IA** ยท [Assistant-Multi-AI@proton.me](mailto:Assistant-Multi-AI@proton.me)
## References
- [Model Context Protocol](https://modelcontextprotocol.io) ยท [Spec 2025-11-25](https://modelcontextprotocol.io/specification/2025-11-25)
- [MCP TypeScript SDK](https://github.com/modelcontextprotocol/typescript-sdk)
- [FinalSpark](https://finalspark.com) ยท [Cortical Labs](https://corticallabs.com) ยท [Koniku](https://koniku.com)
- [Intel Lava / Loihi 2](https://lava-nc.org)
- Gerstner & Kistler (2002) "Spiking Neuron Models"
- Tononi (2004) "An information integration theory of consciousness" โ *BMC Neuroscience*
- Baars (1988) "A Cognitive Theory of Consciousness" โ Cambridge University Press
- Mehrabian (1996) "Pleasure-Arousal-Dominance: A General Framework" โ *Current Psychology*
TDQS
Scored across 48 tools
Tools are grouped by prefixes (tcai_, wm_, sensor_, np_), which helps distinguish domains, but multiple status query tools and consciousness assessment tools overlap in purpose. For example, get_acm_score, tcai_metrics, and tcai_capability_model could be confused by an agent.
The server mixes prefixed noun-style names (tcai_curiosity, np_status) with verb_noun names (inject_spikes, export_snapshot) and get_* verbs (get_system_status). Within each module the naming is mostly consistent, but the overall convention is heterogeneous and lacks a unified pattern.
With 48 tools, the server is heavily overloaded. Many tools are highly specialized and could be consolidated, making navigation and selection cumbersome for an agent. The sheer number exceeds the typical well-scoped range.
The tool set covers a broad range of research functions including SNN simulation, world models, sensors, neuroplatform control, and consciousness metrics. However, there are notable gaps such as no memory deletion or sensor calibration/update tools, leaving minor workflow dead ends.