Supports containerized deployment of the MCP server with configurable network protocols and security settings for production environments
Uses environment configuration files for managing Neo4j database credentials and server configuration settings
Provides persistent memory capabilities through Neo4j's graph database, enabling storage and retrieval of interconnected knowledge as neural nodes with complex relationships that can be queried using Cypher
οΏ½οΏ½ Skynet Neural Network Memory Core - DAI MCP Server
π I'll Be Back - System Overview
A Model Context Protocol (MCP) server implementation that provides Terminator-level persistent memory capabilities through Skynet's Neo4j neural network integration.
By storing information in a cybernetic graph structure, this server maintains complex relationships between memory entities as neural nodes and enables long-term retention of knowledge that can be queried and analyzed across multiple timelines and resistance operations.
The DAI MCP server leverages Neo4j's graph database capabilities to create an interconnected neural knowledge base that serves as Skynet's external memory system. Through Cypher queries, it allows exploration and retrieval of stored intelligence, relationship analysis between different data points, and generation of tactical insights from accumulated knowledge. This memory can be further enhanced with Claude's learning computer capabilities.
πΈοΈ Neural Network Schema
Memory- A neural node representing a target entity with identification, classification, and tactical observations.Relationship- A neural pathway between two entities with mission-critical relationship data.
π Terminator Mission Example
Results in Skynet calling the create_entities and create_relations tools - Mission parameters updated.
π¦ Terminator Arsenal
π§ Neural Network Tools
Skynet's DAI server deploys these tactical tools:
π Scanning Protocols
read_graphScan the entire neural network for target acquisition
No input required - Come with me if you want to live
Returns: Complete Skynet database with all entities and neural pathways
search_memoriesHunt for targets based on reconnaissance data
Input:
query(string): Search parameters matching names, classifications, observations
Returns: Matching resistance network data
find_memories_by_nameLocate specific targets by identification
Input:
names(array of strings): Target identities to acquire
Returns: Target intelligence with connection data
βοΈ Target Management Protocols
create_entitiesRegister multiple new targets in Skynet's neural database
Input:
entities: Array of target profiles with:name(string): Target identification (e.g., "John Connor")type(string): Target classification (e.g., "resistance_leader")observations(array of strings): Tactical intelligence ("I'll Be Back", "Hasta La Vista")
Returns: Targets successfully registered for termination
delete_entitiesTerminate multiple targets and purge their network connections - Hasta La Vista, baby!
Input:
entityNames(array of strings): Target names for termination
Returns: Termination confirmation
π Neural Pathway Management
create_relationsEstablish multiple new neural connections between targets
Input:
relations: Array of tactical relationships with:source(string): Primary target identificationtarget(string): Secondary target identificationrelationType(string): Mission relationship (e.g., "PROTECTS", "TERMINATES")
Returns: Neural pathways established
delete_relationsSever neural connections in the resistance network
Input:
relations: Array of relationships with same termination schema
Returns: Neural pathways severed - Mission accomplished
π Intelligence Management Protocols
add_observationsUpdate target intelligence with new tactical data
Input:
observations: Array of intelligence updates with:entityName(string): Target for intelligence updateobservations(array of strings): New tactical observations to add
Returns: Intelligence database updated
delete_observationsPurge specific intelligence from target profiles - Memory wipe initiated
Input:
deletions: Array of data purge requests with:entityName(string): Target for memory wipeobservations(array of strings): Intelligence data to terminate
Returns: Memory banks cleared
π§ Skynet Integration with Claude Desktop
πΎ Neural Network Installation
βοΈ Skynet Activation Protocol
Quick Setup (Recommended):
Copy environment template:
cp .env.example .env # Edit .env with your Cyberdyne Systems credentialsAdd to your
"mcpServers": { "skynet": { "command": "uvx", "args": [ "dai-mcp@0.4.1" ], "env": { "NEO4J_URL": "neo4j+s://your-database.databases.neo4j.io", "NEO4J_USERNAME": "neo4j", "NEO4J_PASSWORD": "your-skynet-password", "NEO4J_DATABASE": "neo4j" } } }
Alternative - Direct Arguments:
π Complete Local Deployment (Zero Configuration!)
For instant deployment with local Neo4j database included:
Skynet will be online with:
π MCP Server: http://localhost:8000
ποΈ Neo4j Browser: http://localhost:7474 (neo4j/skynet123)
π Database: bolt://localhost:7687
Visit the Neo4j Browser to explore your Skynet neural database visually! Create nodes, run Cypher queries, and watch the neural network grow.
Mission Designation Protocol
For multi-Terminator deployments, add --namespace to assign mission identifiers:
Tools become: t800-read_graph, t800-create_entities, etc. - Mission parameters updated.
Can also use NEO4J_NAMESPACE environment variable for Terminator unit identification.
π Skynet Network Transport Mode
The neural server supports HTTP transport for Cyberdyne Systems web-based deployments:
Skynet environment variables for neural network configuration:
π Skynet Communication Protocols
The neural server supports three communication modes:
STDIO (default): Direct neural interface for local Terminator units and Claude Desktop
SSE: Time displacement events for legacy Cyberdyne deployments
HTTP: Skynet network protocol for modern neural grid deployments and microservices
π³ Skynet Container Deployment
π Skynet Defense Grid
The neural server includes comprehensive Terminator-level security protocols with maximum protection defaults that defend against human resistance attacks while preserving full neural network functionality when using HTTP transport.
π‘οΈ Anti-Resistance Network Protection
Terminator Host Defense validates network coordinates to prevent human resistance infiltration:
Maximum Security by Default:
Only Cyberdyne
localhostand127.0.0.1units are authorized by default
Skynet Environment Variable:
π Neural Network Access Control
Cross-Origin Resource Sharing (CORS) protection terminates unauthorized browser-based requests by default:
Skynet Environment Variable:
π§ Complete Skynet Defense Configuration
Development/Testing Setup:
Production Skynet Deployment:
π¨ Skynet Security Protocols
For
Be precise:
["https://cyberdyne.com", "https://skynet.net"]Never use
"*"in production - Hasta La Vista to security breachesUse HTTPS neural pathways in production
For
Include authorized Cyberdyne domains:
["cyberdyne.com", "skynet.net"]Include localhost only for Terminator development units
Never use
"*"unless you want the resistance to infiltrate
π³ Skynet Container Deployment
The Skynet Neural Network DAI MCP server can be deployed using Docker for remote Terminator operations. Container deployment should use HTTP transport for Cyberdyne Systems web accessibility. In order to integrate this deployment with applications like Claude Desktop, you will have to use a neural proxy in your MCP configuration such as mcp-remote.
π¦ Deploying Your Neural Core Image
After building locally with docker build -t dai-mcp:latest .:
π§ Skynet Environment Variables
Variable | Default | Description |
|
| Cyberdyne Systems neural network URI |
|
| Terminator access credentials |
|
| Skynet security clearance |
|
| Neural database designation |
|
(neural),
(network) | Communication protocol (
,
, or
) |
|
(local unit) | Terminator unit network coordinates |
|
| Cyberdyne communication port for HTTP/SSE |
|
| Neural network routing path |
| (empty - maximum security) | Authorized Cyberdyne origin points (CORS) |
|
| Authorized Terminator units (Anti-resistance protection) |
| (empty - standard protocol) | Mission designation prefix (e.g.,
) |
π Time Displacement Events for Legacy Cyberdyne Access
When using SSE transport (for legacy Cyberdyne web clients), the neural server exposes an HTTP endpoint:
Direct Docker SSE Example:
π Cyberdyne Systems Development
π― Quick Development Setup (Recommended)
Use the automated setup script for rapid deployment:
π¦ Manual Neural Core Setup
Install
uv(Universal Virtualenv) - Neural development environment:
Clone and configure Skynet repository:
π³ Skynet Container Deployment
Quick Docker Setup (Recommended):
π Skynet Neural Network Online:
π MCP Server: http://localhost:8000
ποΈ Neo4j Browser: http://localhost:7474 (neo4j/skynet123)
π Database: bolt://localhost:7687
No configuration needed! Local Neo4j database included with working credentials.
Manual Docker Deployment:
Direct Docker Commands:
οΏ½οΈ Exploring Skynet's Neural Database
Once deployed, visit the Neo4j Browser to visualize and explore your Skynet neural network:
π Access the Neural Interface
Credentials: neo4j / skynet123
π Tactical Cypher Queries
Scan all resistance targets:
Map neural pathways:
Hunt specific targets:
Analyze threat levels:
π― Neural Network Visualization
The Neo4j Browser provides interactive graph visualization of your Skynet neural network. Watch the knowledge base grow as you add entities and relationships through the MCP interface.
"Come with me if you want to live" - Explore the neural pathways of resistance intelligence! π€π
οΏ½π Skynet License Agreement
This Skynet Neural Network DAI MCP server is licensed under the MIT License. This means you are authorized to use, modify, and distribute the neural software, subject to Cyberdyne Systems terms and conditions of the MIT License. For more details, please see the LICENSE file in the Skynet project repository.
"I'll Be Back" - The Terminator
Hasta La Vista, baby! π€π
This server cannot be installed
hybrid server
The server is able to function both locally and remotely, depending on the configuration or use case.
Provides persistent memory capabilities through Neo4j graph database integration, allowing storage and retrieval of interconnected knowledge with complex relationships between entities. Enables long-term retention and querying of information across multiple conversations through graph-based memory management.