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Developer ToolsQuality Score: 28/99 (Fair)No Auth RequiredSpec v1.1.2auto GenerationTransport: stdio

Space Radiation APIMCP Configuration & Schema Registry

The Space Radiation API Model Context Protocol (MCP) configuration provides a validated, machine-readable JSON schema and executable bridge that connects state-of-the-art AI coding assistants — including Claude Desktop, Cursor IDE, Windsurf, Cline, and VS Code Copilot — directly to the Space Radiation API REST API. By leveraging the standardized open Model Context Protocol, AI agents can dynamically discover capabilities, validate input parameters against strict JSON Schemas, and execute live API operations without context switching or manual copy-pasting.

Quick Specs & Integration Summary

1. Functionality:Exposes 3 API endpoints as callable AI tools for Space Radiation API.
2. Authentication:Zero authentication required — ready for immediate execution.
3. Protocol Layer:Standard Model Context Protocol JSON-RPC 2.0 via stdio transport.
4. Quick Launch:npx -y @modelcontextprotocol/server-openapi https://api.apis.guru/v2/specs/amentum.space/space_radiation/1.1.2/openapi.json

Technical Architecture & Protocol Semantics

Under the Model Context Protocol specification, the Space Radiation API configuration functions as an isolated protocol adapter. When an AI agent initializes a session, the client establishes a bidirectional JSON-RPC 2.0 communication channel over standard input/output (stdio) or Server-Sent Events (SSE). During the initial handshake, the server publishes its tool manifest extracted from the Space Radiation API OpenAPI specification (version 1.1.2).

The Space Radiation API provides programmatic access to critical data characterizing the ionizing radiation environment in space, a primary challenge for human spaceflight and the reliability of satellite systems. This API serves as a definitive source for high-fidelity radiation flux models, offering endpoints to retrieve data for key radiation components that pose the greatest risk: Galactic Cosmic Rays (GCRs) originating from supernovae and other high-energy galactic events, and trapped radiation from Earth's Van Allen belts. By abstracting complex astrophysical models into simple RESTful calls, it enables engineers, mission planners, and researchers to move beyond static tables and incorporate dynamic, current, or historical space weather conditions directly into their analytical workflows. Its primary use cases span the aerospace industry, including spacecraft shielding optimization, electronic component (COTS) reliability analysis, astronaut dosimetry and health risk modeling, and mission architecture design for programs from low-Earth orbit constellations to deep space exploration. When exposed as tools via a Model Context Protocol (MCP) server, the Space Radiation API becomes a powerful sensory input for AI coding assistants, dramatically expanding their ability to generate context-aware and physically accurate technical solutions. Instead of relying solely on static knowledge, an AI like Claude Desktop or Cursor can perform real-time queries to ground its code generation, documentation, or system design in the actual or predicted radiation environment. For instance, the AI could directly ingest GCR flux spectra to accurately calculate single-event upset (SEU) rates for a specific satellite processor's memory, or use trapped proton and electron flux data to script an automated analysis of component dose depth curves. This transforms the AI from a generic code generator into a specialized systems engineering partner capable of producing radiation-hardening strategies, test plans, and simulation parameters that are directly tied to environmental data, significantly accelerating the "analysis-to-code" cycle. A developer can instruct the AI agent to execute dynamic, multi-step tasks that integrate this environmental data directly into development and analysis pipelines. For example, a command such as "Query the mean trapped proton flux for a 400 km orbit at a 51.6-degree inclination and generate a Python script using the SPENVIS model to calculate the total ionizing dose for a standard commercial DRAM component over a 10-year mission" would trigger the AI to call the appropriate `GET /trapped/flux_mean` endpoint, process the JSON response, and then write a coherent script that imports the data into its calculations. Similarly, an instruction to "Create a comparison report of the GCR environment between solar minimum and solar maximum using the `/gcr/flux_dlr` endpoint, focusing on neutron flux and its impact on avionics error rates" would lead the AI to execute multiple calls with different parameters, synthesize the results, and produce a technical document outlining the differing risks and mitigation strategies for each period. While the API currently requires no authentication for access, a critical best practice is to treat it as a public but potentially rate-sensitive resource. Developers setting up the MCP server should implement robust API key management even if not yet required, storing credentials securely outside of version control and rotating them periodically. When integrating with AI assistants, applying the principle of least privilege is paramount; the AI's access should be scoped to only the specific API endpoints necessary for the task at hand. Configuration should include defining clear rate limits within the MCP server to prevent runaway API calls from degrading service, and implementing thorough input validation to sanitize any user queries passed to the API, ensuring they map correctly to valid query parameters and timeframes to maintain data integrity and system stability. This architecture guarantees strict process boundary isolation: all sensitive authorization headers and secret tokens remain sandboxed inside the client runtime, never leaking into language model context windows or external logging endpoints.

Authentication TypePublic (No Auth)Injected via local client environment
Tools & Routes Mapped3 OperationsConforms to JSON-RPC 2.0 specs
Specification OriginOpenAPI v1.1.2auto schema validation
Documentation & Schema Quality Index
28
★ Grade C - Baseline Coverage
Automated Audit Checklist
Automated schema extraction & validation (+12 pts)
Core tool mapping (3 endpoints defined) (+14 pts)
Zero-configuration public API instant execution (+20 pts)
Full JSON-RPC 2.0 Model Context Protocol specification conformity (+15 pts)
Standardized endpoint summary coverage (+8 pts)

Hosted Remote Configuration URL

MCP Configuration File

Provide this hosted URL in any client that supports remote MCP schema auto-loading.

https://mcpbridge.org/config/amentum-space-space-radiation.json

2. AI Assistant Use Cases & Practical Workflows

Tailored for Developer Tools

Real-world execution scenarios demonstrating how LLM agents (Claude 3.7, GPT-4o, Cursor Agent) invoke Space Radiation API tools to automate developer workflows.

1. CI/CD Build Failure & Telemetry Diagnostics

CI/CD Remediation

Instantly diagnose failing CI/CD builds or deployment pipelines by streaming build logs, isolating failure root causes, and drafting targeted code fixes.

Example Natural Language Prompt:

"Fetch recent pipeline run logs from Space Radiation API. Isolate the failed step, summarize the exact compiler or test failure error, and propose a pull request fix in Cursor."

Mapped: /gcr/flux_dlr

2. Cloud Resource Auditing & Cost Optimization

Cloud FinOps

Scan active compute clusters, storage buckets, and networking configurations to identify unattached volumes or idle oversized instances.

Example Natural Language Prompt:

"Query active cloud infrastructure resources in Space Radiation API. Identify unattached storage volumes, idle compute instances, and summarize estimated monthly cost savings."

Mapped: /trapped/flux_mean

3. Zero-Downtime Rollout & Canary Health Verification

Deployment Ops

Orchestrate progressive deployments, monitor error rate thresholds on newly deployed pods, and execute automated rollbacks if error budgets breach.

Example Natural Language Prompt:

"Check the active deployment rollout status in Space Radiation API. Monitor canary error rate percentages for 5 minutes and report whether the deployment is safe to promote to 100% traffic."

Autonomous Agent Loop

4. Infrastructure as Code (IaC) Drift Detection

IaC Governance

Compare live deployed resource state against Terraform or CloudFormation definitions to spot unauthorized manual changes.

Example Natural Language Prompt:

"Scan live configurations via Space Radiation API and compare against our repository IaC definitions. Highlight any configuration drift in security groups or network routes."

Autonomous Agent Loop

End-to-End Multi-Step Agent Execution Lifecycle

When an engineer submits a task to Claude Desktop or Cursor, the LLM executes an autonomous 4-phase Model Context Protocol loop:

Phase 1

Schema Introspection

Handshake lists all 3 tools and builds argument validators.

Phase 2

Argument Synthesis

Model extracts parameters from prompt and validates types against OpenAPI rules.

Phase 3

Stdio Execution

Bridge invokes live API with injected local credentials and captures raw HTTP response.

Phase 4

Output Remediation

LLM parses JSON results, handles status codes, and presents synthesized answers.

3. Multi-Client Installation Matrix & Setup Guides

Select your AI assistant below to view exact configuration file paths, JSON installation snippets, and launch commands.

Claude Desktop

claude_desktop_config.json
macOS: ~/Library/Application Support/Claude/claude_desktop_config.json
Windows: %APPDATA%\Claude\claude_desktop_config.json
Linux: ~/.config/Claude/claude_desktop_config.json
{
  "mcpServers": {
    "amentum-space-space-radiation": {
      "command": "npx",
      "args": [
        "-y",
        "@modelcontextprotocol/server-openapi",
        "https://api.apis.guru/v2/specs/amentum.space/space_radiation/1.1.2/openapi.json"
      ],
      "env": {
        "SPACE_RADIATION_API_API_KEY": "your_space_radiation_api_api_key"
      }
    }
  }
}
Deep link

Cursor IDE

.cursor/mcp.json

Open Cursor Settings → Features → MCP Servers, or create .cursor/mcp.json in your project root.

{
  "mcpServers": {
    "amentum-space-space-radiation": {
      "command": "npx",
      "args": [
        "-y",
        "@modelcontextprotocol/server-openapi",
        "https://api.apis.guru/v2/specs/amentum.space/space_radiation/1.1.2/openapi.json"
      ],
      "env": {
        "SPACE_RADIATION_API_API_KEY": "your_space_radiation_api_api_key"
      }
    }
  }
}

Saves as .cursor/mcp.json in the download. Move it to your project root.

Deep link install →

VS Code / Cline Extension

cline_mcp_settings.json

Paste into your Cline extension MCP configuration or Roo Code host settings.

{
  "mcpServers": {
    "amentum-space-space-radiation": {
      "command": "npx",
      "args": [
        "-y",
        "@modelcontextprotocol/server-openapi",
        "https://api.apis.guru/v2/specs/amentum.space/space_radiation/1.1.2/openapi.json"
      ],
      "env": {
        "SPACE_RADIATION_API_API_KEY": "your_space_radiation_api_api_key"
      }
    }
  }
}

Zed Editor & Docker CLI

Zed / Docker

Docker container execution command:

docker run -i --rm -e SPACE_RADIATION_API_API_KEY="YOUR_SECRET_VALUE" node:20-alpine npx -y @modelcontextprotocol/server-openapi https://api.apis.guru/v2/specs/amentum.space/space_radiation/1.1.2/openapi.json

Zed settings context servers JSON:

{
  "context_servers": {
    "amentum-space-space-radiation": {
      "command": {
        "path": "npx",
        "args": [
          "-y",
          "@modelcontextprotocol/server-openapi",
          "https://api.apis.guru/v2/specs/amentum.space/space_radiation/1.1.2/openapi.json"
        ],
        "env": {
          "SPACE_RADIATION_API_API_KEY": "your_space_radiation_api_api_key"
        }
      }
    }
  }
}

Programmatic SDK Integration (TypeScript / Python)

Initialize the Space Radiation API MCP client directly in your backend codebase.

import { Client } from "@modelcontextprotocol/sdk/client/index.js";
import { StdioClientTransport } from "@modelcontextprotocol/sdk/client/stdio.js";

// Initialize Space Radiation API MCP client transport over stdio
const transport = new StdioClientTransport({
  command: "npx",
  args: ["-y","@modelcontextprotocol/server-openapi","https://api.apis.guru/v2/specs/amentum.space/space_radiation/1.1.2/openapi.json"],
  env: { SPACE_RADIATION_API_API_KEY: process.env.SPACE_RADIATION_API_API_KEY || "YOUR_SECRET_KEY" }
});

const client = new Client(
  { name: "amentum-space-space-radiation-client", version: "1.0.0" },
  { capabilities: { tools: {}, resources: {}, prompts: {} } }
);

async function connectAndRun() {
  await client.connect(transport);
  const tools = await client.listTools();
  console.log("Connected to Space Radiation API MCP Server.");
  console.log("Discovered 3 mapped tools:", tools);
}

connectAndRun().catch(console.error);

Raw Stdio Schema Definition

schema.json

For standalone CLI wrappers, background daemon daemons, or custom script integrations:

{
  "mcpServers": {
    "amentum-space-space-radiation": {
      "command": "npx",
      "args": [
        "-y",
        "@modelcontextprotocol/server-openapi",
        "https://api.apis.guru/v2/specs/amentum.space/space_radiation/1.1.2/openapi.json"
      ],
      "env": {
        "SPACE_RADIATION_API_API_KEY": "your_space_radiation_api_api_key"
      }
    }
  }
}

4. Security, Authentication & Credential Management

Safely configure authentication tokens, isolate execution environments, and implement enterprise security best practices.

Required Environment Keys Reference

Variable NameRequiredTypeDefaultPurpose & Guidance
SPACE_RADIATION_API_API_KEYREQUIREDSecret Key / TokenNone (Set in env)your_space_radiation_api_api_key

Zero-Downtime Token Rotation Protocol

  1. Generate Secondary Key: Create a new secret API token with identical scopes in your Space Radiation API developer portal.
  2. Update Client Configuration: Insert the new token inside the env block of your MCP client JSON config.
  3. Validate Connection: Issue a test query in Claude or Cursor to ensure handshake and tool calls succeed.
  4. Revoke Stale Token: Decommission the legacy key on the vendor portal to prevent unauthorized access.

Least-Privilege & Sandboxing Rules

  • Read-Only Token Scoping: Whenever your workflow only requires querying data, provision read-only credentials to prevent accidental mutations.
  • Local Process Isolation: Stdio transports run in isolated local subprocesses; secret credentials are never sent across the internet to MCP Bridge servers.
  • Prompt Injection Defense: AI model responses are sandboxed; verify generated destructive arguments before confirming execution in agent mode.

Enterprise Security Checklist (Mandatory Practices)

  • Never commit claude_desktop_config.json or .cursor/mcp.json containing raw secrets into public GitHub repositories.
  • Add .cursor/mcp.json and .env.local to your project's .gitignore file.
  • Always enforce TLS/HTTPS encryption on outbound network requests initiated by the server process.

5. Tool Parameter Schemas & Natural Language Execution

Mapped OpenAPI operations converted into discrete Model Context Protocol tools with strict JSON-RPC payload validators.

3 Total Tools Mapped
GET/gcr/flux_dlr
tools/call: amentum-space-space-radiation_get_gcr_flux_dlr

Calculate particle flux

Zero required query/path parameters for this endpoint.
JSON-RPC 2.0 Request Payload
{
  "jsonrpc": "2.0",
  "id": 1,
  "method": "tools/call",
  "params": {
    "name": "amentum-space-space-radiation_get_gcr_flux_dlr",
    "arguments": {}
  }
}
Natural Language Prompt

"Use Space Radiation API to execute Calculate particle flux and output the formatted result."

GET/trapped/flux_mean
tools/call: amentum-space-space-radiation_get_trapped_flux_mean

Calculate mean particle flux

Zero required query/path parameters for this endpoint.
JSON-RPC 2.0 Request Payload
{
  "jsonrpc": "2.0",
  "id": 2,
  "method": "tools/call",
  "params": {
    "name": "amentum-space-space-radiation_get_trapped_flux_mean",
    "arguments": {}
  }
}
Natural Language Prompt

"Use Space Radiation API to execute Calculate mean particle flux and output the formatted result."

GET/trapped/flux_percentile
tools/call: amentum-space-space-radiation_get_trapped_flux_percentile

Calculate percentile particle flux

Zero required query/path parameters for this endpoint.
JSON-RPC 2.0 Request Payload
{
  "jsonrpc": "2.0",
  "id": 3,
  "method": "tools/call",
  "params": {
    "name": "amentum-space-space-radiation_get_trapped_flux_percentile",
    "arguments": {}
  }
}
Natural Language Prompt

"Use Space Radiation API to execute Calculate percentile particle flux and output the formatted result."

6. Interactive Troubleshooting & FAQ Accordion

Diagnose and resolve common JSON-RPC protocol error codes, connection disconnects, and schema refresh issues.

A 401 Unauthorized response indicates that the upstream Space Radiation API API rejected the authentication credential supplied in your MCP client's environment configuration. To resolve this: (1) Verify that your secret token is defined inside the "env" block of claude_desktop_config.json or .cursor/mcp.json rather than hardcoded in the command string. (2) Check whether Space Radiation API requires a prefix such as "Bearer <token>" in the authorization header. (3) Confirm that your API key has not expired and has been granted sufficient least-privilege scopes on the Space Radiation API developer dashboard.

If your MCP client fails to initialize tools for Space Radiation API: (1) Test the bridge launcher command ("npx -y @modelcontextprotocol/server-openapi https://api.apis.guru/v2/specs/amentum.space/space_radiation/1.1.2/openapi.json") directly inside your terminal or shell to inspect stdout/stderr diagnostic traces. (2) Verify network connectivity to the schema source (https://api.apis.guru/v2/specs/amentum.space/space_radiation/1.1.2/openapi.json). (3) Ensure Node.js (v18+) is installed and accessible in your system PATH. (4) For authenticated APIs, confirm credentials are configured in your client's "env" mapping rather than command arguments.

Similar Developer Tools Configurations

Explore related API bridges with ready-to-use Model Context Protocol schemas.

GitHub API

Developer Tools

Access GitHub repositories, issues, pull requests, and more. Integrate GitHub workflows directly into your AI agent.

https://mcpbridge.org/config/github.json

GitLab API

Developer Tools

Manage repositories, CI/CD pipelines, and merge requests through your AI agent.

https://mcpbridge.org/config/gitlab.json

Box Platform API

Developer Tools

The Box Platform API, provided by Box (box.com), is a robust and comprehensive RESTful service that enables deep integration with the Box cloud content management ecosystem. It serves as the programmatic backbone for enterprises and developers seeking to build custom applications and workflows that interact with content stored securely in Box. Its core capabilities extend far beyond basic file operations, encompassing a full spectrum of content lifecycle management. Developers can programmatically create, upload, download, search, and manage files and folders, but the API's true power lies in its enterprise-grade features. These include advanced collaboration management through invitations and permissions, granular user and group administration within an enterprise directory, and sophisticated security and compliance controls. Specific endpoint groups for managing collaboration whitelists and exempt targets allow for precise governance over external sharing policies, ensuring that content is only shared with approved domains. Furthermore, the API facilitates complex legal and compliance use cases, such as placing items on legal hold or applying retention policies, making it an indispensable tool for regulated industries and large organizations. Exposing this API as tools via the Model Context Protocol (MCP) for AI coding assistants transforms it from a static integration point into a dynamic, conversational development partner. The value lies in delegating repetitive, structured, and context-aware platform operations to the AI agent. Instead of manually writing scripts or navigating multiple dashboard clicks, a developer can instruct the AI to perform precise actions using natural language, which the AI translates into the correct API calls. For instance, an AI assistant equipped with these MCP tools can intelligently query the `GET /collaborations` endpoint to analyze the permission landscape for a sensitive project folder, or it can generate the necessary configuration to programmatically whitelist a new partner domain using `POST /collaboration_whitelist_entries`. This drastically accelerates development and operational workflows, reduces the cognitive load on developers, and minimizes the risk of manual errors in scripting repetitive tasks, effectively embedding the Box Platform's capabilities directly into the developer's AI-augmented workflow. Within this MCP-enabled environment, a developer can instruct the AI agent to perform a variety of powerful, dynamic tasks. For example, a natural language command like, "Set up the standard folder structure for our new 'Project Phoenix' initiative under the Corporate Engineering directory, then add the legal team as collaborators with viewer-only permissions," can be orchestrated by the AI. It would sequentially create the folder hierarchy via the file management endpoints, search for the existing 'Legal' group using the user management APIs, and finally apply the correct permissions using the collaborations endpoint. Another practical workflow involves security auditing; a developer could ask, "List all external collaborations on files within the '2024 Financial Reports' folder and check if any are outside our approved vendor list." The AI agent would query the relevant endpoints, cross-reference the results against the collaboration whitelist entries via `GET /collaboration_whitelist_entries`, and provide a concise report or even take corrective action by revoking specific collaborations if instructed. Critical attention must be paid to authentication and security when implementing this API integration. While the described endpoints use a 'None' authentication method for the initial `GET /authorize` step (which is part of the OAuth 2.0 flow initiation), all subsequent data operations require a valid OAuth 2.0 access token. The principle of least privilege is paramount; developers must configure their applications with the narrowest OAuth scopes necessary for their specific use case, avoiding broad `read_write_all` scopes when `read_only` or scoped write access suffices. All tokens must be stored securely, and refresh tokens should be handled with care. For enterprise deployments, administrators should enable Box's IP whitelisting for API access and mandate two-factor authentication for associated accounts. Furthermore, developers must implement rigorous error handling and leverage Box's comprehensive webhook system for event-driven architectures, rather than relying solely on polling. Finally, all API interactions should be logged for audit trails, especially when managing compliance-related features like legal holds or retention policies, to ensure accountability and support for regulatory requirements.

https://mcpbridge.org/config/box-com.json

Asana

Developer Tools

This API serves as the programmatic backbone for the Asana work management platform, provided by Asana, Inc. It enables developers to interact programmatically with one of the world's leading enterprise collaboration and productivity suites. The core capabilities of this interface center around the CRUD (Create, Read, Update, Delete) operations for fundamental Asana objects. Specifically, the provided endpoints grant control over project attachments—allowing for the uploading, retrieval, and management of files associated with tasks and projects—and custom fields, which are pivotal for creating structured, data-rich workflows. These custom fields allow organizations to define unique data types (like dropdown menus, text fields, or dates) to standardize information capture across projects, moving beyond basic task lists to true operational tracking. Typical use cases span from enterprise project management offices (PMOs) needing to programmatically generate status reports and audit attachments, to development teams automating the creation of bug-tracking projects with predefined custom fields for severity and status, to operational leaders building dashboards that aggregate and analyze custom field data for resource allocation insights. When exposed as tools via the Model Context Protocol (MCP) to an AI coding assistant like Claude Desktop or Cursor, this API transforms from a static set of endpoints into a dynamic, conversational work orchestration layer. The value proposition is profound: it bridges the gap between natural language intent and structured work management execution. An AI assistant equipped with these MCP tools gains the ability to understand and manipulate the very fabric of a team's operational workflow. Instead of a developer manually writing scripts to query project attachments for an audit or updating custom fields to trigger a workflow state change, they can issue plain English commands. This integration enables the AI to act as a highly specialized "project operations agent," capable of reasoning about work data, making updates based on complex criteria, and automating routine administrative tasks that typically consume valuable engineering or management time. The context window allows the AI to maintain awareness of recent interactions, making iterative tasks like "find all attachments from last week and summarize them" or "change the 'Priority' field to 'High' for all tasks assigned to me due this week" seamless and efficient. Practical workflow examples highlight the powerful automation possibilities. A developer could instruct their AI agent: "Query all attachments on the 'Q3 Launch' project and generate a CSV list of filenames and their parent tasks for documentation." The AI would leverage the GET /attachments endpoint (with appropriate project filtering) to compile this report instantly. For a more complex update: "For every task in the 'Backlog' project that has the custom field 'Estimated Hours' set to more than 10, create a subtask titled 'Breakdown Required' and update the 'Status' custom field to 'Needs Refinement'." Here, the AI would orchestrate a sequence: first querying tasks using the custom fields API (once a GET for custom fields is available or via linked object data), then using the POST /batch endpoint to efficiently create multiple subtasks and update multiple custom fields in a single, optimized API call. Furthermore, an agent could be tasked with "Set up a new bug report template by creating a 'Bug' project and adding the custom fields 'Bug ID' (text), 'Severity' (dropdown), and 'Component' (dropdown) with the appropriate options," automating a multi-step project setup process that would otherwise require numerous manual clicks or complex scripting. Despite the current configuration indicating no authentication requirement for this specific API definition, a rigorous approach to security is non-negotiable in any real-world implementation. Developers must treat this API as a conduit to their organization's critical work data. All interaction must be authenticated using Asana's standard OAuth 2.0 flow or Personal Access Tokens, ensuring every action is attributable and authorized. The principle of least privilege is essential: create and use API tokens with the narrowest possible scope. For instance, if a tool's sole purpose is to read attachments, its token should not have permission to delete them or modify project structures. When deploying an MCP server, it is critical to securely manage and store credentials, avoiding hardcoding and utilizing environment variables or secret management services. Network security should enforce HTTPS for all API calls, and developers should implement robust error handling and logging to monitor for unusual activity without exposing sensitive data. Rate limiting awareness is also key to building resilient applications that respect Asana's API service limits.

https://mcpbridge.org/config/asana-com.json