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Semantic Scholar MCP Server

MCP Server

FastMCP-powered access to Semantic Scholar academic data

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Updated Jan 2, 2025

About

A FastMCP server that exposes the Semantic Scholar API, enabling fast paper search, citation analysis, author profiling and batch operations with rate‑limit handling. Ideal for academic research automation and data enrichment.

Capabilities

Resources
Access data sources
Tools
Execute functions
Prompts
Pre-built templates
Sampling
AI model interactions

Overview

The Semantic Scholar MCP Server is a FastMCP‑based bridge that exposes the full breadth of the Semantic Scholar API to AI assistants and developer workflows. It solves a common pain point in research automation: accessing high‑quality academic metadata, citation networks, and author profiles without wrestling with HTTP details or rate‑limit constraints. By presenting a clean MCP interface, the server lets Claude or other AI agents query scholarly content directly, enabling sophisticated knowledge‑base construction, literature reviews, and citation analysis in a single, conversational interaction.

At its core, the server offers paper search and discovery capabilities that mirror Semantic Scholar’s own advanced query engine. Users can perform relevance‑based searches, title matches, and bulk queries that return rich metadata such as titles, abstracts, authors, venues, and citation counts. The search tools support extensive filtering (year ranges, citation thresholds) and sorting options, allowing AI assistants to surface the most pertinent studies for a given research question. Additionally, the server provides citation analysis tools that traverse both incoming and outgoing citation links, exposing context, influence metrics, and reference chains—essential for mapping intellectual lineages or identifying pivotal works.

Author information is another cornerstone. The server exposes search and detail endpoints that return author profiles, publication histories, affiliations, and impact metrics like h‑index. Batch retrieval is supported for large author lists, making it feasible to compile comprehensive researcher dossiers or conduct cohort analyses. The ability to combine these tools lets developers build end‑to‑end pipelines: an AI assistant can search for relevant papers, fetch their citation networks, and then pull author details to construct a fully annotated literature map.

Key features include rate‑limit awareness (automatic adjustment for authenticated vs. unauthenticated access), connection pooling, and graceful error handling, ensuring robust performance in production environments. The server also supports customizable field selection, enabling agents to request only the data they need and reduce payload size. These optimizations are particularly valuable when integrating with large language models that may otherwise be bottlenecked by slow API responses.

In practice, the Semantic Scholar MCP Server shines in scenarios such as automated literature reviews for grant proposals, real‑time academic search within educational chatbots, or building citation recommendation engines. Developers can embed the server into their AI workflows, letting assistants retrieve and synthesize scholarly insights on demand. Its alignment with the official Semantic Scholar API guarantees up‑to‑date field support, while the MCP abstraction frees developers from low‑level HTTP plumbing. Overall, this server transforms raw academic data into a conversationally accessible resource, empowering AI assistants to act as knowledgeable research companions.