MCP Servers

Discover Awesome MCP Servers

Extend your agent with 16,118 capabilities via MCP servers.

All16,118

mcp-server-server

镜子 (jìng zi)

MCP_DEMO

尝试使用 MCP 服务器。

stack-exchange-mcp

用于与 Stack Overflow 等 Stack Exchange 站点交互的 MCP 服务器

Workers + Stytch TODO App MCP Server

Workers + Stytch TODO 应用 MCP 服务器

TaskBoardAI

看板看板旨在帮助 AI 代理跟踪多步骤任务。包括人机回路 (HIL) Web UI 和多控制平面 (MCP) 服务器。

Memory

基于知识图谱的持久内存系统

Tribal - Knowledge Service

一个 MCP 服务器实现，旨在帮助 Claude 记忆并从编程错误中学习。它通过存储、检索和查找具有完整上下文的相似错误来实现这一点。 (Alternative, slightly more technical translation): 一个 MCP 服务器实现，用于帮助 Claude 记忆并从编程错误中学习。它通过存储、检索和查找包含完整上下文信息的相似错误来实现。

tavily-search MCP server

镜子 (jìng zi)

ElevenLabs MCP Server

镜子 (jìng zi)

MyIP MCP Server

一个模型上下文协议（MCP）服务器，用于向大型语言模型（LLM）提供您的公共 IP 地址。 (Or, more literally: 一个模型上下文协议 (MCP) 服务器，用于将您的公共 IP 提供给 LLM。)

🤗 Hugging Face MCP Server 🤗

一个模型上下文协议服务器，为 Claude 和其他大型语言模型提供对 Hugging Face Hub API 的只读访问权限，从而能够通过自然语言与模型、数据集、Spaces、论文和集合进行交互。

Open MCP Server

一个用于众多第三方软件和第三方 API 的模型上下文协议 (MCP)。一旦部署，此服务可以为您的 AI 平台提供增强的支持，例如使您能够使用 Dofi 来完善您的平台。

Claude MCP Server TestClaude MCP Server Test

一个简单的“即将上线”测试网站 (Yī gè jiǎndān de “jíjiāng shàngxiàn” cèshì wǎngzhàn)

GitHub CLI MCP服务器

GitHub CLI 允许你访问私有仓库。 (GitHub CLI yǔnxǔ nǐ fǎngwèn sīyǒu cāngkù.)

mcp-dutch-postal-codes

荷兰邮政编码查询的 MCP 服务器

GitHub PR MCP Server

用于 Github 的 Claude MCP 服务器，集成 Linear

MCP Servers Collection

MCP 服务器用于扩展功能

Pyro2 MCP Server

基于 Python 的 MCP 服务器实现，用于在多个项目之间保持对话连续性

LYRAIOS

LYRAI 是一个多人工智能代理的模型上下文协议（MCP）操作系统，旨在通过使人工智能应用程序能够与金融网络和区块链公链交互来扩展其功能。该服务器提供一系列高级人工智能助手，包括区块链公链操作（SOLANA、ETH、BSC 等）。

Gmail Mcp Client Server

将 MCP 客户端和服务器连接到 Claude 以集成 Gmail。

Summary

概念验证：使用 OpenAPI 规范生成工具的 MCP 服务器

mcp-servers

To make an AI agent more general, you need to focus on its ability to handle a wider range of tasks, environments, and situations without requiring specific retraining or modifications. Here's a breakdown of key strategies and considerations: **1. Broaden the Training Data:** * **Diverse Datasets:** Train the agent on a vast and diverse dataset that covers a wide spectrum of scenarios, tasks, and environments. This includes variations in data quality, format, and context. * **Synthetic Data Augmentation:** Generate synthetic data to supplement real-world data, especially for rare or underrepresented scenarios. This can help the agent generalize to unseen situations. * **Curriculum Learning:** Start with simpler tasks and gradually increase the complexity of the training data. This helps the agent learn fundamental skills before tackling more challenging problems. * **Self-Supervised Learning:** Leverage unlabeled data to learn general representations of the world. This can be particularly useful when labeled data is scarce. **2. Improve the Agent's Architecture:** * **Modular Design:** Break down the agent into modular components that can be easily reused and adapted to different tasks. This promotes flexibility and reduces the need for extensive retraining. * **Attention Mechanisms:** Incorporate attention mechanisms to allow the agent to focus on the most relevant information in a given situation. This improves its ability to handle complex and noisy inputs. * **Memory Networks:** Use memory networks to store and retrieve information from past experiences. This allows the agent to learn from its mistakes and adapt to changing environments. * **Meta-Learning (Learning to Learn):** Train the agent to learn new tasks quickly and efficiently. This enables it to adapt to novel situations with minimal training data. * **Hierarchical Reinforcement Learning:** Structure the agent's decision-making process into a hierarchy of sub-goals. This allows it to break down complex tasks into smaller, more manageable steps. **3. Enhance the Agent's Reasoning and Planning Abilities:** * **Symbolic Reasoning:** Integrate symbolic reasoning techniques to enable the agent to reason about abstract concepts and relationships. This can improve its ability to solve complex problems and make informed decisions. * **Planning Algorithms:** Implement planning algorithms to allow the agent to anticipate the consequences of its actions and choose the best course of action to achieve its goals. * **Common Sense Reasoning:** Equip the agent with common sense knowledge to help it understand the world and make reasonable assumptions. This can improve its ability to handle ambiguous or incomplete information. * **Causal Reasoning:** Enable the agent to understand cause-and-effect relationships. This is crucial for understanding how its actions affect the environment and for making predictions about future events. **4. Robustness and Adaptability:** * **Adversarial Training:** Train the agent to be robust to adversarial attacks and noisy inputs. This can improve its ability to handle real-world data and prevent it from being easily fooled. * **Domain Adaptation:** Develop techniques to adapt the agent to new domains or environments with minimal retraining. This is essential for deploying the agent in a variety of settings. * **Transfer Learning:** Leverage knowledge learned from one task or domain to improve performance on another. This can significantly reduce the amount of training data required for new tasks. * **Continual Learning (Lifelong Learning):** Enable the agent to continuously learn and adapt over time without forgetting previously learned knowledge. This is crucial for long-term deployment in dynamic environments. **5. Evaluation and Monitoring:** * **Generalization Metrics:** Use appropriate metrics to evaluate the agent's generalization performance on unseen data and tasks. * **Regular Monitoring:** Continuously monitor the agent's performance in real-world settings to identify potential issues and areas for improvement. * **Explainable AI (XAI):** Develop techniques to explain the agent's decisions and reasoning processes. This can help identify biases and improve trust in the agent. **Key Considerations:** * **Computational Resources:** Training and deploying general AI agents can be computationally expensive. Consider using cloud computing resources and optimizing the agent's architecture for efficiency. * **Ethical Implications:** Be mindful of the ethical implications of deploying general AI agents. Ensure that the agent is fair, unbiased, and does not cause harm. * **Safety:** Implement safety mechanisms to prevent the agent from taking unintended or harmful actions. * **Trade-offs:** There is often a trade-off between generality and performance. A more general agent may not perform as well on specific tasks as a specialized agent. **In summary, making an AI agent more general requires a multi-faceted approach that involves broadening the training data, improving the agent's architecture, enhancing its reasoning and planning abilities, and ensuring its robustness and adaptability. Careful evaluation and monitoring are also essential for ensuring that the agent performs as expected in real-world settings.** --- **Chinese Translation:** 要使人工智能代理更通用，您需要专注于其处理更广泛的任务、环境和情况的能力，而无需进行特定的重新训练或修改。以下是关键策略和考虑因素的细分： **1. 扩大训练数据：** * **多样化的数据集：** 在涵盖各种场景、任务和环境的庞大而多样化的数据集上训练代理。这包括数据质量、格式和上下文的变化。 * **合成数据增强：** 生成合成数据以补充真实世界的数据，特别是对于罕见或代表性不足的场景。这可以帮助代理推广到未见过的情况。 * **课程学习：** 从简单的任务开始，逐渐增加训练数据的复杂性。这有助于代理在处理更具挑战性的问题之前学习基本技能。 * **自监督学习：** 利用未标记的数据来学习世界的通用表示。当标记数据稀缺时，这尤其有用。 **2. 改进代理的架构：** * **模块化设计：** 将代理分解为可以轻松重用并适应不同任务的模块化组件。这提高了灵活性，并减少了大量重新训练的需要。 * **注意力机制：** 结合注意力机制，使代理能够专注于给定情况下最相关的信息。这提高了它处理复杂和嘈杂输入的能力。 * **记忆网络：** 使用记忆网络来存储和检索过去经验的信息。这使代理能够从错误中学习并适应不断变化的环境。 * **元学习（学习学习）：** 训练代理快速有效地学习新任务。这使其能够以最少的训练数据适应新的情况。 * **分层强化学习：** 将代理的决策过程构建为子目标的层次结构。这使其能够将复杂的任务分解为更小、更易于管理的步骤。 **3. 增强代理的推理和规划能力：** * **符号推理：** 集成符号推理技术，使代理能够推理抽象概念和关系。这可以提高其解决复杂问题和做出明智决定的能力。 * **规划算法：** 实施规划算法，使代理能够预测其行为的后果，并选择实现其目标的最佳行动方案。 * **常识推理：** 为代理配备常识知识，以帮助其理解世界并做出合理的假设。这可以提高其处理模糊或不完整信息的能力。 * **因果推理：** 使代理能够理解因果关系。这对于理解其行为如何影响环境以及预测未来事件至关重要。 **4. 鲁棒性和适应性：** * **对抗训练：** 训练代理对对抗性攻击和嘈杂的输入具有鲁棒性。这可以提高其处理真实世界数据的能力，并防止其轻易被愚弄。 * **领域自适应：** 开发技术，以最少的重新训练将代理适应到新的领域或环境。这对于在各种环境中部署代理至关重要。 * **迁移学习：** 利用从一项任务或领域中学到的知识来提高另一项任务的性能。这可以显着减少新任务所需的训练数据量。 * **持续学习（终身学习）：** 使代理能够随着时间的推移不断学习和适应，而不会忘记先前学到的知识。这对于在动态环境中进行长期部署至关重要。 **5. 评估和监控：** * **泛化指标：** 使用适当的指标来评估代理在未见过的数据和任务上的泛化性能。 * **定期监控：** 持续监控代理在真实世界环境中的性能，以识别潜在问题和需要改进的领域。 * **可解释人工智能 (XAI)：** 开发技术来解释代理的决策和推理过程。这可以帮助识别偏见并提高对代理的信任。 **关键考虑因素：** * **计算资源：** 训练和部署通用人工智能代理可能在计算上很昂贵。考虑使用云计算资源并优化代理的架构以提高效率。 * **伦理影响：** 注意部署通用人工智能代理的伦理影响。确保代理是公平、公正的，并且不会造成伤害。 * **安全：** 实施安全机制以防止代理采取意外或有害的行动。 * **权衡：** 通用性和性能之间通常存在权衡。更通用的代理在特定任务上的表现可能不如专门的代理。 **总而言之，使人工智能代理更通用需要一种多方面的方法，包括扩大训练数据、改进代理的架构、增强其推理和规划能力，并确保其鲁棒性和适应性。仔细的评估和监控对于确保代理在真实世界环境中按预期执行也至关重要。**

Trello MCP Server (TypeScript)

镜子 (jìng zi)