productivity

Task Manager

by blizzy78

Streamline projects with software to manage projects using dependency tracking, complexity scores, and Eisenhower matrix

Provides structured task management with dependency tracking, complexity assessment, and automatic subtask decomposition for complex multi-step projects requiring systematic workflow orchestration.

github stars

4

Local SQLite storage - no cloud dependencyDependency-aware task prioritizationMCP protocol compliant

best for

  • / AI agents managing structured workflows
  • / Personal project management with dependency tracking
  • / Local task automation and scripting

capabilities

  • / Create and organize projects with hierarchical tasks
  • / Track task dependencies and priorities
  • / Update task status and progress
  • / Identify next actionable tasks automatically
  • / Export and import project data as JSON
  • / Expand tasks into subtasks

what it does

Manages projects and tasks with dependencies in a local SQLite database. Helps track priorities, status, and find next actionable items based on task completion.

about

Task Manager is a community-built MCP server published by blizzy78 that provides AI assistants with tools and capabilities via the Model Context Protocol. Streamline projects with software to manage projects using dependency tracking, complexity scores, and Eisenhower matrix It is categorized under productivity. This server exposes 4 tools that AI clients can invoke during conversations and coding sessions.

how to install

You can install Task Manager in your AI client of choice. Use the install panel on this page to get one-click setup for Cursor, Claude Desktop, VS Code, and other MCP-compatible clients. This server runs locally on your machine via the stdio transport.

license

MIT

Task Manager is released under the MIT license. This is a permissive open-source license, meaning you can freely use, modify, and distribute the software.

readme

Task Manager MCP Server

This MCP server allows agents to orchestrate task workflows through exploration. It provides structured task management capabilities for agents working on complex multi-step problems:

  • Create and organize tasks in hierarchical structures with dependencies
  • Decompose complex tasks into smaller, more manageable subtasks with sequence ordering
  • Track task progression through defined states (todo, in-progress, done, failed)
  • Orchestrate workflows with proper dependency validation and critical path tracking

The tools have been tested extensively and successfully with GitHub Copilot in VS Code, and Claude Sonnet 4. (GPT-4.1 and GPT-5 do not seem to work very well unfortunately.)

Note: When using this MCP server, you should disable the Todo List tool in VS Code.

Tools

  1. create_task

    • Creates a new task that must be executed. If decomposing a complex task is required, must use 'decompose_task' first before executing it. All tasks start in the todo status. Must use 'update_task' before executing this task, and when executing this task has finished.
    • Inputs:
      • title (string): A concise title for this task. Must be understandable out of context
      • description (string): A detailed description of this task. Must be understandable out of context
      • goal (string): The overall goal of this task. Must be understandable out of context
      • definitionsOfDone (array of strings): A detailed list of criteria that must be met for this task to be considered 'complete'. Must be understandable out of context
      • criticalPath (boolean): Whether this task is on the critical path and required for completion
      • estimatedComplexity (object): An estimate of the complexity of this task, containing:
        • level (enum): One of "trivial", "low, may benefit from decomposition before execution", "average, must decompose before execution", "medium, must decompose before execution", "high, must decompose before execution"
        • description (string): A description of the complexity of this task
      • uncertaintyAreas (array of objects): A detailed list of areas where there is uncertainty about this task's requirements or execution, each containing:
        • title (string): A concise title for this uncertainty area
        • description (string): A description of this uncertainty area
    • Behavior:
      • All tasks start in the todo status
      • Must use 'update_task' before executing this task, and when executing this task has finished
      • If decomposing a complex task is required, must use 'decompose_task' first before executing it
    • Returns: Confirmation including the created task
  2. decompose_task

    • Decomposes an existing complex task into smaller, more manageable subtasks. All tasks with complexity higher than low must always be decomposed before execution. Subtasks with the same sequence order may be executed in parallel. Subtasks should include a verification subtask.
    • Inputs:
      • taskID (string): The task to decompose
      • decompositionReason (string): The reason for decomposing this task
      • subtasks (array of objects): Array of smaller, manageable subtasks to create, each containing:
        • title (string): A concise title for this subtask. Must be understandable out of context
        • description (string): A detailed description of this subtask. Must be understandable out of context
        • goal (string): The overall goal of this subtask. Must be understandable out of context
        • definitionsOfDone (array of strings): A detailed list of criteria that must be met for this subtask to be considered 'complete'. Must be understandable out of context
        • criticalPath (boolean): Whether this subtask is on the critical path and required for completion of this task
        • uncertaintyAreas (array of objects): Areas where there is uncertainty about this subtask's requirements or execution, each containing:
          • title (string): A concise title for this uncertainty area
          • description (string): A description of this uncertainty area
        • sequenceOrder (number): The sequence order of this subtask. Subtasks with the same order may be executed in parallel
    • Behavior:
      • All tasks with complexity higher than low must always be decomposed before executing
      • Subtasks with the same sequence order may be executed in parallel
      • Creates dependency chains based on sequence order (later sequences depend on earlier ones)
      • Subtasks should include a verification subtask
    • Returns: Confirmation including the created subtasks and updated parent task
  3. update_task

    • Updates the status and/or other properties of a task
    • Inputs:
      • tasks (array of objects): The tasks to update, each containing:
        • taskID (string): The identifier of the task to change status
        • set (object, optional): Optional properties to update on this task, containing:
          • status (enum, optional): The new status ("todo", "in-progress", "done", or "failed")
          • title (string, optional): A concise title for this task. Must be understandable out of context
          • description (string, optional): A detailed description of this task. Must be understandable out of context
          • goal (string, optional): The overall goal of this task. Must be understandable out of context
          • criticalPath (boolean, optional): Whether this task is on the critical path and required for completion
          • estimatedComplexity (object, optional): An estimate of the complexity of this task
        • add (object, optional): Optional properties to add to this task, containing:
          • dependsOnTaskIDs (array of strings, optional): New tasks that this task depends on
          • definitionsOfDone (array of strings, optional): Additional criteria that must be met for this task to be considered 'complete'
          • uncertaintyAreas (array of objects, optional): Additional areas where there is uncertainty about this task's requirements or execution
          • lessonsLearned (array of strings, optional): Lessons learned while executing this task that may inform future tasks
          • verificationEvidence (array of strings, optional): Verification evidence that this task was executed as planned, and that the definitions of done were met
        • remove (object, optional): Optional properties to remove from this task, containing:
          • dependsOnTaskIDs (array of strings, optional): Tasks that this task no longer depends on
    • Behavior:
      • Must use this tool before executing a task, and when executing a task has finished
      • Can be used to set the status of multiple tasks at once if their dependencies allow it
      • Should always include lessons learned to inform future tasks, if possible
      • Tasks can only transition to "done" if all critical path dependencies are completed
      • Validates status transitions and dependencies before allowing changes
      • Cannot transition from "done" to "failed" or vice versa
    • Returns: Status transition confirmation including the updated tasks
  4. task_info

    • Returns full details for requested tasks
    • Inputs:
      • taskIDs (array of strings): A list of task IDs to retrieve information for
    • Behavior:
      • Returns full task details including all properties (status, dependencies, descriptions, etc.)
      • Handles missing task IDs gracefully by returning them in a separate list
    • Returns: Object containing arrays of found tasks and any not found task IDs
  5. current_task (single agent mode only)

    • Returns a list of tasks that are currently in progress.
    • Inputs: None
    • Behavior:
      • Only available when single agent mode is enabled (SINGLE_AGENT=true)
      • Filters tasks to return only those currently in progress
      • Useful for agents to recover task context after conversation history compacting
    • Returns: Object containing array of current tasks

Single Agent Mode

The task manager supports a special "single agent mode" that can be enabled by setting the environment variable SINGLE_AGENT=true. In this mode, the server will provide the additional current_task tool.

This is useful for long-running agents where the agent loop is compacting/summarizing the agent's conversation history to prevent exceeding the context window limit. In these cases, the agent may "forget" which tasks exist because the task IDs have been removed from the context window. Single agent mode allows the agent to use the current_task tool, enabling it to recover information about the current task tree.

Do not enable single agent mode if you plan to use this MCP server with multiple agents at the same time. If enabled, only one agent should use the MCP server at any one time.

Enabling Single Agent Mode

Set the environment variable before starting the server:

SINGLE_AGENT=true npx @blizzy/mcp-task-manager

Or in Claude Desktop configuration:

{
  "mcpServers": {
    "task-manager": {
      "command": "npx",
      "args": ["-y", "@blizzy/mcp-task-manager"],
      "env": {
        "SINGLE_AGENT": "true"
      }
    }
  }
}

Recommended Agent Prompt Snippets

Instructions section

# Agent Instructions

For any user request, DO THIS FIRST: Use the Task Management tools to create a new task for the user's request. Always add these uncertainty areas as the first ones to the task:
1. Project overview as documented in README.md and CLAUDE.md
2. Project configuration, such as test commands

Resolve the user's request completely by executing all incomplete tasks. Doing so may include:

- Gathering information or doing research
- Writing or editing code or other content
- Fixing problems
- etc.

Use all tools available to you to help you in executing tasks, as appropriate. This includes:

- Use the Task Management

---

FAQ

What is the Task Manager MCP server?
Task Manager is a Model Context Protocol (MCP) server profile on explainx.ai. MCP lets AI hosts (e.g. Claude Desktop, Cursor) call tools and resources through a standard interface; this page summarizes categories, install hints, and community ratings.
How do MCP servers relate to agent skills?
Skills are reusable instruction packages (often SKILL.md); MCP servers expose live capabilities. Teams frequently combine both—skills for workflows, MCP for APIs and data. See explainx.ai/skills and explainx.ai/mcp-servers for parallel directories.
How are reviews shown for Task Manager?
This profile displays 10 aggregated ratings (sample rows for discoverability plus signed-in user reviews). Average score is about 4.5 out of 5—verify behavior in your own environment before production use.
MCP server reviews

Ratings

4.510 reviews
  • Shikha Mishra· Oct 10, 2024

    Task Manager is among the better-indexed MCP projects we tried; the explainx.ai summary tracks the official description.

  • Piyush G· Sep 9, 2024

    We evaluated Task Manager against two servers with overlapping tools; this profile had the clearer scope statement.

  • Chaitanya Patil· Aug 8, 2024

    Useful MCP listing: Task Manager is the kind of server we cite when onboarding engineers to host + tool permissions.

  • Sakshi Patil· Jul 7, 2024

    Task Manager reduced integration guesswork — categories and install configs on the listing matched the upstream repo.

  • Ganesh Mohane· Jun 6, 2024

    I recommend Task Manager for teams standardizing on MCP; the explainx.ai page compares cleanly with sibling servers.

  • Oshnikdeep· May 5, 2024

    Strong directory entry: Task Manager surfaces stars and publisher context so we could sanity-check maintenance before adopting.

  • Dhruvi Jain· Apr 4, 2024

    Task Manager has been reliable for tool-calling workflows; the MCP profile page is a good permalink for internal docs.

  • Rahul Santra· Mar 3, 2024

    According to our notes, Task Manager benefits from clear Model Context Protocol framing — fewer ambiguous “AI plugin” claims.

  • Pratham Ware· Feb 2, 2024

    We wired Task Manager into a staging workspace; the listing’s GitHub and npm pointers saved time versus hunting across READMEs.

  • Yash Thakker· Jan 1, 2024

    Task Manager is a well-scoped MCP server in the explainx.ai directory — install snippets and categories matched our Claude Code setup.