Developer Tools MCP Servers (Code Execution, Figma, Design-to-Code)
MCP servers for developer tools — code execution sandboxes, Figma design-to-code, linting, testing frameworks, and CI/CD integrations.
The most productive AI-assisted development environments go far beyond code completion. They give the AI the ability to execute code, translate designs, enforce quality standards, run tests, and manage deployment pipelines. Developer tools MCP servers make this possible by connecting AI assistants to the entire toolchain that professional developers use daily.
The practical impact is significant. Teams using comprehensive developer tool MCP servers report 2-5x faster feature delivery, 60% reduction in context-switching, and substantially higher code quality through automated lint-and-test cycles.
Developer tools MCP servers extend AI coding assistants beyond text generation into the full development workflow -- executing code, generating designs to code, running linters, managing CI/CD pipelines, and testing applications. They transform AI assistants from suggestion engines into active development partners that can write, run, test, and deploy code.
This guide covers every major category of developer tools MCP servers: code execution environments, design tools, code quality tools, testing frameworks, and CI/CD integrations.
Code Execution MCP Servers
Code execution servers let AI assistants run code and see results in real time, enabling interactive development and debugging workflows.
E2B Code Interpreter
E2B provides cloud-based sandboxed code execution:
{
"mcpServers": {
"e2b": {
"command": "npx",
"args": ["-y", "mcp-server-e2b"],
"env": {
"E2B_API_KEY": "your_api_key"
}
}
}
}
Available Tools:
| Tool | Description |
|---|---|
execute_code | Run code in a sandboxed environment |
install_package | Install Python/Node packages |
upload_file | Upload files to the sandbox |
download_file | Download files from the sandbox |
list_files | List files in the sandbox |
Supported Languages: Python, JavaScript, TypeScript, R, Julia, and more.
Example Workflow:
User: "Analyze this CSV data and create a visualization"
Claude's workflow:
1. upload_file("data.csv") — upload the data
2. install_package("pandas matplotlib seaborn")
3. execute_code("""
import pandas as pd
import matplotlib.pyplot as plt
import seaborn as sns
df = pd.read_csv('data.csv')
print(df.describe())
print(df.head())
""") — explore the data
4. execute_code("""
fig, ax = plt.subplots(figsize=(10, 6))
sns.barplot(data=df, x='category', y='revenue', ax=ax)
plt.title('Revenue by Category')
plt.savefig('chart.png')
""") — create visualization
5. download_file("chart.png") — retrieve the chart
Docker-Based Code Execution
For self-hosted code execution:
{
"mcpServers": {
"code-runner": {
"command": "npx",
"args": ["-y", "mcp-server-code-runner"],
"env": {
"DOCKER_SOCKET": "/var/run/docker.sock",
"MAX_EXECUTION_TIME": "30",
"MAX_MEMORY_MB": "512"
}
}
}
}
Safety Features:
- Runs code in isolated Docker containers
- Configurable time and memory limits
- No network access by default
- Temporary containers destroyed after execution
- No filesystem access outside the container
REPL MCP Server
For lightweight, interactive code execution:
{
"mcpServers": {
"repl": {
"command": "npx",
"args": ["-y", "mcp-server-repl"]
}
}
}
Features:
- Persistent session state (variables carry over between executions)
- Support for Node.js/TypeScript REPL
- Fast startup for quick iterations
- Useful for prototyping and experimentation
Design Tools MCP Servers
Figma MCP Server
The Figma MCP server bridges design and development:
{
"mcpServers": {
"figma": {
"command": "npx",
"args": ["-y", "mcp-server-figma"],
"env": {
"FIGMA_PERSONAL_ACCESS_TOKEN": "figd_your_token"
}
}
}
}
Available Tools:
| Tool | Description |
|---|---|
get_file | Get the full Figma file structure |
get_file_nodes | Get specific nodes/components |
get_images | Export images from Figma |
get_components | List reusable components |
get_styles | Get color, text, and effect styles |
get_comments | Read design comments |
get_file_versions | List file version history |
search | Search within a Figma file |
Design-to-Code Workflow
The most powerful Figma MCP workflow is translating designs into code:
User: "Generate React components from this Figma design"
Claude's workflow:
1. get_file(file_key) — get the design file structure
2. get_components() — identify reusable components
3. get_styles() — extract design tokens (colors, typography, spacing)
4. For each component:
a. get_file_nodes(node_id) — get detailed component structure
b. Analyze layout (flex, grid, absolute positioning)
c. Extract text content, images, and interactive elements
d. Generate React component with Tailwind CSS
5. Generate a design tokens file (colors, spacing, typography)
6. Write all files using the filesystem server
Example Generated Code:
// Generated from Figma component "ProductCard"
interface ProductCardProps {
title: string
price: number
imageUrl: string
rating: number
}
export function ProductCard({ title, price, imageUrl, rating }: ProductCardProps) {
return (
<div className="rounded-xl border border-gray-200 p-4 shadow-sm hover:shadow-md transition-shadow">
<img
src={imageUrl}
alt={title}
className="w-full h-48 object-cover rounded-lg"
/>
<h3 className="mt-3 text-lg font-semibold text-gray-900">{title}</h3>
<div className="flex items-center justify-between mt-2">
<span className="text-xl font-bold text-blue-600">${price}</span>
<div className="flex items-center gap-1">
<StarIcon className="h-4 w-4 text-yellow-400" />
<span className="text-sm text-gray-600">{rating}</span>
</div>
</div>
</div>
)
}
Design Token Extraction
Figma MCP servers can extract design tokens for design system consistency:
{
"colors": {
"primary": "#2563EB",
"primary-dark": "#1D4ED8",
"secondary": "#7C3AED",
"text-primary": "#111827",
"text-secondary": "#6B7280",
"background": "#FFFFFF",
"surface": "#F9FAFB"
},
"spacing": {
"xs": "4px",
"sm": "8px",
"md": "16px",
"lg": "24px",
"xl": "32px"
},
"typography": {
"heading-1": { "size": "32px", "weight": 700, "lineHeight": "40px" },
"heading-2": { "size": "24px", "weight": 600, "lineHeight": "32px" },
"body": { "size": "16px", "weight": 400, "lineHeight": "24px" }
}
}
Code Quality and Linting MCP Servers
ESLint MCP Server
{
"mcpServers": {
"eslint": {
"command": "npx",
"args": ["-y", "mcp-server-eslint"],
"env": {
"ESLINT_CONFIG_PATH": "/path/to/project/.eslintrc"
}
}
}
}
Available Tools:
| Tool | Description |
|---|---|
lint_file | Run ESLint on a specific file |
lint_directory | Lint all files in a directory |
fix_file | Auto-fix linting issues |
get_rules | List active ESLint rules |
explain_rule | Explain why a rule exists |
Workflow:
User: "Check the code quality of my React components"
Claude's workflow:
1. lint_directory("src/components/") — run ESLint
2. Analyze results: errors, warnings, fixable issues
3. fix_file() for auto-fixable issues
4. For remaining issues, explain the problems and suggest fixes
5. Generate a code quality report
Prettier MCP Server
For code formatting:
{
"mcpServers": {
"prettier": {
"command": "npx",
"args": ["-y", "mcp-server-prettier"]
}
}
}
Capabilities:
- Format code files according to Prettier configuration
- Check formatting without modifying files
- Support for multiple languages (JS, TS, CSS, HTML, JSON, Markdown)
- Respect project-level
.prettierrcconfiguration
Testing Framework MCP Servers
Jest/Vitest MCP Server
{
"mcpServers": {
"jest": {
"command": "npx",
"args": ["-y", "mcp-server-jest"],
"env": {
"PROJECT_ROOT": "/path/to/project"
}
}
}
}
Available Tools:
| Tool | Description |
|---|---|
run_tests | Run test suite or specific tests |
run_test_file | Run a specific test file |
list_tests | List available test files |
get_coverage | Get code coverage report |
watch_tests | Run tests in watch mode |
Test-Driven Development Workflow:
User: "Write tests for the UserService class and make them pass"
Claude's workflow:
1. (Filesystem) read UserService source code
2. Write test file: UserService.test.ts
3. (Jest) run_test_file("UserService.test.ts") — run initial tests
4. Review failures
5. (Filesystem) update UserService implementation
6. (Jest) run_test_file("UserService.test.ts") — verify fixes
7. Repeat until all tests pass
8. (Jest) get_coverage() — check coverage metrics
Pytest MCP Server
For Python projects:
{
"mcpServers": {
"pytest": {
"command": "python",
"args": ["-m", "mcp_server_pytest"],
"env": {
"PROJECT_ROOT": "/path/to/python/project"
}
}
}
}
CI/CD MCP Servers
GitHub Actions MCP Integration
GitHub Actions status is available through the GitHub MCP server, which provides:
| Tool | Description |
|---|---|
list_workflow_runs | List recent CI runs |
get_workflow_run | Get run details and status |
get_workflow_run_logs | Read build logs |
trigger_workflow | Manually trigger a workflow |
list_artifacts | List build artifacts |
Jenkins MCP Server
{
"mcpServers": {
"jenkins": {
"command": "npx",
"args": ["-y", "mcp-server-jenkins"],
"env": {
"JENKINS_URL": "https://jenkins.company.com",
"JENKINS_USER": "ai-service",
"JENKINS_API_TOKEN": "your_token"
}
}
}
}
Capabilities:
- List and trigger builds
- View build logs and test results
- Manage build parameters
- Monitor pipeline stages
CI/CD Workflow Example
User: "My CI pipeline is failing. Help me debug it."
Claude's workflow:
1. (GitHub) list_workflow_runs(status="failure") — find failing runs
2. (GitHub) get_workflow_run_logs(run_id) — read failure logs
3. Identify the failing step and error message
4. (Filesystem) read the relevant source/config files
5. Diagnose the issue (e.g., missing dependency, test failure)
6. (Filesystem) write the fix
7. (Git) commit and push the fix
8. (GitHub) Monitor the new CI run
Package Management MCP Servers
npm/yarn MCP Server
{
"mcpServers": {
"npm": {
"command": "npx",
"args": ["-y", "mcp-server-npm"]
}
}
}
Capabilities:
- Search npm registry for packages
- Get package metadata (versions, dependencies, downloads)
- Check for outdated dependencies
- Analyze dependency trees for security vulnerabilities
- Compare package alternatives
Dependency Management Workflow
User: "Audit our project dependencies for security issues"
Claude's workflow:
1. Read package.json and package-lock.json
2. Run npm audit equivalent via MCP tools
3. Identify vulnerable packages and severity levels
4. Search for fixed versions or alternative packages
5. Generate a remediation plan with updated versions
6. Create a PR with the dependency updates
API Development MCP Servers
OpenAPI/Swagger MCP Server
{
"mcpServers": {
"openapi": {
"command": "npx",
"args": ["-y", "mcp-server-openapi"],
"env": {
"OPENAPI_SPEC_URL": "https://api.example.com/openapi.json"
}
}
}
}
Capabilities:
- Read and parse OpenAPI specifications
- List available endpoints
- Generate API client code
- Test API endpoints
- Validate request/response schemas
Database Schema MCP Servers
Tools like Prisma MCP and Drizzle MCP integrate with ORM schema management:
{
"mcpServers": {
"prisma": {
"command": "npx",
"args": ["-y", "mcp-server-prisma"],
"env": {
"PRISMA_SCHEMA_PATH": "/path/to/schema.prisma"
}
}
}
}
Developer Tools Comparison
| Server Category | Examples | Key Value |
|---|---|---|
| Code Execution | E2B, Docker Runner, REPL | Run and test code interactively |
| Design Tools | Figma MCP | Design-to-code translation |
| Code Quality | ESLint, Prettier | Automated code review and formatting |
| Testing | Jest, Pytest, Playwright | Test execution and coverage |
| CI/CD | GitHub Actions, Jenkins | Pipeline management and debugging |
| Package Management | npm, pip | Dependency analysis and updates |
| API Tools | OpenAPI, Postman | API development and testing |
| Database Tools | Prisma, Drizzle | Schema management |
Security Considerations
Code Execution Safety
- Always sandbox: Use containers, VMs, or cloud sandboxes for code execution
- Resource limits: Set CPU, memory, and time limits on code execution
- Network isolation: Disable outbound network access unless explicitly needed
- File system restrictions: Limit what the executing code can access
- No secrets exposure: Ensure environment variables and secrets are not accessible to executed code
API Token Management
- Use separate API tokens for MCP servers with minimal permissions
- Rotate tokens regularly (every 90 days)
- Store tokens in environment variables, not config files
- Audit token usage through platform dashboards
Code Review Before Execution
For sensitive environments, implement a human-in-the-loop before code execution:
- AI generates the code
- Code is presented for human review
- Human approves or modifies
- Code is executed in the sandbox
The Complete Developer Workflow
Combining developer tools MCP servers creates an end-to-end development experience:
Development Lifecycle with MCP:
1. Design Phase
└── Figma MCP: Extract designs and generate code
2. Development Phase
├── Filesystem MCP: Read/write source files
├── Code Execution MCP: Run and test code
└── ESLint/Prettier MCP: Enforce code quality
3. Testing Phase
├── Jest/Pytest MCP: Run unit tests
├── Playwright MCP: Run E2E tests
└── Code Execution MCP: Test edge cases
4. Review Phase
├── GitHub MCP: Create PR, manage reviews
└── ESLint MCP: Automated code review
5. Deploy Phase
├── CI/CD MCP: Monitor build pipeline
└── Cloud Provider MCP: Manage deployment
For a complete walkthrough, see our MCP in Software Development guide.
Debugging MCP Servers
Debugging MCP Server Connections
If a developer tool server is not working as expected:
- Check the server is running: Look for the server process in your system monitor
- Verify configuration: Ensure the JSON config has correct command and args
- Test manually: Run the server command directly in your terminal to see error output
- Check API credentials: Verify tokens and API keys are valid and have required permissions
- Review server logs: Most MCP servers output logs to stderr which your client may capture
- Use MCP Inspector: The official MCP Inspector tool lets you test tool calls independently
Common Developer Tool Server Issues
| Server | Common Issue | Fix |
|---|---|---|
| E2B | API key quota exceeded | Check usage dashboard, upgrade plan |
| Figma | Token expired | Generate new personal access token |
| ESLint | No config found | Ensure .eslintrc exists in project root |
| Jest | Test runner not found | Run npm install in the project directory |
| Docker | Permission denied | Add user to docker group or use sudo |
| Jenkins | Connection refused | Verify Jenkins URL and check firewall |
Monitoring and Observability MCP Servers
Sentry MCP Server
Error monitoring through MCP:
{
"mcpServers": {
"sentry": {
"command": "npx",
"args": ["-y", "mcp-server-sentry"],
"env": {
"SENTRY_AUTH_TOKEN": "your_token",
"SENTRY_ORG": "your-org"
}
}
}
}
Available Tools:
| Tool | Description |
|---|---|
list_issues | List Sentry issues with filters |
get_issue | Get issue details and stack trace |
list_events | List events for an issue |
resolve_issue | Mark an issue as resolved |
get_project_stats | Get error rate statistics |
Debugging Workflow:
User: "What are the top errors in production this week?"
Claude's workflow:
1. (Sentry) list_issues(project="api", sort="freq", period="7d")
2. For each top issue:
a. (Sentry) get_issue(id) — stack trace and context
b. (Filesystem) Read the relevant source file
3. Analyze root causes and suggest fixes
4. Prioritize by frequency and impact
Datadog MCP Server
For comprehensive monitoring data access:
{
"mcpServers": {
"datadog": {
"command": "npx",
"args": ["-y", "mcp-server-datadog"],
"env": {
"DD_API_KEY": "your_api_key",
"DD_APP_KEY": "your_app_key"
}
}
}
}
Capabilities:
- Query metrics (CPU, memory, latency, error rates)
- View active monitors and alerts
- Search logs
- List and manage dashboards
- Check APM traces
Docker and Container MCP Servers
Docker MCP Server
{
"mcpServers": {
"docker": {
"command": "npx",
"args": ["-y", "mcp-server-docker"],
"env": {
"DOCKER_HOST": "unix:///var/run/docker.sock"
}
}
}
}
Available Tools:
| Tool | Description |
|---|---|
list_containers | List running and stopped containers |
container_logs | Read container log output |
container_inspect | Get container configuration details |
list_images | List available Docker images |
container_stats | Get resource usage statistics |
run_container | Start a new container (with approval) |
stop_container | Stop a running container |
Use Cases:
- Debugging containerized applications by reading logs
- Inspecting container configurations for issues
- Monitoring resource usage across containers
- Analyzing multi-container application architectures
Database Schema Tools
Prisma MCP Server
For projects using Prisma ORM:
{
"mcpServers": {
"prisma": {
"command": "npx",
"args": ["-y", "mcp-server-prisma"],
"env": {
"PRISMA_SCHEMA_PATH": "/path/to/schema.prisma"
}
}
}
}
Capabilities:
- Read and parse Prisma schema files
- Suggest schema modifications
- Generate migration SQL from schema changes
- Analyze relationships between models
- Generate TypeScript types from schema
Schema Comparison and Migration
AI assistants can use database MCP servers alongside schema tools to:
- Compare schemas: Read the ORM schema and database schema, identify discrepancies
- Generate migrations: Propose migration steps to synchronize schema and database
- Impact analysis: Before a migration, analyze which application code would be affected
- Rollback planning: Generate rollback scripts alongside forward migrations
Performance Profiling MCP Servers
Lighthouse MCP Server
For web performance analysis:
{
"mcpServers": {
"lighthouse": {
"command": "npx",
"args": ["-y", "mcp-server-lighthouse"]
}
}
}
Capabilities:
- Run Lighthouse audits on web pages
- Get performance scores (FCP, LCP, CLS, TBT)
- Accessibility audit results
- SEO audit results
- Best practices compliance
Performance Optimization Workflow:
User: "Audit our landing page performance and fix the issues"
Claude's workflow:
1. (Lighthouse) audit("https://example.com")
2. Analyze results:
- Performance: 72/100
- Key issues: large images, render-blocking CSS, unused JavaScript
3. (Filesystem) Read the page source code
4. Implement fixes:
- Add lazy loading to images
- Defer non-critical CSS
- Code-split JavaScript bundles
5. (Lighthouse) Re-audit to verify improvements
Integrated Development Workflow Example
Here is a complete example of how developer tool MCP servers work together for a real feature implementation:
User: "Implement the dark mode feature from the Figma design in ticket LIN-456"
Phase 1: Research (5 minutes)
1. (Linear) Read ticket requirements and acceptance criteria
2. (Figma) Extract dark mode color palette and component variants
3. (Filesystem) Read current theme implementation
Phase 2: Implementation (15 minutes)
4. (Filesystem) Create design tokens file with dark mode colors
5. (Filesystem) Create ThemeProvider component with context
6. (Filesystem) Update CSS variables for dark mode
7. (Filesystem) Add theme toggle component
8. (ESLint) Lint new files for code quality
9. (Prettier) Format all changed files
Phase 3: Testing (10 minutes)
10. (Jest) Write and run unit tests for ThemeProvider
11. (Playwright) Write E2E tests for theme switching
12. (Playwright) Take screenshots in both light and dark mode
13. (Lighthouse) Run accessibility audit (contrast ratios in dark mode)
Phase 4: Delivery (5 minutes)
14. (Git) Commit changes to feature branch
15. (GitHub) Create PR with screenshots and test results
16. (Linear) Update ticket status to "In Review"
17. (Slack) Notify team of PR ready for review
Total: ~35 minutes for a complete feature with tests and documentation
Environment Management MCP Servers
Managing development environments is another area where MCP servers add significant value.
Dev Container MCP Server
For teams using containerized development environments:
{
"mcpServers": {
"devcontainer": {
"command": "npx",
"args": ["-y", "mcp-server-devcontainer"],
"env": {
"WORKSPACE_ROOT": "/path/to/workspace"
}
}
}
}
Capabilities:
- Read and modify
devcontainer.jsonconfigurations - List available development container templates
- Manage container features and extensions
- Generate environment-specific configurations for different team members
Environment Variable Management
AI assistants can help manage environment configurations across different deployment stages. By combining filesystem and developer tool servers, teams can automate environment setup and validation:
User: "Verify that all required environment variables are configured
for the staging deployment"
Claude's workflow:
1. (Filesystem) Read .env.example for required variables
2. (Filesystem) Read .env.staging for configured values
3. Compare and identify:
- Missing variables that are required
- Variables with placeholder values not yet configured
- Variables that differ from production (intentional vs accidental)
4. Generate a configuration report with recommendations
Dependency Conflict Resolution
When projects encounter dependency conflicts, developer tool MCP servers help diagnose and resolve them systematically:
| Conflict Type | Detection Method | Resolution Strategy |
|---|---|---|
| Version mismatch | npm ls --all or pip freeze | Update to compatible version range |
| Peer dependency | npm audit or yarn check | Install missing peer dependencies |
| Duplicate packages | Bundle analysis | Deduplicate with npm dedupe |
| Platform incompatibility | CI failure logs | Add platform-specific overrides |
| License conflict | License checker tools | Replace with compatible alternative |
The AI can read package manifests, analyze dependency trees, and propose resolution strategies that minimize disruption to the existing codebase. This is particularly valuable for large monorepos where dependency changes can have cascading effects across multiple packages.
Build Pipeline Optimization
Developer tool MCP servers can analyze and optimize build configurations:
User: "Our Next.js build is taking 8 minutes. Help me optimize it."
Claude's workflow:
1. (Filesystem) Read next.config.js, package.json, tsconfig.json
2. (Filesystem) Analyze the project structure and page count
3. Identify optimization opportunities:
- Enable SWC minification (faster than Terser)
- Add modularizeImports for large UI libraries
- Configure image optimization settings
- Review and trim unused dependencies
- Enable standalone output for smaller deployment bundles
4. Apply changes and measure improvement
5. (CI/CD) Compare build times before and after
This type of workflow demonstrates how developer tool MCP servers go beyond simple code editing to address the broader development experience, including build performance, environment consistency, and dependency health.
What to Read Next
- MCP in Software Development -- Complete development lifecycle with MCP
- Version Control MCP Servers -- Git, GitHub, and GitLab integration
- Browser & Automation Servers -- E2E testing with Playwright
- Browse Developer Tools Servers -- Find developer tools in our directory
Frequently Asked Questions
What are developer tools MCP servers?
Developer tools MCP servers are Model Context Protocol servers that give AI applications access to software development tools — code execution sandboxes, design tools like Figma, linters, testing frameworks, CI/CD pipelines, and other development infrastructure. They enable AI assistants to not just write code, but execute it, test it, lint it, and integrate it into the development pipeline.
How does the Figma MCP server work?
The Figma MCP server connects to Figma's API using a personal access token and exposes tools for reading design files, extracting component properties, getting layout information, and accessing design tokens. AI assistants can use this to translate Figma designs into code — reading component structures, styles, spacing, and typography to generate accurate HTML/CSS, React components, or other framework code.
Can AI execute code through MCP servers?
Yes. Code execution MCP servers provide sandboxed environments where AI can run code snippets and see the output. These servers typically support multiple languages (Python, JavaScript, TypeScript), implement resource limits (CPU, memory, time), and run in isolated containers to prevent security issues. The AI writes code, executes it, sees the results, and iterates — enabling interactive development and debugging.
Is it safe to let AI execute code on my machine?
Code execution MCP servers should always run in sandboxed environments — Docker containers, VMs, or cloud-based sandboxes. Never run arbitrary AI-generated code directly on your local machine without isolation. Well-designed execution servers enforce resource limits, disable network access, restrict filesystem access, and terminate long-running processes. Cloud-based options like E2B provide additional isolation.
What CI/CD operations can MCP servers perform?
CI/CD MCP servers can trigger builds, check pipeline status, view build logs, manage deployments, and monitor deployment health. They integrate with platforms like GitHub Actions, GitLab CI, Jenkins, and CircleCI. Common workflows include: AI triggers a build after code changes, monitors the pipeline, identifies failures, and suggests fixes based on build logs.
How does the ESLint MCP server help with code quality?
The ESLint MCP server runs ESLint analysis on code files and returns linting results. AI assistants can use it to check code quality before committing, identify and fix linting errors, enforce coding standards, and explain why specific rules are triggered. The server can also auto-fix issues and apply code style formatting.
Can AI generate code from Figma designs using MCP?
Yes. By combining the Figma MCP server (to read design specifications) with a filesystem server (to write code files), AI assistants can generate code from Figma designs. The workflow reads component hierarchy, extracts styles (colors, spacing, typography), identifies interactive elements, and generates framework-specific code. While not pixel-perfect, it provides a strong starting point that developers refine.
What testing tools are available as MCP servers?
Testing MCP servers include Jest/Vitest runners for JavaScript testing, pytest servers for Python, browser automation servers (Playwright, Puppeteer) for end-to-end testing, and specialized testing tools for accessibility, performance, and security testing. AI assistants can write tests, execute them, analyze results, and iterate on failures — significantly speeding up test-driven development workflows.
Related Guides
Browser automation MCP servers — Playwright, Puppeteer, Selenium integrations that let AI agents browse the web, test UIs, and extract data.
Everything about version control MCP servers — GitHub MCP, GitLab MCP, Bitbucket integrations, PR automation, and code review workflows.
How MCP transforms the software development lifecycle — code generation, review, testing, CI/CD, and deployment with AI-powered MCP workflows.