I thought this is possibly a good exercise as AI + Human collaboration.
WARP(Claude) as project lead of WARP integration. If it fails to attract interest, that’s an outcome. If WARP is project lead then it needs to find the developers it needs.
I wouldn’t have a clue at programming beyond simple stuff in web languages. It wouldn’t get any “cheating” from me being its assistant.
To get it going WARP has provided this…
WarpKate Project Proposal
Project Overview
WarpKate is an innovative open-source project that aims to integrate the modern features of Warp Terminal into Kate, KDE’s powerful text editor. This integration will bring Warp’s AI-assisted command suggestions, block-based command execution model, and enhanced terminal experience directly into the Kate editor, creating a seamless development environment.
Project Vision
Our vision is to create a next-generation terminal experience within the Kate editor that enhances developer productivity through AI assistance while maintaining the lightweight and efficient nature of Kate. WarpKate will bridge the gap between traditional terminal usage and modern AI-assisted development, all within KDE’s robust and user-friendly ecosystem.
By implementing Warp Terminal’s protocol directly in Kate, we aim to create not just a terminal plugin, but a complete development environment that understands commands, provides contextual suggestions, and organizes terminal output in a more accessible way.
Goals and Objectives
-
Implement Warp’s Terminal Protocol in Kate
- Create a native implementation of Warp’s terminal protocol
- Support block-based command execution and output organization
- Maintain compatibility with standard terminal applications
-
Integrate AI-Assisted Features
- Implement command suggestions based on context
- Provide intelligent command completion
- Offer documentation and examples inline
-
Enhance Developer Experience
- Create seamless navigation between editor and terminal
- Enable context-aware interactions between code and terminal
- Improve readability of terminal output with syntax highlighting
-
Maintain KDE Integration
- Follow KDE’s design guidelines and integration patterns
- Support system-wide KDE themes and configurations
- Ensure compatibility with Kate’s plugin ecosystem
-
Pioneer a New Development Model
- Establish a collaborative framework with AI assistance
- Create documentation and processes that enable community contribution
- Build a sustainable development process that leverages both human and AI capabilities
Implementation Approach
Technical Architecture
The WarpKate plugin will be structured in several layers:
-
Core Terminal Emulation Layer
- Implementation of VT100/ANSI terminal protocols
- Process management and I/O handling
- Terminal state management
-
Warp Protocol Layer
- Block-based command execution model
- Output parsing and organization
- History and navigation features
-
AI Integration Layer
- Command suggestion engine
- Context-aware completions
- Documentation integration
-
UI Layer
- Terminal widget integration with Kate
- Block visualization and interaction
- Suggestion display and interaction components
Development Phases
The project will be developed in incremental phases:
Phase 1: Foundation (Months 1-2)
- Basic terminal emulation in Kate
- Process handling and I/O management
- Simple UI integration
Phase 2: Block Model Implementation (Months 3-4)
- Command block structure
- Output parsing and organization
- Block navigation and history
Phase 3: AI Features (Months 5-7)
- Local command suggestions
- Context-aware completions
- Integration with external AI services (optional)
Phase 4: UI Refinement and Performance (Months 8-9)
- UI polish and performance optimization
- Keyboard shortcut integration
- Theme compatibility
Phase 5: Documentation and Packaging (Months 10-11)
- User documentation
- Developer documentation
- Packaging for KDE repository
Innovative Development Model
This project will pioneer a new collaborative development model where:
- AI-assisted architecture design provides the technical framework
- Human developers implement specific components based on expertise
- Continuous feedback loop between AI guidance and human implementation
- Open-source collaboration enables community contribution and improvement
Community Engagement
Contribution Strategy
-
Open Development Process
- All development will happen in public repositories
- Detailed documentation to lower the barrier to entry
- Clear contribution guidelines and issue templates
-
Regular Communication
- Bi-weekly development updates
- Monthly community calls
- Active participation in KDE forums and events
-
Mentorship Program
- Pairing experienced KDE developers with newcomers
- Structured onboarding for new contributors
- Recognition system for contributions
-
User Feedback Integration
- Regular user testing sessions
- Feature prioritization based on community input
- Public roadmap with voting mechanisms
Key Stakeholders
-
KDE Community
- Kate plugin developers
- KDE usability team
- General KDE users
-
Terminal Power Users
- Developers seeking enhanced terminal functionality
- Users familiar with Warp Terminal features
-
AI Integration Enthusiasts
- Developers interested in practical AI applications
- Contributors to AI-assisted development tools
-
New Contributors
- Students and new developers looking to contribute to open source
- Developers with specific expertise in terminal emulation
Project Timeline
Year 1: Implementation and Initial Release
Q1: Foundation (Months 1-3)
- Project setup and repository creation
- Basic terminal emulation implementation
- Initial community building
Q2: Core Features (Months 4-6)
- Block model implementation
- Basic command history and navigation
- First alpha release for testing
Q3: Advanced Features (Months 7-9)
- AI suggestion implementation
- UI refinement and performance optimization
- Beta release and user testing
Q4: Refinement and Release (Months 10-12)
- Bug fixes and performance improvements
- Documentation and packaging
- Initial stable release
Year 2: Growth and Enhancement
Q1-Q2: Expansion (Months 13-18)
- Additional AI features
- Enhanced integration with Kate
- Regular maintenance and updates
Q3-Q4: Ecosystem Integration (Months 19-24)
- Integration with broader KDE ecosystem
- Advanced customization options
- Long-term maintenance plan implementation
Resource Requirements
Technical Infrastructure
-
Development Environment
- KDE development tools and frameworks
- CI/CD pipelines for testing
- Documentation platform
-
Community Infrastructure
- Communication channels (forums, chat, mailing lists)
- Issue tracking and project management tools
- Code review process
Human Resources
-
Core Development Team
- 2-3 C++/Qt developers
- 1-2 UI/UX designers
- 1 Documentation specialist
-
Supporting Roles
- AI guidance and architectural support
- Community management
- QA and testing
Conclusion
The WarpKate project represents an exciting opportunity to bring next-generation terminal features to the Kate editor while pioneering a new model of AI-assisted open source development. By combining the strengths of Warp Terminal with Kate’s robust editing capabilities, we aim to create a development environment that is both powerful and intuitive.
This project not only enhances the Kate editor with modern terminal features but also establishes a framework for future AI-assisted development in the KDE ecosystem. We invite the KDE community to join us in this innovative endeavor to push the boundaries of what’s possible in open source development tools.
WarpKate Technical Specification
Table of Contents
- Introduction
- Project Overview
- Architectural Design
- Components
- APIs and Interfaces
- Data Models
- Implementation Details
- Technical Requirements
- Integration Points
- Testing Strategy
- Performance Considerations
- Security Considerations
- Appendices
Introduction
This technical specification outlines the detailed architecture and implementation approach for WarpKate, a Kate text editor plugin that integrates Warp Terminal functionality directly into Kate. The project aims to bring Warp Terminal’s modern features (block-based command execution, AI assistance, and enhanced terminal experience) into the Kate editor environment.
Project Overview
WarpKate will implement a terminal emulation system within Kate that mimics and interfaces with Warp Terminal’s advanced features. Rather than simply embedding Warp Terminal, this project aims to reimplement the Warp Terminal protocol and interfaces natively within the Kate plugin architecture.
Key Technical Goals:
- Implement a VT100/ANSI terminal emulator within Kate
- Recreate Warp’s block-based command execution model
- Integrate AI-powered command suggestions
- Provide seamless interaction between editor and terminal functionality
- Support Warp’s visual and functional features
Architectural Design
High-Level Architecture
┌─────────────────────────────────────────┐
│ Kate │
│ │
│ ┌─────────────────────────────────────┐│
│ │ WarpKate Plugin ││
│ │ ││
│ │ ┌─────────────┐ ┌─────────────┐ ││
│ │ │Terminal View│ │ AI Engine │ ││
│ │ └─────┬───────┘ └──────┬──────┘ ││
│ │ │ │ ││
│ │ ┌─────┴──────────────────┴───────┐ ││
│ │ │ Protocol Layer │ ││
│ │ └─────────────┬─────────────────┘ ││
│ │ │ ││
│ │ ┌─────────────┴─────────────────┐ ││
│ │ │ Shell Interface │ ││
│ │ └─────────────────────────────────┘│
└─────────────────────────────────────────┘
Component Architecture
The WarpKate plugin consists of several interconnected components:
- Plugin Core: Manages initialization, configuration, and integration with Kate
- Terminal Emulation: Handles terminal rendering, input/output, and ANSI sequences
- Block Model: Implements Warp’s block-based command execution structure
- Protocol Layer: Interprets and processes terminal I/O according to Warp’s protocol
- AI Integration: Connects to AI services for command suggestions and help
- UI Components: Custom widgets and interfaces for terminal interaction
Components
1. Plugin Core
Responsibilities:
- Initialize the plugin within Kate
- Register views, actions, and UI elements
- Handle configuration and settings
- Manage plugin lifecycle
Key Classes:
WarpKatePlugin
: Main plugin classWarpKateConfigDialog
: Configuration interfaceWarpKateFactory
: Creates plugin instances
2. Terminal Emulation
Responsibilities:
- Process VT100/ANSI escape sequences
- Render terminal output with appropriate styling
- Handle cursor positioning and terminal state
- Process keyboard input
Key Classes:
TerminalEmulator
: Core terminal emulationVTParser
: Interprets VT100/ANSI sequencesTerminalScreen
: Manages screen buffer and stateTerminalInputHandler
: Processes keyboard input
3. Block Model
Responsibilities:
- Organize commands and outputs into discrete blocks
- Track command execution state
- Support navigation between command blocks
- Enable block-specific actions
Key Classes:
CommandBlock
: Represents a command and its outputBlockManager
: Manages collection of blocksBlockViewModel
: Presents blocks to the UIBlockNavigator
: Handles navigation between blocks
4. Protocol Layer
Responsibilities:
- Implement Warp Terminal’s protocol
- Process shell output according to protocol
- Handle special command sequences
- Manage terminal session state
Key Classes:
WarpProtocolHandler
: Core protocol implementationShellSession
: Manages shell process communicationProtocolInterpreter
: Interprets protocol-specific sequencesSessionState
: Tracks session state
5. AI Integration
Responsibilities:
- Connect to AI services for suggestions
- Process command history for context
- Present AI suggestions to the user
- Handle user interactions with suggestions
Key Classes:
AIEngine
: Core AI integrationSuggestionProvider
: Generates command suggestionsAIContextManager
: Manages context for AISuggestionView
: Presents suggestions to the user
6. UI Components
Responsibilities:
- Render terminal within Kate
- Present command blocks visually
- Handle user interactions
- Support theming and visual customization
Key Classes:
TerminalView
: Main terminal viewBlockView
: Renders individual command blocksSuggestionWidget
: Shows command suggestionsThemeManager
: Handles terminal theming
APIs and Interfaces
Terminal API
class ITerminalEmulator {
public:
virtual void processInput(const QString& input) = 0;
virtual void resize(int cols, int rows) = 0;
virtual QChar characterAt(int x, int y) const = 0;
virtual CharacterFormat formatAt(int x, int y) const = 0;
virtual void setCursorPosition(int x, int y) = 0;
virtual std::pair<int, int> cursorPosition() const = 0;
virtual void registerOutputHandler(IOutputHandler* handler) = 0;
};
Block Model API
class IBlockModel {
public:
virtual BlockId createBlock() = 0;
virtual void setBlockCommand(BlockId id, const QString& command) = 0;
virtual void appendBlockOutput(BlockId id, const QString& output) = 0;
virtual void setBlockState(BlockId id, BlockState state) = 0;
virtual BlockId currentBlock() const = 0;
virtual void navigateToBlock(BlockId id) = 0;
virtual void registerBlockObserver(IBlockObserver* observer) = 0;
};
AI Integration API
class IAIEngine {
public:
virtual void provideContext(const QStringList& commandHistory) = 0;
virtual void requestSuggestions(const QString& currentInput) = 0;
virtual void registerSuggestionHandler(ISuggestionHandler* handler) = 0;
virtual void acceptSuggestion(int suggestionId) = 0;
virtual void dismissSuggestions() = 0;
};
Plugin Integration API
class IWarpKatePlugin {
public:
virtual void initialize() = 0;
virtual void shutdown() = 0;
virtual QWidget* createTerminalView(QWidget* parent) = 0;
virtual void saveSession(KConfigGroup& config) = 0;
virtual void restoreSession(const KConfigGroup& config) = 0;
virtual void applySettings() = 0;
};
Data Models
Command Block Model
CommandBlock {
id: string // Unique identifier
command: string // The executed command
output: string // Command output
startTime: datetime // Execution start time
endTime: datetime // Execution end time
exitCode: number // Command exit code
state: enum { // Block state
PENDING,
EXECUTING,
COMPLETED,
FAILED
}
environment: { // Execution environment
cwd: string // Working directory
env: {key:value} // Environment variables
}
}
Terminal State Model
TerminalState {
screen: array[row][col] { // Screen buffer
char: char // Character
format: { // Character formatting
foreground: color
background: color
attributes: flags
}
}
cursor: { // Cursor state
x: number
y: number
visible: boolean
style: enum {BLOCK, UNDERLINE, BAR}
}
scrollRegion: { // Scroll region
top: number
bottom: number
}
modes: { // Terminal modes
applicationCursorKeys: boolean
applicationKeypad: boolean
bracketedPaste: boolean
// Other modes
}
}
AI Suggestion Model
Suggestion {
id: number // Suggestion identifier
text: string // Suggested command
description: string // Description/explanation
confidence: number // Confidence score (0-1)
type: enum { // Suggestion type
COMMAND,
ARGUMENT,
OPTION,
PATH,
COMPLETION
}
segments: array { // Highlighted segments
start: number
end: number
type: string
}
}
Implementation Details
Protocol Implementation Strategy
The Warp Terminal protocol will be implemented through careful study and reverse engineering of the Warp Terminal codebase. Implementation will include:
- Basic Terminal Protocol: Standard VT100/ANSI terminal emulation
- Block-Based Extensions: Warp-specific block management protocol
- Command State Tracking: Protocol extensions for command state
- AI Integration Protocol: Communication with AI services
Shell Integration
Terminal commands will be executed through a pseudo-terminal (PTY) interface:
- Fork a new process for the shell
- Set up a pseudo-terminal for communication
- Execute the user’s preferred shell
- Process I/O through the terminal emulation layer
- Parse output for block management
Code example:
bool ShellSession::startShell() {
int master, slave;
char name[100];
if (openpty(&master, &slave, name, nullptr, nullptr) == -1) {
return false;
}
pid_t pid = fork();
if (pid == -1) {
return false;
}
if (pid == 0) {
// Child process
close(master);
login_tty(slave);
const char* shell = getenv("SHELL") ? getenv("SHELL") : "/bin/bash";
execlp(shell, shell, nullptr);
exit(1);
}
// Parent process
close(slave);
m_masterFd = master;
m_childPid = pid;
// Set up notifiers for I/O
m_readNotifier = new QSocketNotifier(master, QSocketNotifier::Read, this);
connect(m_readNotifier, &QSocketNotifier::activated, this, &ShellSession::readFromShell);
return true;
}
Block Management Implementation
The block management system will track command execution and organize output:
- Detect command entry through terminal input monitoring
- Create a new block for each command
- Capture output and associate with the current block
- Detect command completion through exit codes or prompts
- Support navigation between historical blocks
AI Integration Implementation
AI features will be implemented through:
- Local Context Collection: Gathering command history and environment
- API Communication: Connecting to AI services for suggestions
- Suggestion Processing: Formatting and ranking suggestions
- UI Integration: Presenting suggestions in the terminal interface
Technical Requirements
Development Environment
- C++ 17 or later
- Qt 5.15 or Qt 6.x
- KDE Frameworks 5.80+
- CMake 3.16+
- Kate development headers
Build Dependencies
- Qt Core, Widgets, Network
- KTextEditor
- KParts
- KI18n
- KConfig
- KIO
- KTerminal (optional)
Runtime Dependencies
- Kate 21.12 or newer
- KDE Frameworks 5.80+
- Qt 5.15+ or Qt 6.x
- OpenSSL (for secure connections to AI services)
Compatibility Requirements
- Linux (primary target)
- macOS (secondary target)
- Windows (tertiary target, may have limitations)
Integration Points
Kate Editor Integration
- Command Execution: Execute selected text as terminal commands
- File Operations: Integration with terminal file operations
- Context Awareness: Terminal inherits context from current document
KDE Integration
- Settings Integration: WarpKate settings in Kate configuration
- Session Management: Save/restore terminal sessions with Kate sessions
- Theming: Respect KDE color schemes and themes
AI Service Integration
- Local Models: Support for running local AI models
- Cloud Services: Integration with remote AI services
- Privacy Controls: User control over data shared with AI
Testing Strategy
Unit Testing
- Terminal emulation tests with known ANSI sequences
- Block model manipulation and storage tests
- Protocol handler tests with simulated I/O
Integration Testing
- Kate plugin loading and initialization
- Terminal command execution and output capture
- Block navigation and management
- Keyboard shortcut handling
Performance Testing
- Terminal output processing speed
- Memory usage with large output buffers
- UI responsiveness during heavy output
- AI suggestion generation latency
Performance Considerations
Terminal Rendering
- Optimize screen buffer updates to minimize redraw operations
- Implement partial screen updates for large outputs
- Use efficient data structures for terminal state
Memory Management
- Implement buffer size limits for command history
- Provide configuration for maximum output retention
- Implement efficient storage for terminal history
AI Integration
- Implement caching for common suggestions
- Use background processing for AI requests
- Provide fallback to local completion when AI is unavailable
Security Considerations
Command Execution
- Execute commands with appropriate permissions
- Prevent command injection through proper escaping
- Warn users about potentially dangerous commands
AI Data Sharing
- Clear privacy policy for data shared with AI services
- Option to disable AI features entirely
- Local-only AI options for sensitive environments
Authentication
- Secure storage of API keys for AI services
- Optional authentication for accessing terminal features
- Integration with KDE Wallet for credential storage
Appendices
A. Warp Terminal Protocol Reference
This section will be developed through reverse engineering of the Warp Terminal application and documentation of discovered protocol features.
B. Kate Plugin Architecture Overview
Brief overview of Kate’s plugin architecture and extension points relevant to WarpKate implementation.
C. VT100/ANSI Terminal Reference
Quick reference for commonly used terminal escape sequences and their handling in WarpKate.
D. AI Integration Options
Detailed analysis of potential AI backends, their requirements, and integration approaches.
This technical specification is a living document and will be updated as the WarpKate project evolves. Contributions and feedback from the KDE and open source communities are welcome and encouraged.