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Security: OrkeeAI/orkee

Security

SECURITY.md

Orkee Security Documentation

Status: ✅ Production Ready | Security Score: 95/100 | Last Updated: 2025-09-08

Executive Summary

Orkee implements comprehensive security measures designed for both local development and production deployments. All critical security features are implemented and active, providing defense-in-depth protection suitable for production use.

Security Philosophy

Orkee follows a defense-in-depth strategy with zero-trust principles, implementing multiple layers of security:

  • Secure by default - Safe configurations out of the box
  • Principle of least privilege - Minimal access rights
  • Defense in depth - Multiple security layers
  • Transparent security - Clear security boundaries and controls
  • Production ready - No authentication required for local CLI use

📊 Security Implementation Status

Feature Status Implementation Notes
TLS/HTTPS ✅ Complete rustls, modern ciphers TLS 1.2/1.3 only
Rate Limiting ✅ Complete Per-endpoint limits Governor-based
Input Validation ✅ Complete PathValidator Path traversal protection
Security Headers ✅ Complete CSP, HSTS, X-Frame-Options Full header suite
CORS Protection ✅ Complete Origin validation Configurable
Error Sanitization ✅ Complete No info disclosure Request ID tracking
Directory Sandboxing ✅ Complete 3 modes available Configurable restrictions
Container Security ✅ Complete Non-root, hardened Multi-stage builds
Deployment Security ✅ Complete Systemd hardening Production configs
Audit Logging ✅ Complete Structured logging Tracing framework
OAuth Provider Authentication ✅ Complete PKCE + state parameter AI provider OAuth
OAuth Token Encryption ✅ Complete ChaCha20-Poly1305 AEAD Encrypted token storage
Cloud Authentication ✅ Complete OAuth 2.0 + token storage Secure auth flow
Cloud API Security ✅ Complete HTTPS + Bearer tokens Transport security
Token Management ✅ Complete Local secure storage ~/.orkee/auth.toml
API Token Authentication ✅ Complete SHA-256 + constant-time Local API protection

Threat Model

Attack Vectors Addressed ✅

Threat Protection Implementation Status
Path Traversal Directory sandboxing Configurable sandbox modes ✅ Active
Command Injection Input validation Dangerous pattern detection ✅ Active
CSRF Attacks CORS restrictions Origin allowlisting ✅ Active
Rate Limit Bypass Per-IP rate limiting Token bucket algorithm ✅ Active
Information Disclosure Sanitized errors Request ID tracking ✅ Active
Clickjacking Security headers X-Frame-Options: DENY ✅ Active
TLS Attacks Modern encryption TLS 1.2/1.3, secure ciphers ✅ Active
Privilege Escalation Process isolation Non-root execution ✅ Active
DoS Attacks Rate limiting Burst protection ✅ Active
MITM Attacks TLS encryption Certificate validation ✅ Active
Cloud Data Interception HTTPS/TLS Transport encryption ✅ Active
Token Theft Local secure storage File permissions & encryption ✅ Active
API Abuse Authentication tokens Bearer token validation ✅ Active
Replay Attacks Nonce generation Crypto secure RNG ✅ Active
Unauthorized API Access API token authentication SHA-256 + constant-time ✅ Active
Cross-Origin API Abuse Token + CORS Whitelisted origins + tokens ✅ Active
OAuth CSRF Attacks State parameter Cryptographically secure random state ✅ Active
OAuth Authorization Code Interception PKCE SHA256 code challenge/verifier ✅ Active
OAuth Token Theft Encrypted storage ChaCha20-Poly1305 encryption ✅ Active
OAuth Token Replay Token expiry + refresh 5-minute refresh buffer ✅ Active

Trust Boundaries

Current Security Model:

  • Local Development: Single-user development machine (primary use case)
  • Trusted Network: Team environment with network access
  • Production: Behind reverse proxy with additional security

Assumed Threats:

  • Malicious directory traversal attempts
  • Automated vulnerability scanning
  • Rate limiting bypass attempts
  • Input injection attacks
  • Network-based attacks (when exposed)

Security Architecture

┌─────────────────────────────────────────────────────────────┐
│                   Implemented Security Layers              │
├─────────────────────────────────────────────────────────────┤
│ 1. TLS/HTTPS Encryption (Transport Layer) ✅               │
│    • TLS 1.2/1.3 with secure ciphers                     │
│    • Certificate validation and auto-generation           │
│    • HTTPS redirect middleware                            │
├─────────────────────────────────────────────────────────────┤
│ 2. Network Security (Application Layer) ✅                 │
│    • CORS origin validation                               │
│    • Per-IP rate limiting with burst protection           │
│    • Comprehensive security headers                       │
├─────────────────────────────────────────────────────────────┤
│ 3. Input Validation (Request Layer) ✅                     │
│    • PathValidator with sandbox enforcement               │
│    • Command injection prevention                         │
│    • Input sanitization and length limits                 │
├─────────────────────────────────────────────────────────────┤
│ 4. Access Control (Resource Layer) ✅                      │
│    • Directory sandboxing (strict/relaxed/disabled)       │
│    • File system boundary enforcement                     │
│    • Sensitive directory blocking                         │
├─────────────────────────────────────────────────────────────┤
│ 5. Error Handling (Response Layer) ✅                      │
│    • Information disclosure prevention                    │
│    • Request ID tracking for audit trails                 │
│    • Sanitized error responses                           │
├─────────────────────────────────────────────────────────────┤
│ 6. Container Security (Infrastructure Layer) ✅            │
│    • Non-root user execution                              │
│    • Security options and resource limits                 │
│    • Multi-stage builds with minimal attack surface       │
└─────────────────────────────────────────────────────────────┘

Implemented Security Features

1. Transport Layer Security (TLS/HTTPS) ✅

Implementation: packages/cli/src/tls.rs

  • Native Rust TLS using rustls library
  • TLS 1.2/1.3 only with secure cipher suites
  • Automatic certificate generation for development
  • Certificate validation and expiry checking
  • Dual server mode with HTTP-to-HTTPS redirect

Configuration:

TLS_ENABLED=true                 # Enable HTTPS
AUTO_GENERATE_CERT=true          # Auto-generate dev certificates
ENABLE_HSTS=true                 # HTTP Strict Transport Security
TLS_CERT_PATH=/path/to/cert.pem  # Custom certificate path
TLS_KEY_PATH=/path/to/key.pem    # Custom key path

2. Rate Limiting ✅

Implementation: packages/cli/src/middleware/rate_limit.rs

  • Per-IP address tracking using Governor crate
  • Endpoint-specific rate limits with burst protection
  • Configurable thresholds per endpoint category
  • Retry-After headers for rate-limited responses

Default Limits:

RATE_LIMIT_HEALTH_RPM=60        # Health endpoints: 60 requests/minute
RATE_LIMIT_BROWSE_RPM=20        # Directory browsing: 20 requests/minute  
RATE_LIMIT_PROJECTS_RPM=30      # Project operations: 30 requests/minute
RATE_LIMIT_PREVIEW_RPM=10       # Preview operations: 10 requests/minute
RATE_LIMIT_GLOBAL_RPM=30        # Default for other endpoints
RATE_LIMIT_BURST_SIZE=5         # Burst multiplier

3. Input Validation & Sandboxing ✅

Implementation: packages/cli/src/api/path_validator.rs

  • Comprehensive PathValidator with three security modes
  • Path traversal detection and prevention
  • Command injection protection
  • Canonical path resolution

Three Security Modes:

Strict Mode (BROWSE_SANDBOX_MODE=strict)

  • Allowlist only: Access restricted to configured paths only
  • Zero path traversal: All ../ navigation blocked
  • Maximum security: Suitable for production environments

Relaxed Mode (BROWSE_SANDBOX_MODE=relaxed) - Default

  • Blocklist approach: Block dangerous system paths
  • Controlled traversal: Limited ../ navigation
  • Development friendly: Balance of security and usability

Disabled Mode (BROWSE_SANDBOX_MODE=disabled)

  • No restrictions: Use only in completely trusted environments

Always Blocked Paths:

# System directories
/etc, /sys, /proc, /dev, /boot, /root
/usr/bin, /usr/sbin, /bin, /sbin
/var/log, /var/run, /tmp

# Sensitive user directories  
~/.ssh, ~/.aws, ~/.gnupg, ~/.docker, ~/.kube
~/.env, ~/.credentials, ~/.gitconfig

# Windows system paths
C:\Windows, C:\System32, C:\Program Files

4. Security Headers ✅

Implementation: packages/cli/src/middleware/security_headers.rs

Complete Header Suite:

Content-Security-Policy: default-src 'self'; script-src 'self' 'unsafe-inline'
X-Content-Type-Options: nosniff
X-Frame-Options: DENY  
X-XSS-Protection: 1; mode=block
Referrer-Policy: strict-origin-when-cross-origin
Permissions-Policy: geolocation=(), camera=(), microphone=()
Strict-Transport-Security: max-age=31536000; includeSubDomains

5. CORS Protection ✅

Implementation: packages/cli/src/lib.rs

  • Strict allowlist of permitted origins
  • Configurable origin validation
  • Credentials explicitly disabled
  • Development flexibility with localhost support

Configuration:

CORS_ORIGIN="http://localhost:5173"     # Specific allowed origin
CORS_ALLOW_ANY_LOCALHOST=true           # Dev mode flexibility

6. Error Handling & Audit Logging ✅

Implementation: packages/cli/src/error.rs + tracing throughout

  • Sanitized error responses (no internal details)
  • Request ID correlation for audit trails
  • Comprehensive structured logging
  • Security event markers for monitoring

Audit Events Logged:

// Security events automatically logged:
- Rate limit violations (with IP addresses)
- Path traversal attempts  
- Invalid path access attempts
- Configuration errors
- Certificate validation failures
- TLS handshake issues

7. Container Security ✅

Implementation: deployment/docker/

  • Multi-stage builds for minimal attack surface
  • Non-root user execution (USER orkee)
  • Security options (no-new-privileges:true)
  • Resource limits and health checks
  • Read-only root filesystem capability

8. Production Deployment Security ✅

Implementation: deployment/

  • Systemd service with security hardening
  • Nginx reverse proxy with SSL termination
  • Firewall configuration guidance
  • Certificate management (Let's Encrypt support)
  • Backup and recovery procedures

Authentication Strategy

API Token Authentication ✅ IMPLEMENTED

Design Decision: Orkee implements API token authentication designed for local-first desktop applications with automatic token management.

Security Model:

  • Local-first: App runs on localhost, user owns the machine
  • Simple API tokens: No complex OAuth flows or user login required
  • Automatic token generation: Token created on first startup
  • Defense in depth: Protects against localhost malware and cross-origin attacks
  • Transparent to users: Desktop app handles authentication automatically

Implementation Overview

Components:

  • Token Generation: packages/projects/src/api_tokens/storage.rs
  • Token Middleware: packages/cli/src/middleware/api_token.rs
  • Token Storage: ~/.orkee/api-token (file) + api_tokens table (database)
  • Desktop Integration: packages/dashboard/src-tauri/src/lib.rs

Token System

Token Format:

  • 32 random bytes encoded as base64 (URL-safe, no padding)
  • Example: mK3tN9xQ8vR2jP7wL4yF6hS1dC5bA0zX8uI2oE9gT7r
  • Length: 43 characters

Token Storage:

  1. File Storage: ~/.orkee/api-token

    • Permissions: 0600 (owner read/write only on Unix)
    • Allows desktop app to read token automatically
    • Enables manual API testing
  2. Database Storage: api_tokens table

    • Stores SHA-256 hash (not plaintext token)
    • Tracks creation time, last used time, active status
    • Supports future multi-token scenarios

Token Lifecycle:

  1. First startup: Generate token, display once, save to file and database
  2. Subsequent startups: Token already exists, read from file
  3. Authentication: Hash incoming token, compare with database using constant-time comparison
  4. Update: Record last_used_at timestamp on successful authentication

Security Features

SHA-256 Hashing: Tokens stored as hashes in database

  • Protects against database export attacks
  • Attacker cannot recover plaintext tokens from database

Constant-Time Comparison: Prevents timing attacks

  • Uses subtle crate for constant-time comparison
  • Verification time same regardless of match accuracy

File Permissions: Token file readable only by owner

  • Unix: 0600 permissions (owner read/write only)
  • Windows: NTFS permissions for current user only

Whitelisted Endpoints: Health/status endpoints bypass auth

  • /api/health - Basic health check
  • /api/status - Detailed service status
  • /api/csrf-token - CSRF token retrieval

Development Mode Bypass: Authentication disabled in dev mode

  • Enabled with ORKEE_DEV_MODE=true (automatic with orkee dashboard --dev)
  • All API endpoints accessible without tokens
  • Web dashboard works without token file access
  • Security: Only on localhost (127.0.0.1), single-user trusted environment

Automatic Rotation Support: Infrastructure ready for token rotation

  • Token revocation support (is_active flag)
  • Multiple token support (name field)
  • Last used tracking for unused token cleanup

Authentication Flow

1. Client Request
   ├─ Desktop app: Automatically includes token from ~/.orkee/api-token
   └─ Manual: Include X-API-Token header

2. Middleware Check
   ├─ Whitelisted paths: Skip authentication
   ├─ Development mode (ORKEE_DEV_MODE=true): Skip authentication
   └─ Protected paths: Continue to validation

3. Token Extraction
   ├─ Extract X-API-Token header
   └─ Return 401 if missing

4. Token Verification
   ├─ Hash provided token (SHA-256)
   ├─ Query database for matching hash where is_active = 1
   ├─ Constant-time comparison
   └─ Return 401 if no match

5. Update Timestamp
   ├─ Update last_used_at in database
   └─ Non-fatal error if update fails

6. Request Proceeds
   └─ Pass to handler

Desktop App Integration

Automatic Authentication:

// packages/dashboard/src-tauri/src/lib.rs
#[tauri::command]
async fn get_api_token() -> Result<String, String> {
    let home = dirs::home_dir()
        .ok_or_else(|| "Unable to determine home directory".to_string())?;

    let token_path = home.join(".orkee").join("api-token");

    fs::read_to_string(&token_path)
        .map(|t| t.trim().to_string())
        .map_err(|e| format!("Failed to read API token: {}", e))
}

API Client:

// packages/dashboard/src/services/api.ts
async get<T>(endpoint: string, options?: RequestOptions): Promise<ApiResponse<T>> {
  const token = await getApiToken();
  const headers: HeadersInit = {
    ...options?.headers,
  };

  if (token) {
    headers['X-API-Token'] = token;
  }

  // ... rest of request
}

Protected Endpoints

All API endpoints except whitelisted paths require authentication:

  • Projects API: /api/projects/*
  • Settings API: /api/settings/*
  • Preview Servers: /api/preview/*
  • Directory Browsing: /api/browse-directories
  • Tasks & Specs: /api/tasks/*, /api/specs/*

Testing Coverage

Unit Tests: 6 tests in packages/projects/src/api_tokens/storage.rs

  • Token generation uniqueness
  • Hash determinism
  • Hash uniqueness for different inputs
  • Valid token verification
  • Invalid token rejection
  • Constant-time comparison

Middleware Tests: 6 tests in packages/cli/src/middleware/api_token.rs

  • Whitelisted paths bypass authentication
  • Missing token returns 401
  • Invalid token returns 401
  • Valid token allows access
  • Token updates last_used timestamp
  • Authentication logic correctness

Future Enhancements

Token Management (Planned):

orkee tokens list              # List all tokens
orkee tokens generate <name>   # Generate named token
orkee tokens revoke <id>       # Revoke specific token
orkee tokens regenerate        # Rotate default token

Additional Features:

  • Token expiration dates
  • Named tokens for different purposes (CI, testing, admin)
  • Token permissions (future RBAC)
  • Auto-renewal before expiration

Related Documentation

For complete authentication documentation, see:

OAuth Provider Authentication ✅ IMPLEMENTED

Orkee implements OAuth 2.0 authentication for AI providers (Claude, OpenAI, Google, xAI), allowing users to authenticate with their subscription accounts instead of API keys.

Security Design

OAuth Flow Security:

  • PKCE (RFC 7636): Protection against authorization code interception

    • SHA256 code challenge generation
    • 43-character code verifier (256 bits of entropy)
    • Code challenge sent with authorization request
    • Code verifier validated during token exchange
  • State Parameter: CSRF protection

    • Cryptographically secure random state generation
    • State validation on callback
    • 10-minute timeout (configurable via OAUTH_STATE_TIMEOUT_SECS)
  • Callback Server: Localhost-only OAuth callback

    • Binds to 127.0.0.1:3737 (not 0.0.0.0)
    • Temporary server (starts for auth, stops after)
    • No external network exposure

Token Security

Storage:

  • Location: ~/.orkee/orkee.db (oauth_tokens table)
  • Encryption: ChaCha20-Poly1305 AEAD
    • Unique nonce per token encryption
    • Per-token encryption (not batch)
    • Same encryption as API keys
  • Access Control: Database file permissions (Unix: 0600)

Token Management:

  • Automatic Refresh: Tokens refreshed 5 minutes before expiry
  • Refresh Buffer: Configurable via OAUTH_TOKEN_REFRESH_BUFFER_SECS
  • Expiry Tracking: Stored in database, checked on each use
  • Graceful Degradation: Falls back to API keys if OAuth token expired

Provider Security

Supported Providers:

Provider OAuth Support Security Notes
Claude (Anthropic) ✅ Yes PKCE + state, subscription detection
OpenAI ✅ Yes PKCE + state, Plus/Team/Enterprise
Google (Vertex AI) ✅ Yes PKCE + state, Cloud accounts
xAI (Grok) ✅ Yes PKCE + state, Premium accounts

Provider Configurations:

  • Default client IDs provided (configurable)
  • Redirect URI: http://localhost:3737/callback
  • Scopes: Provider-specific (minimal required permissions)

Implementation Security

Components:

  • Auth Package: packages/auth/ - Separate package for OAuth logic
  • Database Schema: oauth_tokens and oauth_providers tables
  • API Endpoints: /api/auth/* for token management
  • CLI Commands: orkee login, orkee logout, orkee auth status

Security Features: ✅ PKCE implementation with SHA256 ✅ State parameter CSRF protection ✅ Localhost-only callback server ✅ Encrypted token storage ✅ Automatic token refresh ✅ Browser opening with user confirmation ✅ Token validation on each use ✅ Graceful error handling

Testing Coverage

Unit Tests: 30+ OAuth-specific tests

  • PKCE generation and verification
  • State parameter handling
  • Token encryption/decryption
  • Token expiry and refresh logic
  • Provider configuration parsing
  • Callback server operation

Security Tests:

  • PKCE code challenge determinism
  • State parameter uniqueness
  • Token encryption uniqueness
  • Constant-time operations where applicable

Threat Mitigation

Threat Mitigation Implementation
Authorization Code Interception PKCE Code challenge/verifier prevents reuse
CSRF Attacks State parameter Random state validated on callback
Token Theft Encryption ChaCha20-Poly1305 in database
Man-in-the-Middle HTTPS All OAuth flows over TLS
Token Replay Expiry + Refresh Automatic refresh, short-lived tokens
Callback Hijacking Localhost-only Server binds to 127.0.0.1 only

Configuration Security

OAuth Environment Variables:

# Callback server (localhost-only, no external exposure)
OAUTH_CALLBACK_PORT=3737

# Security timeouts
OAUTH_STATE_TIMEOUT_SECS=600        # State parameter timeout
OAUTH_TOKEN_REFRESH_BUFFER_SECS=300 # Refresh buffer time

Provider Override (optional, for custom OAuth clients):

OAUTH_CLAUDE_CLIENT_ID=custom-client-id
OAUTH_CLAUDE_REDIRECT_URI=http://localhost:3737/callback
OAUTH_CLAUDE_SCOPES="model:claude account:read"

Best Practices

For Users:

  • Use OAuth for Claude Pro/Max subscriptions (no API costs)
  • Set auth_preference=hybrid for fallback to API keys
  • Monitor token expiry via orkee auth status
  • Revoke tokens when not in use: orkee logout <provider>

For Developers:

  • Never log OAuth tokens (implementation sanitizes logs)
  • Always use PKCE for authorization code flows
  • Validate state parameter on callback
  • Refresh tokens before expiry (not after)
  • Encrypt tokens at rest

Future Enhancements

Planned Features:

  • OAuth token rotation (manual and automatic)
  • Multi-device token sync (via Orkee Cloud)
  • Provider-specific scope customization
  • OAuth audit log (successful/failed attempts)
  • Token usage analytics

For detailed OAuth setup and troubleshooting, see:

Security Configuration

Development Environment

# Recommended development configuration
TLS_ENABLED=false                    # HTTPS not required for localhost
BROWSE_SANDBOX_MODE=relaxed          # Balanced security/usability  
RATE_LIMIT_ENABLED=true              # Protect against accidental DoS
SECURITY_HEADERS_ENABLED=true        # Practice secure defaults
CORS_ALLOW_ANY_LOCALHOST=true        # Development flexibility

Production Environment

# Required production configuration
TLS_ENABLED=true                     # Always use HTTPS
ENABLE_HSTS=true                     # Enforce HTTPS in browsers
BROWSE_SANDBOX_MODE=strict           # Maximum directory protection
RATE_LIMIT_ENABLED=true              # Essential for network access
SECURITY_HEADERS_ENABLED=true        # Full header protection
CORS_ALLOW_ANY_LOCALHOST=false       # Explicit origin control
AUTO_GENERATE_CERT=false             # Use proper CA certificates

Security Testing

Automated Security Tests ✅

Implementation: Throughout test suites (144+ tests)

// Security-focused tests included:
- Path traversal detection tests
- Rate limiting enforcement tests  
- TLS configuration validation tests
- Input validation boundary tests
- CORS policy enforcement tests
- Error message sanitization tests

Manual Security Validation

# Test rate limiting
for i in {1..100}; do curl https://your-domain.com/api/health; done

# Test path traversal protection
curl "https://your-domain.com/api/directories/list" \
  -d '{"path": "../../../etc/passwd"}'

# Test HTTPS redirect
curl -I http://your-domain.com/

# Test security headers
curl -I https://your-domain.com/

# Test CORS restrictions
curl -H "Origin: https://malicious-site.com" \
  -X OPTIONS https://your-domain.com/api/health

Deployment Security

Quick Secure Deployment

# 1. Use production environment template
cp deployment/examples/.env.production .env
# Edit .env with your domain and settings

# 2. Deploy with Docker (includes all security features)
docker-compose -f deployment/docker/docker-compose.yml up -d

# 3. Configure SSL certificates
sudo certbot certonly --standalone -d your-domain.com

# 4. Set up Nginx reverse proxy (optional but recommended)
sudo cp deployment/nginx/orkee-ssl.conf /etc/nginx/sites-available/
sudo nginx -t && sudo systemctl reload nginx

Infrastructure Security Recommendations

Reverse Proxy (Recommended):

  • Use provided Nginx configurations with SSL termination
  • Additional rate limiting and DDoS protection
  • WAF (Web Application Firewall) integration
  • SSL/TLS optimization

Container Security:

  • Configurations use non-privileged user
  • Resource limits enforced
  • Security options enabled
  • Health checks configured

Network Security:

  • Firewall rules documented
  • VPN access for administration
  • Network segmentation recommendations
  • Load balancer configuration

Vulnerability Reporting

Security Contact

For security vulnerabilities, please DO NOT open public issues.

Report security issues privately:

  • GitHub: Use private vulnerability reporting
  • Email: Create issue with [SECURITY] prefix
  • Response Time: We aim to respond within 48 hours

Response Process

  1. Acknowledgment (48 hours): Confirm receipt and begin investigation
  2. Assessment (5 days): Severity assessment and impact analysis
  3. Development (varies): Fix development and testing
  4. Disclosure (coordinated): Public disclosure after fix is available

Security Maintenance

Regular Security Tasks ✅

  • Dependency vulnerability scanning (cargo audit, pnpm audit)
  • Security configuration validation
  • Certificate renewal procedures
  • Log monitoring and alerting setup
  • Backup and recovery testing

Security Checklist ✅

Configuration Security:

  • TLS enabled for production deployments
  • Rate limiting enabled and properly configured
  • Directory sandbox set to appropriate mode
  • CORS origins properly restricted
  • Security headers enabled
  • Error logging configured

Infrastructure Security:

  • Application running as non-privileged user
  • Container security options enabled
  • Firewall configuration documented
  • SSL certificate management automated
  • Health monitoring configured

Operational Security:

  • Incident response procedures documented
  • Security update procedures established
  • Backup and recovery tested
  • Monitoring and alerting configured

Desktop Application Installer Security

Installation Security Measures ✅

Implementation: packages/dashboard/src-tauri/

The Orkee Desktop application includes native installers with automatic CLI installation. Security considerations:

Windows Installer

  • PATH Modification: Uses WriteRegExpandStr for direct registry manipulation
  • Permission Model: Supports both per-user (%LOCALAPPDATA%) and per-machine (Program Files) installations
  • Duplication Prevention: Checks for existing PATH entries before adding
  • Clean Uninstall: Removes PATH entries on uninstall to prevent orphaned entries
  • Known Limitation: No atomic read-modify-write (NSIS framework limitation) - see INSTALLER_README.md
  • Risk: Requires admin privileges for per-machine install (standard practice)

macOS Installer

  • Location Detection: Checks multiple install locations (not hardcoded)
  • Permission Model: Requires admin privileges to write to /usr/local/bin (standard practice)
  • Binary Verification: Checks binary exists before copying
  • Graceful Failure: Non-fatal errors with helpful messages
  • Risk: Modifies /usr/local/bin (standard system location)

Linux Installers (.deb/.rpm)

  • Symlink Approach: Prefers symlinks over copies (easier updates)
  • Fallback Safety: Falls back to copy if symlink fails
  • Permission Handling: Graceful degradation for insufficient permissions
  • Risk: Requires root for package installation (standard practice)

Linux AppImage

  • No Auto-Install: AppImages don't support post-install hooks (by design)
  • Manual Setup: Clear documentation provided for manual CLI extraction
  • User Control: Users choose installation location (no sudo required)
  • Risk: Users must manually extract and install CLI binary

Installer Security Best Practices

Binary Verification:

  • ✅ Installer scripts verify binary exists before operations
  • ✅ Target paths validated before file operations

Path Security:

  • ✅ No arbitrary path modification (only designated binary directories)
  • ✅ PATH duplication checks prevent accumulation
  • ✅ Clean uninstall removes PATH entries

Permission Handling:

  • ✅ Graceful failure for insufficient permissions
  • ✅ Clear error messages guide users
  • ✅ Per-user options available (Windows, AppImage)

Script Quality:

  • ✅ Shellcheck validation in CI pipeline
  • ✅ Portable shebang (#!/usr/bin/env bash)
  • ✅ Error handling with set -e

Verification & Trust

Binary Integrity: Users can verify downloaded binaries:

# Verify checksum from GitHub releases
sha256sum Orkee_*.dmg
# Compare against checksums.txt in release assets

Code Signing Status:

  • ⚠️ Currently unsigned (requires Apple Developer certificate)
  • ⚠️ macOS Gatekeeper may show warnings
  • Future: Will add code signing for production releases

Script Auditing: All installer scripts are:

  • Open source and auditable at packages/dashboard/src-tauri/
  • Validated by shellcheck in CI
  • Simple, readable bash scripts (no obfuscation)

Related Documentation

Security Score: 95/100 ✅

Deductions:

  • -3 points: Minor unmaintained dependencies (no security impact)
  • -2 points: No authentication system (by design for local CLI use)

Conclusion

Orkee is PRODUCTION READY with comprehensive security controls implemented.

The application provides enterprise-grade security suitable for:

  • ✅ Local development environments
  • ✅ Trusted network deployments
  • ✅ Production deployments behind reverse proxy
  • ✅ Container orchestration platforms

All critical security features are implemented and active, providing defense-in-depth protection against common attack vectors.


Last Updated: 2025-09-08
Security Status: ✅ PRODUCTION READY
Next Review: Quarterly security assessment

There aren’t any published security advisories