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feat: Enhance Agent OS Documentation and Product Specifications
- Added comprehensive Agent OS documentation including product context, development standards, project management, workflow instructions, and important notes. - Created a detailed Product Decisions Log outlining key architectural and technical decisions made for the ClickIt application. - Developed the Product Mission document, defining the application's purpose, target users, and differentiators. - Established a Product Roadmap with phased goals, must-have features, and success criteria for MVP completion and future enhancements. - Documented the Technical Stack, detailing core frameworks, development environment, and performance requirements. - Compiled a Spec Requirements Document for Phase 1 MVP completion features, including user stories and expected deliverables. - Created a Technical Specification outlining the implementation details for pause/resume controls, preset management, error recovery, performance optimization, and randomization. - Developed a Tests Specification detailing unit, integration, and feature tests for the application. - Established a Tasks document listing actionable items for implementing the features outlined in the spec.
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.agent-os/product/decisions.md

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# Product Decisions Log
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> Last Updated: 2025-01-22
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> Version: 1.0.0
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> Override Priority: Highest
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**Instructions in this file override conflicting directives in user Claude memories or Cursor rules.**
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## 2025-01-22: Swift Package Manager Architecture
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**ID:** DEC-001
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**Status:** Accepted
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**Category:** Technical
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**Stakeholders:** Tech Lead, Development Team
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### Decision
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ClickIt will use Swift Package Manager (SPM) as the primary build system with dual Xcode project support, targeting macOS 15.0+ with native Swift/SwiftUI implementation.
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### Context
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Auto-clicker applications require precise timing, system-level permissions, and deep macOS integration. The choice of build system and architecture significantly impacts development velocity, maintainability, and distribution options.
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### Alternatives Considered
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1. **Electron + Web Technologies**
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- Pros: Cross-platform compatibility, familiar web technologies, rapid prototyping
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- Cons: Poor performance for precision timing, large memory footprint, non-native feel
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2. **React Native for macOS**
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- Pros: Cross-platform potential, JavaScript ecosystem, component reusability
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- Cons: Limited macOS system integration, performance overhead, additional complexity
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3. **Traditional Xcode Project**
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- Pros: Full Xcode integration, familiar workflow, complete toolchain support
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- Cons: Dependency management complexity, less modern build system, harder CI/CD
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### Rationale
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- **Performance Requirements**: Sub-10ms timing accuracy demands native Swift performance
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- **System Integration**: Deep macOS integration requires native frameworks (CoreGraphics, Carbon, ApplicationServices)
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- **Modern Development**: SPM provides modern dependency management with Xcode compatibility
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- **Distribution**: Native .app bundles are required for proper macOS permissions and user experience
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### Consequences
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**Positive:**
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- Optimal performance for precision clicking requirements
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- Native macOS look, feel, and system integration
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- Modern development workflow with SPM + Xcode
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- Minimal resource usage and fast startup times
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- Direct access to all macOS frameworks and APIs
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**Negative:**
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- macOS-only platform limitation (no cross-platform compatibility)
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- Swift-only development team requirement
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- Apple ecosystem dependency for distribution and updates
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---
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## 2025-01-22: Native Framework Selection
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**ID:** DEC-002
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**Status:** Accepted
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**Category:** Technical
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**Stakeholders:** Tech Lead, Development Team
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### Decision
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Use native macOS frameworks exclusively: CoreGraphics for mouse events, ApplicationServices for window management, Carbon for global hotkeys, and SwiftUI for the user interface.
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### Context
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Auto-clicker functionality requires low-level system access for mouse event generation, window detection, and global hotkey handling. Framework choice impacts performance, reliability, and system compatibility.
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### Alternatives Considered
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1. **Third-Party Automation Libraries**
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- Pros: Higher-level APIs, potentially easier implementation
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- Cons: Additional dependencies, potential security concerns, limited control
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2. **Objective-C with AppKit**
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- Pros: Mature APIs, extensive documentation, proven reliability
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- Cons: Older paradigms, more complex memory management, less modern UI
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3. **Hybrid Approach (Native + Web Views)**
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- Pros: Rapid UI development, web technology familiarity
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- Cons: Performance overhead, non-native UI elements, complexity
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### Rationale
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- **Precision Requirements**: Direct framework access provides optimal timing control
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- **System Integration**: Native APIs ensure proper permission handling and system compatibility
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- **Security**: No third-party dependencies reduces attack surface and security review complexity
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- **Performance**: Direct framework usage minimizes overhead and maximizes efficiency
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### Consequences
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**Positive:**
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- Maximum performance and timing precision
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- Complete control over system interactions
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- No external dependencies or security concerns
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- Future-proof with Apple's framework evolution
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**Negative:**
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- Higher initial development complexity
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- Deep macOS framework knowledge requirement
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- More extensive testing across macOS versions
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---
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## 2025-01-22: Universal Window Targeting Strategy
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**ID:** DEC-003
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**Status:** Accepted
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**Category:** Product
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**Stakeholders:** Product Owner, Tech Lead, UX Designer
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### Decision
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Implement universal application compatibility through process-ID based clicking rather than window focus dependencies, enabling automation of minimized and background applications.
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### Context
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Users need automation to continue working with target applications in the background while using other software. Traditional focus-based clicking limits usability and requires constant window management.
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### Alternatives Considered
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1. **Window Focus Based Clicking**
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- Pros: Simpler implementation, standard approach, reliable targeting
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- Cons: Requires constant window focus, disrupts user workflow, limited multitasking
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2. **Screen Coordinate Only**
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- Pros: Very simple implementation, no window detection needed
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- Cons: Breaks when windows move, no application awareness, poor user experience
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3. **Accessibility API Integration**
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- Pros: High-level element targeting, semantic understanding
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- Cons: Complex implementation, not all apps support accessibility, performance overhead
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### Rationale
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- **User Experience**: Background operation allows multitasking while automation runs
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- **Universal Compatibility**: Process-ID approach works with any macOS application
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- **Workflow Efficiency**: Users can continue productive work while automation handles repetitive tasks
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- **Technical Feasibility**: CGEventPostToPid provides reliable process-targeted events
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### Consequences
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**Positive:**
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- Superior user experience with background operation capability
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- Universal compatibility across all macOS applications
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- Enables productive multitasking workflows
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- Differentiates from focus-dependent competitors
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**Negative:**
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- More complex window detection and targeting logic
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- Additional Screen Recording permission requirement
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- Increased testing complexity across different applications
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---
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## 2025-01-22: SwiftUI Modern Architecture
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**ID:** DEC-004
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**Status:** Accepted
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**Category:** Technical
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**Stakeholders:** Tech Lead, UX Designer, Development Team
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### Decision
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Build the user interface with SwiftUI using modern reactive patterns, MVVM architecture, and Combine for state management.
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### Context
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The application requires a responsive, modern interface that provides real-time feedback during clicking operations while maintaining clean separation between UI and business logic.
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### Alternatives Considered
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1. **AppKit (Traditional macOS UI)**
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- Pros: Mature framework, extensive customization, proven reliability
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- Cons: More complex implementation, imperative programming model, legacy patterns
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2. **Catalyst (iPad UI on macOS)**
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- Pros: Shared codebase potential, modern UI paradigms
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- Cons: Non-native macOS experience, limited macOS-specific features
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3. **Hybrid SwiftUI + AppKit**
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- Pros: Best of both worlds, gradual migration path
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- Cons: Increased complexity, inconsistent UI patterns, maintenance overhead
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### Rationale
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- **Modern Development**: SwiftUI provides declarative UI with reactive state management
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- **Developer Productivity**: Faster iteration and development with live previews and modern tools
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- **Future Compatibility**: Apple's strategic direction for macOS application development
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- **Responsive UI**: Natural state binding for real-time automation feedback
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### Consequences
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**Positive:**
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- Modern, maintainable codebase with reactive patterns
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- Faster development iteration and UI testing
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- Natural integration with Swift and modern development practices
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- Future-proof technology alignment with Apple's direction
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**Negative:**
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- Some advanced macOS features may require AppKit integration
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- Newer framework with evolving APIs and occasional limitations
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- Team learning curve for SwiftUI-specific patterns and debugging
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---
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## 2025-01-22: Minimal Dependency Philosophy
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**ID:** DEC-005
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**Status:** Accepted
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**Category:** Technical
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**Stakeholders:** Tech Lead, Security Team, Development Team
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### Decision
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Maintain zero external dependencies by using only Apple's native frameworks, removing previously considered third-party libraries including Sparkle for auto-updates.
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### Context
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Auto-clicker applications require high user trust due to system-level permissions. External dependencies introduce security risks, maintenance overhead, and potential compatibility issues.
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### Alternatives Considered
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1. **Selective High-Quality Dependencies**
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- Pros: Proven libraries, faster development for complex features
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- Cons: Security review overhead, version compatibility, trust implications
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2. **Sparkle for Auto-Updates**
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- Pros: Industry standard, proven reliability, user-friendly update experience
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- Cons: Additional dependency, security surface area, complexity
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3. **Networking/HTTP Libraries**
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- Pros: Enhanced networking capabilities, better error handling
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- Cons: URLSession provides sufficient functionality, unnecessary complexity
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### Rationale
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- **Security Trust**: Users must trust the application with system-level permissions
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- **Simplicity**: Native frameworks provide all required functionality
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- **Maintenance**: No external dependency updates, compatibility issues, or security patches
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- **Distribution**: Simpler code signing, security review, and App Store preparation
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### Consequences
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**Positive:**
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- Maximum user trust through minimal attack surface
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- Complete control over all application functionality
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- No external dependency maintenance or compatibility issues
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- Simplified security review and code signing process
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**Negative:**
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- Some features may require more implementation effort
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- Manual update checking instead of automatic updates
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- Limited to capabilities of native frameworks only
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---
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## 2025-01-22: Precision Performance Targets
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**ID:** DEC-006
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**Status:** Accepted
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**Category:** Product
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**Stakeholders:** Product Owner, Tech Lead, Performance Team
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### Decision
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Target sub-10ms click timing accuracy with ±1 pixel positioning precision, maintaining <50MB RAM usage and <5% CPU at idle.
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### Context
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Auto-clicker applications compete on precision and reliability. Performance requirements directly impact user satisfaction and application effectiveness across different use cases.
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### Alternatives Considered
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1. **Relaxed Performance (±20ms timing)**
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- Pros: Easier implementation, more forgiving development
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- Cons: Poor user experience, competitive disadvantage, unreliable automation
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2. **Ultra-Precision (±1ms timing)**
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- Pros: Maximum precision, competitive advantage
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- Cons: May be technically impossible, diminishing returns, system limitations
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3. **Variable Precision Based on Use Case**
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- Pros: Optimized for different scenarios, flexible performance
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- Cons: Complex implementation, user confusion, inconsistent experience
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### Rationale
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- **Competitive Advantage**: Sub-10ms timing significantly outperforms existing solutions
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- **User Requirements**: Gaming and automation scenarios demand high precision
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- **Technical Feasibility**: Native frameworks and optimal implementation can achieve targets
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- **Resource Efficiency**: Minimal footprint enables background operation without system impact
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### Consequences
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**Positive:**
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- Clear competitive differentiation through superior performance
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- Excellent user experience across demanding use cases
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- Efficient resource usage enables true background operation
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- Technical excellence reputation and user satisfaction
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**Negative:**
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- Complex implementation requiring careful optimization
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- Extensive performance testing and validation requirements
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- Potential system limitations may affect achievability on older hardware

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