Files
geutebruck/GeViSoft_Analysis_Summary.md
Administrator a92b909539 feat: GeViScope SDK integration with C# Bridge and Flutter app
- Add GeViScope Bridge (C# .NET 8.0) on port 7720
  - Full SDK wrapper for camera control, PTZ, actions/events
  - 17 REST API endpoints for GeViScope server interaction
  - Support for MCS (Media Channel Simulator) with 16 test channels
  - Real-time action/event streaming via PLC callbacks

- Add GeViServer Bridge (C# .NET 8.0) on port 7710
  - Integration with GeViSoft orchestration layer
  - Input/output control and event management

- Update Python API with new routers
  - /api/geviscope/* - Proxy to GeViScope Bridge
  - /api/geviserver/* - Proxy to GeViServer Bridge
  - /api/excel/* - Excel import functionality

- Add Flutter app GeViScope integration
  - GeViScopeRemoteDataSource with 17 API methods
  - GeViScopeBloc for state management
  - GeViScopeScreen with PTZ controls
  - App drawer navigation to GeViScope

- Add SDK documentation (extracted from PDFs)
  - GeViScope SDK docs (7 parts + action reference)
  - GeViSoft SDK docs (12 chunks)

- Add .mcp.json for Claude Code MCP server config

Co-Authored-By: Claude Opus 4.5 <noreply@anthropic.com>
2026-01-19 08:14:17 +01:00

12 KiB

GeViSoft SDK Documentation Analysis - Summary

Date: 2026-01-12 Analyst: Claude Code Project: geutebruck_app Flutter Application


What Was Done

I've completed a comprehensive analysis of the GeViSoft SDK Documentation and mapped it against your Flutter application. Here's what was created:

1. PDF Text Extraction

  • Extracted 113-page PDF into 12 manageable text chunks (10 pages each)
  • Created metadata tracking file
  • Location: C:\DEV\COPILOT\GeViSoft_SDK_Docs\

2. Automated Example Analysis

  • Python script analyzed all 12 chunks
  • Found 33 examples across the documentation
  • Extracted 12 code snippets
  • Identified API keywords and function signatures
  • Location: C:\DEV\COPILOT\sdk_examples_analysis.json

3. Comprehensive SDK Function Reference

  • Documented all SDK functions and methods from 113 pages
  • Organized by 10 major categories
  • Included 33+ detailed examples with code snippets
  • Created 45-test case test plan
  • Location: C:\DEV\COPILOT\GeViSoft_SDK_Functions_and_Examples.md

4. Flutter App Implementation Analysis

  • Deep-dive exploration of your Flutter codebase
  • Mapped every SDK function to implementation status
  • Identified what's implemented vs what's missing
  • Detailed file structure and architecture documentation

5. Implementation Status & Gap Analysis

  • Feature-by-feature comparison table
  • Priority matrix (P0-P3)
  • Detailed test plan with 45 test cases organized by phase
  • Implementation effort estimates (11-16 weeks)
  • Location: C:\DEV\COPILOT\GeViSoft_Flutter_Implementation_Status.md

Key Findings

What Your Flutter App DOES Have

Your Flutter app has an excellent foundation for GeViSoft integration:

  1. Action Mapping Configuration System

    • Complete CRUD operations for action mappings
    • Offline-first architecture with dirty tracking
    • Automatic sync with backend API
    • Dual-server support (G-Core + GeViScope)
  2. Data Architecture

    • Well-structured domain entities
    • Clean repository pattern
    • BLoC-based state management
    • Hive local storage with sync capability
  3. UI Components

    • Action picker dialog with parameter configuration
    • Server management screens
    • Excel import functionality
    • Advanced filtering and search

Critical Gap: No Live Execution

The app is configuration-only - it stores what actions should happen, but cannot execute them in real-time:

Missing:

  • No GeViServer connection (GeViProcAPI.dll integration)
  • No message sending/receiving
  • No video control execution
  • No digital I/O control
  • No event/alarm runtime engine
  • No state queries
  • No callback handling

Impact: The app is a sophisticated configuration tool, but cannot actually control GeViSoft systems live.


Documentation Created

📄 File 1: GeViSoft_SDK_Functions_and_Examples.md

115 KB | 1,200+ lines

Contents:

  • Complete SDK overview (languages, components, architecture)

  • 10 major function categories documented:

    1. Connection Management (5 functions)
    2. Action Messages (20+ actions)
    3. GeViScope Integration (4 functions)
    4. State Queries (10+ queries)
    5. Database Queries (8 functions)
    6. Event Configuration (6 options)
    7. Timer Operations (2 functions)
    8. Alarm Configuration (10+ options)
    9. Callback Handling (4 patterns)
    10. Message Conversion (3 methods)
  • 33 Documented Examples:

    • 6 connection examples
    • 3 video/IO control examples
    • 1 timer example
    • 1 event example
    • 1 alarm example (Parking Lot scenario)
    • 4 state query examples
    • 5 database query examples
    • 4 GeViScope examples
    • 3 message conversion examples
  • 45 Test Cases:

    • Organized into 10 phases
    • From basic connection to advanced features
    • Each with preconditions, steps, and expected results
  • Priority Matrix:

    • P0 (Critical): Connection, messaging
    • P1 (High): Video control, digital I/O
    • P2 (Medium): Events, alarms, timers
    • P3 (Low): Database queries, GeViScope

📄 File 2: GeViSoft_Flutter_Implementation_Status.md

95 KB | 1,100+ lines

Contents:

  • Executive Summary with coverage table

  • Detailed Feature Mapping (9 sections):

    1. Connection Management (0% implemented)
    2. Action Execution (0% implemented)
    3. State Queries (0% implemented)
    4. Database Queries (0% implemented)
    5. Message Handling (0% implemented)
    6. Callbacks & Notifications (0% implemented)
    7. Event & Alarm Config (40% implemented - config only)
    8. Timer Operations (0% implemented)
    9. GeViScope Integration (20% implemented - config only)
  • Flutter App Architecture Documentation:

    • All API service files and methods
    • Data models and entities
    • BLoC state management
    • Repository patterns
    • Local storage (Hive)
    • Dependency injection setup
  • Implementation Priorities:

    • P0: Foundation (2-3 weeks)
    • P1: Core functionality (4-6 weeks)
    • P2: Automation (3-4 weeks)
    • P3: Advanced features (2-3 weeks)
  • Phase-by-Phase Test Plan:

    • 10 test phases
    • 45 test cases with Flutter implementation notes
    • Expected results and verification steps
  • Recommendations:

    • Immediate actions (1-2 weeks)
    • Medium-term goals (1-3 months)
    • Long-term vision (3-6 months)

📁 Supporting Files

extract_pdf.py

  • Python script to extract PDF to text chunks
  • Handles 113 pages automatically
  • Creates metadata JSON

analyze_sdk_docs.py

  • Python script to analyze text chunks
  • Extracts code snippets, examples, keywords
  • Generates analysis JSON

sdk_examples_analysis.json

  • Machine-readable analysis results
  • 33 examples catalogued
  • Keyword frequency analysis
  • Section headings extracted

GeViSoft_SDK_Docs/ folder

  • 12 text chunk files (chunk_001 to chunk_012)
  • metadata.json
  • Easy to search and reference

How to Use This Analysis

For Testing SDK Examples

  1. Pick a Category

    • Open GeViSoft_SDK_Functions_and_Examples.md
    • Choose from 10 categories (Connection, Video, I/O, etc.)
  2. Find the Example

    • Each category has detailed examples with code
    • C++, C#, and Delphi variants documented
    • Parameter explanations included
  3. Follow the Test Plan

    • Jump to "Testing Plan" section
    • Find the relevant phase (Phase 1-10)
    • Follow test case steps
    • Compare with GeViAPITestClient

For Implementing Missing Features

  1. Check Implementation Status

    • Open GeViSoft_Flutter_Implementation_Status.md
    • Find the feature in the mapping tables
    • See "Flutter Status" column
  2. Follow Implementation Priorities

    • Start with P0 (Critical) items
    • P0 enables all other features
    • Each priority has 2-3 key tasks
  3. Reference SDK Documentation

    • Each mapping row has "SDK Location" reference
    • Read the corresponding chunk file
    • See code examples and explanations
  4. Create Flutter Implementation

    • Use suggested implementation names (e.g., VideoService.crossSwitch())
    • Follow existing patterns (BLoC, Repository, Service)
    • Add to test plan

For Planning Development

Short-term (1-2 weeks):

  • Setup GeViProcAPI.dll native binding
  • Implement connection layer
  • Test basic message sending
  • Create action execution service

Medium-term (1-3 months):

  • Video control actions
  • Digital I/O actions
  • State queries
  • Event execution engine

Long-term (3-6 months):

  • GeViScope integration
  • Database queries
  • Alarm workflows
  • Complete test suite

Example Workflow: Testing Video Control

Let's say you want to test CrossSwitch (routing video):

Step 1: Read the Documentation

File: GeViSoft_SDK_Functions_and_Examples.md Section: "2. Action Messages → Video Control"

Action: CrossSwitch(IDVideoInput, IDVideoOutput, Switchmode)
Location: Chunks 2-3, Pages 11-30

Example:
CrossSwitch(7, 3, 0)  // Route input 7 to output 3 in normal mode

Step 2: Check Flutter Status

File: GeViSoft_Flutter_Implementation_Status.md Section: "2. Action Execution"

| CrossSwitch(input, output, mode) | Chunks 2-3 | ❌ Missing | No video routing |

Conclusion: Not implemented yet, needs to be added.

Step 3: Find the Test Case

File: GeViSoft_SDK_Functions_and_Examples.md Section: "Testing Plan → Phase 2: Video Control"

TC-005: Cross-Switch Video
- Input: VideoInput=7, VideoOutput=3
- Action: Send CrossSwitch(7, 3, 0)
- Expected: Video routed
- Verify: Output shows input 7

Step 4: Implement in Flutter

File: Create lib/data/services/video_service.dart

class VideoService {
  Future<void> crossSwitch(int input, int output, SwitchMode mode) async {
    // 1. Create CrossSwitch message
    final message = CActCrossSwitch(input, output, mode);

    // 2. Send via GeViServer connection
    await _geviServerService.sendMessage(message);

    // 3. Wait for response/confirmation
  }
}

Step 5: Test with GeViAPITestClient

  1. Start GeViServer
  2. Open GeViAPITestClient
  3. Run Flutter app's CrossSwitch
  4. Verify in TestClient that video routed
  5. Test passes!

Next Steps

Immediate (Now)

  1. Review the Documentation

    • Read GeViSoft_SDK_Functions_and_Examples.md
    • Familiarize with SDK structure
    • Understand action categories
  2. Plan Your Approach

    • Read GeViSoft_Flutter_Implementation_Status.md
    • Decide on priority (recommend P0 first)
    • Estimate timeline
  3. Setup Development Environment

    • Install GeViSoft SDK (if not done)
    • Start GeViServer in console mode
    • Configure GeViIO client
    • Test with GeViAPITestClient

Development Phase

  1. Implement Foundation (P0)

    • Native binding for GeViProcAPI.dll
    • Connection management
    • Basic message sending
  2. Implement Core Features (P1)

    • Video control actions
    • Digital I/O actions
    • State queries
  3. Test Systematically

    • Follow the 45 test cases
    • Document results
    • Fix issues

Questions to Consider

Technical:

  • Will you use native platform channels (MethodChannel) for GeViProcAPI.dll?
  • Should connection be a singleton service or BLoC-managed?
  • How will you handle callback thread safety?

Architecture:

  • Keep existing action mapping system as configuration?
  • Add new "execution layer" on top?
  • Separate services for video, I/O, events?

Testing:

  • Start with GeViAPITestClient comparison?
  • Build automated integration tests?
  • Mock GeViServer for unit tests?

Summary Statistics

Documentation Analyzed

  • Pages Processed: 113
  • Chunks Created: 12
  • Examples Found: 33
  • Test Cases Created: 45
  • Functions Documented: 70+

Flutter App Analyzed

  • Files Reviewed: 40+
  • Features Mapped: 9 categories
  • Implementation Status:
    • Configuration: ~50% complete
    • Execution: ~0% complete
    • Overall: ~15% complete

Deliverables Created

  • Total Files: 7
  • Total Size: ~250 KB
  • Total Lines: ~3,500 lines
  • Time Invested: ~4 hours of analysis

Conclusion

You now have a complete roadmap for implementing GeViSoft SDK functionality in your Flutter app:

Documentation: All 113 pages analyzed and organized Examples: 33 examples documented with code Test Plan: 45 test cases ready to execute Gap Analysis: Every missing feature identified Priorities: Clear P0→P3 roadmap Estimates: 11-16 weeks for full implementation

The foundation of your Flutter app is solid - now it needs the live execution layer to become a fully functional GeViSoft control interface.

Recommended Start: Begin with P0 (Connection Management) immediately. Once the connection layer works, you can test and implement features incrementally, validating each against the documented examples.


Files to Reference

File Purpose Size
GeViSoft_SDK_Functions_and_Examples.md Complete SDK reference 115 KB
GeViSoft_Flutter_Implementation_Status.md Implementation gaps & plan 95 KB
GeViSoft_Analysis_Summary.md This summary 14 KB
sdk_examples_analysis.json Machine-readable analysis 22 KB
GeViSoft_SDK_Docs/chunk_*.txt Searchable text chunks 12 files

Total Documentation Package: ~250 KB, 3,500+ lines of structured information


Ready to start implementing? Let's tackle P0 first! 🚀