- restore insights
- kor2Unity Technical Implementation Details & Pitfalls Analysis
- π¨ Critical Implementation Gaps Identified
- π§ Terminal & Interface Infrastructure
- π΅ Voice TTS Training Infrastructure
- π Dependency Hell & Library Management
- π₯οΈ Hardware & Resource Constraints
- π Systematic Implementation Review
- π Detailed Investigation Plan
- π οΈ Immediate Actions Required
- π‘ Production-Ready Reality Check
- π― Next Steps: One by One
restore insights
- Immediate Actions Audit WSL environment before proceeding Check if TUI and AI models are still operational Map existing services to Docker restoration plan
- Integration Strategy Donβt rebuild - integrate and recover Bridge Docker + WSL environments Preserve operational components
- Updated Success Metrics Phase 2: Environment integration + 13/18 containers Phase 3: Voice platform restoration + Unity integration Ultimate: 18/18 containers + end-to-end Korean learning
Done with ai annotation to restore from scratch
π°π· kor2Unity System Status Dashboard
============================================================
π Service Status:
----------------------------------------
β
MongoDB (:8202)
β Ollama Container (:8203)
β Self-hosted API (:8204)
β Legacy API (:8201)
β PowerShell Ollama (:11434)
π Process Status:
----------------------------------------
β Korean Learning TUI | Method: none
β Self-hosted LLM API | Process: stopped
π Environment Status:
----------------------------------------
β
Conda Environment | minigpt4
β‘ GPU Status | 0% util, 0/6141MB
π― Quick Actions:
----------------------------------------
π± Connect to TUI: tmux attach-session -t kor2unity-tui
π Restart TUI: tmux kill-session -t kor2unity-tui && python launch_tui.py
π API Documentation: http://localhost:8204/docs (Self-hosted)
π Legacy API Docs: http://localhost:8201/docs
π§ͺ Test System: python test_kor2unity_api.py
β οΈ Overall System Status: Some issues detected
============================================================
kor2Unity Technical Implementation Details & Pitfalls Analysis
Date: October 6, 2025
Focus: Deep technical implementation details, infrastructure dependencies, and lessons learned
Purpose: Address real-world restoration challenges beyond high-level architecture
π¨ Critical Implementation Gaps Identified
What High-Level Analysis Missed:
- Terminal/UI Configuration: Airline fonts, vim interfaces, TUI customization
- Development Environment: Debugging interfaces, logging systems
- Voice Training Infrastructure: Custom TTS model training, voice Q&A systems
- Dependency Management: Broken links, deprecated libraries, version conflicts
- Hardware Dependencies: GPU requirements, memory limitations, compatibility issues
- Open-source Ecosystem: Library availability, maintenance status, alternative solutions
π§ Terminal & Interface Infrastructure
TUI Configuration Details
Let me examine what terminal/TUI configurations youβve built:
# Check for terminal configuration files
find /home/hsyyu -name ".bashrc" -o -name ".zshrc" -o -name ".tmux.conf" -o -name ".vimrc"
# Look for powerline/airline configurations
find /home/hsyyu -path "*/.config/*" -name "*airline*" -o -name "*powerline*"
# Check tmux session configurations
tmux list-sessions 2>/dev/null || echo "No tmux sessions"
Questions for Deep Analysis:
- Terminal Setup: What specific airline fonts and powerline configurations?
- Vim Interface: Custom vim configurations for logging/debugging?
- TUI Framework: Which TUI library (Rich, Textual, curses) and customizations?
- Tmux Configuration: Custom key bindings, panes, session management?
π΅ Voice TTS Training Infrastructure
Custom Voice Training Pipeline
This is where production-readiness gets complex:
# Check for voice training infrastructure
find /home/hsyyu -name "*voice*" -type d
find /home/hsyyu -name "*tts*" -type d
find /home/hsyyu -name "*coqui*" -type d
find /home/hsyyu -name "*.wav" -o -name "*.mp3" | head -10
Known TTS Training Challenges:
- Dataset Requirements: High-quality Korean voice samples
- Model Training: GPU memory requirements (often 8GB+ VRAM)
- Coqui TTS Dependencies: Specific Python versions, CUDA compatibility
- Voice Cloning: Few-shot vs zero-shot training infrastructure
- Quality Assessment: Voice similarity metrics, pronunciation accuracy
Questions for Implementation:
- Voice Dataset: What Korean voice samples were collected?
- Training Hardware: GPU specifications and memory requirements?
- Coqui Version: Which Coqui-TTS version and dependencies?
- Training Scripts: Custom training pipelines and configurations?
π Dependency Hell & Library Management
Common Open-Source Pitfalls:
Broken Dependencies:
# Check for broken pip installations
pip list --outdated
pip check
# Check conda environment issues
conda list --show-channel-urls
conda env export > environment_backup.yml
Version Conflicts:
- PyTorch + CUDA: Specific version compatibility matrix
- Transformers: Hugging Face library version conflicts
- TensorFlow vs PyTorch: Model format incompatibilities
- Python Version: 3.8 vs 3.9 vs 3.10 compatibility issues
Deprecated Libraries:
- Fairseq: Maintenance status questionable
- ESPnet: Version migration challenges
- Old TTS Libraries: Tacotron, WaveGlow deprecation
Questions for Audit:
- Which specific libraries are broken/deprecated?
- What version pinning strategy was used?
- Are there alternative libraries for critical dependencies?
- Whatβs the fallback plan for deprecated components?
π₯οΈ Hardware & Resource Constraints
GPU Requirements Analysis:
# Check current GPU status
nvidia-smi 2>/dev/null || echo "No NVIDIA GPU detected"
lspci | grep -i vga
# Check memory constraints
free -h
df -h
Resource Bottlenecks:
- VRAM Requirements:
- Llama 2 7B: ~14GB VRAM (half-precision)
- Voice training: 8-16GB VRAM
- Simultaneous models: Memory conflicts
- Storage Requirements:
- Models: 50-100GB+ (Llama + voice models)
- Datasets: 10-50GB Korean voice data
- Docker images: 20-30GB containerized services
- CPU Constraints:
- Real-time TTS inference
- Multiple container orchestration
- Development environment overhead
π Systematic Implementation Review
Let me go through each component systematically:
1. Terminal Configuration Investigation
# Examine terminal setup
cat ~/.bashrc | grep -E "(alias|export|function)"
cat ~/.tmux.conf | head -20
ls -la ~/.config/ | grep -E "(nvim|vim|powerline|airline)"
2. Voice Infrastructure Audit
# Check voice training setup
ls -la /home/hsyyu/repo/kor2unity/ | grep -i voice
find /home/hsyyu -name "*.py" | xargs grep -l "coqui\|tts\|voice" | head -5
3. Dependency Status Check
# Audit conda environment
conda activate minigpt4
conda list | grep -E "(torch|transformers|coqui|tts)"
pip freeze | grep -E "(fairseq|espnet|tacotron)"
π Detailed Investigation Plan
Phase 1: Terminal & Development Environment
- Document exact airline font configurations
- Export vim/nvim configurations
- Backup tmux session configurations
- Identify custom key bindings and shortcuts
- Document debugging interface setups
Phase 2: Voice Training Infrastructure
- Audit voice dataset collection methods
- Document TTS model training scripts
- Check Coqui-TTS installation and dependencies
- Identify voice quality assessment tools
- Document custom voice cloning procedures
Phase 3: Dependency Management
- Create comprehensive requirements.txt with version pins
- Identify deprecated libraries and alternatives
- Document workarounds for broken dependencies
- Create fallback installation procedures
- Test dependency installation from scratch
Phase 4: Hardware Optimization
- Document GPU memory optimization strategies
- Create resource monitoring dashboards
- Implement model loading/unloading procedures
- Document performance tuning configurations
π οΈ Immediate Actions Required
1. Environment Audit Commands
Let me run these systematically to understand your actual setup:
# Terminal configuration
wsl
cat ~/.bashrc
cat ~/.tmux.conf
ls ~/.config/
# Development environment
which vim && vim --version
which nvim && nvim --version
ls -la ~/.vim* ~/.config/nvim*
# Voice infrastructure
ls -la /home/hsyyu/repo/kor2unity/
find . -name "*voice*" -o -name "*tts*"
2. Dependency Check
# Python environment status
conda activate minigpt4
python --version
pip freeze > current_environment.txt
conda list > conda_environment.txt
3. Resource Assessment
# Hardware status
nvidia-smi
free -h
df -h /home/hsyyu/
π‘ Production-Ready Reality Check
Youβre absolutely right about production-readiness challenges:
Common Pitfalls We Need to Address:
- Library Decay: Open-source projects become unmaintained
- Version Hell: Dependency conflicts across major updates
- Hardware Evolution: CUDA versions, driver compatibility
- Dataset Issues: Links break, datasets become unavailable
- Model Format Changes: PyTorch vs TensorFlow vs ONNX migrations
Systematic Approach:
- Document Everything: Exact versions, configurations, workarounds
- Create Fallbacks: Alternative libraries, local mirrors
- Version Pinning: Lock all dependencies to working versions
- Testing Pipeline: Verify installations from scratch
- Documentation: Step-by-step reproduction guides
π― Next Steps: One by One
Letβs start with one specific area. Which would you like to tackle first?
Option 1: Terminal & TUI Configuration
- Examine your airline font setup
- Document vim/debugging interfaces
- Backup tmux configurations
Option 2: Voice TTS Infrastructure
- Audit Coqui-TTS installation
- Check voice training datasets
- Document custom voice cloning setup
Option 3: Dependency Management
- Audit broken/deprecated libraries
- Create comprehensive requirements
- Test clean installation procedures
Option 4: Hardware Optimization
- GPU memory profiling
- Resource constraint analysis
- Performance optimization strategies
Which area should we deep-dive into first? Letβs take the systematic, detailed approach you need for actual production readiness.
Generated: October 6, 2025
Purpose: Address real-world implementation challenges beyond architectural overview
Next: User-directed deep dive into specific technical area
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