Update README with climate-anomalies-roye example

Add detailed example of climate-anomalies-roye skill created by agent-creator.
Includes complete 5-phase breakdown, statistics, and usage examples.

🤖 Generated with [Claude Code](https://claude.com/claude-code)

Co-Authored-By: Claude <noreply@anthropic.com>
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Francy Lisboa 2025-10-18 12:09:55 -03:00
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README.md
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@ -321,93 +321,126 @@ Phase 3-5: Implement everything
---
### Example 3: Climate (Real Case from Today!)
### Example 3: Climate Anomalies - Dominic Royé Style (Real Case from Today!)
**👤 Input:**
```
"Create agent for climate analysis of Sorriso, Mato Grosso.
Need to analyze temperature and precipitation, historical trends."
"Create automated workflow for climate anomaly analysis following Dominic Royé methodology.
Same procedure, always, for anywhere in the world, finding updated raw data,
processing exactly as in the tutorial, and generating the same chart (same colors,
same quadrants, same logic)."
```
**🤖 Claude executed (5 autonomous phases):**
```
🔍 PHASE 1: Climate API Research
Researched: INMET, Open-Meteo, OpenWeather, Visual Crossing
Compared: Coverage, cost, historical data
✓ DECIDED: Open-Meteo Historical Weather API
• Free (no API key!)
• Data since 1940 (84+ years)
• ERA5 reanalysis (high quality)
• REST API (easy integration)
Researched: Meteostat, Open-Meteo, ERA5, NOAA, Weather.gov
Compared: Coverage, cost, historical data, quality
✓ DECIDED: Multi-API Strategy
• Primary: Meteostat (observational data)
• Fallback: Open-Meteo (ERA5 reanalysis, global coverage)
• Automatic failover for maximum reliability
🎨 PHASE 2: Analysis Design
Brainstorm: 15 typical questions
✓ DEFINED: 6 main analyses
1. Basic time series
2. Temporal comparison (YoY)
3. Trend analysis (CAGR, regression)
4. Anomaly detection (Z-score)
5. Seasonal analysis (monthly climatology)
6. Descriptive statistics
Based on Dominic Royé methodology:
✓ DEFINED: Climate Anomaly Scatter Plot
• Axis X: Precipitation anomaly (%)
• Axis Y: Temperature anomaly (°C)
• 4 colored quadrants (wet-warm, dry-warm, wet-cold, dry-cold)
• Seasonal analysis (DJF, MAM, JJA, SON)
• Climate normal baseline (1991-2020 or 1981-2010)
• Labeled extreme years with auto-repulsion
🏗️ PHASE 3: Architecture
✓ STRUCTURED:
✓ STRUCTURED (modular design):
scripts/
- fetch_climate.py (320 lines)
- parse_climate.py (180 lines)
- analyze_climate.py (420 lines)
- climate_anomalies.py (580 lines) - Integrated pipeline
- fetch_climate.py (480 lines) - Multi-API client
- parse_climate.py (370 lines) - Seasonal aggregation
- plot_anomalies.py (350 lines) - Dominic Royé visualization
utils/
- cache_manager.py (350 lines)
- validators.py (450 lines)
- statistics.py (350 lines)
✓ Cache: Historical permanent, current year 24h
✓ Validations: Ranges, physical consistency, continuity
- api_factory.py (210 lines) - Factory pattern
- cache_manager.py (260 lines) - Smart cache (TTL by year)
- validators.py (200 lines) - Blocking validations
- context_validators.py (311 lines) - Context warnings
✓ Cache: Historical permanent, previous year 30d, current 24h
✓ Validations: 16 types (8 blocking + 8 contextual)
🎯 PHASE 4: Automatic Detection
✓ KEYWORDS: Sorriso, temperature, precipitation, rain, climate,
trend, historical, anomaly, compare
✓ DESCRIPTION: 200 words optimized
✓ KEYWORDS: Dominic Royé, climate anomalies, quadrants,
DJF MAM JJA SON, temperature precipitation,
wet-warm dry-warm wet-cold dry-cold
✓ DESCRIPTION: Optimized for multi-language detection
⚙️ PHASE 5: Complete Implementation
✓ .claude-plugin/marketplace.json
✓ SKILL.md (6,800 words)
✓ Python scripts (2,070 lines)
✓ References (1,500 words)
✓ Configs (config.json, metadata.json)
✓ README.md + DECISIONS.md
✓ .claude-plugin/marketplace.json (validated)
✓ SKILL.md (7,000 words)
✓ Python scripts (2,761 lines)
✓ References (8,000 words)
- roye-methodology.md
- meteostat-guide.md
- open-meteo-guide.md
- troubleshooting.md
✓ Exact colors: #F7A699, #C23B33, #2C6CB0, #D4E3F3
✓ Labeled points = HOLLOW circles (confirmed by reference image)
✓ README.md + CORRECTIONS.md + EXAMPLES.md
✅ AGENT CREATED: ./climate-analysis-sorriso-mt/
✅ AGENT CREATED: ./climate-anomalies-roye/
```
**📊 Statistics:**
- **Code:** 2,070 lines of Python
- **Documentation:** 13,600 words
- **Files:** 16 main files
- **Code:** 2,761 lines of Python (10 scripts)
- **Documentation:** 20,000+ words (12 files)
- **Files:** 24 main files
- **Time:** ~90 minutes of autonomous creation
- **Corrections:** 3 critical fixes applied (v1.0.1)
**🎨 Visual Output:**
Generates scatter plots identical to Dominic Royé's methodology:
- Temperature anomaly vs Precipitation anomaly
- 4 colored quadrants (exact hex colors)
- Labeled extreme years (hollow circles)
- High quality: 11×8 inches, 130 DPI
**💻 Installation of created agent:**
```bash
# In terminal
cd climate-analysis-sorriso-mt
cd climate-anomalies-roye
pip install -r requirements.txt
# In Claude Code
/plugin marketplace add ./climate-analysis-sorriso-mt
/plugin marketplace add ./climate-anomalies-roye
```
**🎯 Using the created agent:**
```
👤 "What's the average temperature in Sorriso over the last 10 years?"
👤 "Climate anomalies for Buenos Aires, summer season DJF"
🤖 [Skill activates automatically]
[Fetches data from API]
[Analyzes and responds]
[Fetches data: Meteostat or Open-Meteo]
[Processes: seasonal aggregation, anomaly calculation]
[Validates: PHASE 2.5 - comprehensive context report]
[Generates: PNG chart in Dominic Royé style]
[Returns: Chart + interpretation with context]
👤 "Rain trend in Sorriso since 1990"
🤖 [34-year trend analysis]
[Returns rate of change, significance, projection]
👤 "Anomalies for Paris, winter DJF, baseline 1981-2010"
🤖 [Complete analysis with custom normal period]
[Chart shows extreme years labeled]
Output files generated:
• data/raw/location_daily.csv (raw data, for audit)
• data/processed/location_season_normal.csv (climatology + anomalies)
• data/out/location_season_normal.png (Dominic Royé chart) ✨
```
**🛡️ Quality Guarantees:**
- ✅ Multi-API with automatic fallback
- ✅ 16 validation layers (blocking + contextual)
- ✅ Users NEVER receive data without adequate context
- ✅ Automatic detection of climate change trends
- ✅ 100% reproducible (same inputs → same outputs)
- ✅ Auditable (raw data saved for verification)
---
## 🔄 How It Works: The 5 Autonomous Phases