๐Ÿ›ฃ๏ธ Landing board heatmap generation

๐Ÿ›ฃ๏ธ Landing board heatmap generation

๐ŸŽฏ Purpose

Generates visual heatmaps showing bee movement patterns and activity zones on the landing board to optimize hive entrance design and understand traffic flow.


๐ŸŽญ User Story

  • As a beekeeper interested in optimizing hive entrance efficiency
  • I want to see where bees spend most of their time on the landing board
  • So that I can identify traffic bottlenecks and potentially redesign the entrance for better bee flow

๐Ÿš€ Key Benefits

  • Traffic optimization: Identify congested areas and potential improvements
  • Entrance design insights: Data-driven approach to landing board modifications
  • Long-term behavior analysis: Understanding of seasonal and daily patterns
  • Research value: Visual data for studying bee traffic behavior

๐Ÿ”ง Technical Overview

Processes track history data from daily-rotated JSONL files (track_history_YYYY-MM-DD.jsonl) using NumPy to generate density maps. The heatmap_generator.py script aggregates bee position coordinates into a 2D heatmap array with frame dimensions (1280x720), normalizes the data, and applies color mapping for visualization.

๐Ÿ“‹ Acceptance Criteria

  • Processes track history from JSONL files with frame dimensions metadata
  • Generates heatmaps for 1280x720 frame resolution
  • Accumulates position data across multiple track files for temporal analysis
  • Applies Gaussian blur and color mapping for visual clarity
  • Exports heatmap images in standard image formats (PNG/JPG)
  • Handles coordinate bounds checking for frame boundaries
  • Supports batch processing of multiple days of data

๐Ÿšซ Out of Scope

  • Real-time heatmap generation (batch processing only)
  • 3D visualization or depth analysis
  • Weather correlation with traffic patterns
  • Automated landing board design recommendations

๐Ÿ—๏ธ Implementation Approach

  • Data Input: Track history JSONL files with coordinate arrays per track ID
  • Processing: NumPy array accumulation of position frequencies
  • Visualization: OpenCV and matplotlib for color mapping and blur effects
  • Storage: Frame dimensions extracted from metadata in JSONL files
  • Batch Processing: Command-line script for processing historical data

๐Ÿ“Š Success Metrics

  • Accurate coordinate processing within frame boundaries (0 <= x < width, 0 <= y < height)
  • Heatmap generation from multiple JSONL track files
  • Proper normalization and color mapping for visual interpretation
  • Batch processing capability for historical data analysis
  • File format compatibility for integration with web interfaces

๐Ÿ“š Resources & References

๐Ÿ’ฌ Notes

Actual implementation using NumPy for position aggregation and OpenCV for visualization. Processes real track history data saved by the telemetry system to generate traffic flow insights.