This repository hosts the official research and computational framework for the Plant-to-Human Translation Model. While plants cannot speak verbally, they communicate internally and externally via root networks, hormonal spikes, and micro-electrical action potentials. This project leverages advanced bio-sensors to capture these raw electrical signals and uses deep learning time-series architectures to decode and translate them into actionable, human-readable notifications—revolutionizing precision agriculture and plant science.
When a plant experiences pest attacks, dehydration, or nutrient deficiencies, it sends systemic electrical warning signals across its leaves and stem. This project bridges the gap between botany and AI:
- Signal Capture: Hardware interface presets to log bio-electrical action potentials via non-invasive surface electrodes.
- Neural Translation: Processing irregular, noisy voltage time-series data using Convolutional Neural Networks (CNNs) and Sequence-to-Sequence Transformers.
- Actionable Telemetry: Translating complex signal spikes into text logs like "Nitrogen deficiency detected" or "Fungal attack warning within 2 hours".
- Bio-Signal Preprocessing Grid: Filters for ambient electromagnetic noise, baseline wander removal, and spike detection algorithms.
- Time-Series Transformer: Custom network architecture optimized to detect long-range dependencies in continuous biological voltage data.
- Cross-Domain Adaptation: Feature-mapping layers that correlate specific electrical waveform signatures with real-world botanical stresses (drought, pests, thermal shock).
- Mobile Alert Edge Interface: Lightened model export formats (ONNX, TFLite) for real-time edge computing on IoT agricultural nodes.
├── src/
│ ├── signal_processing/ # Noise filtering, wavelet transforms, and normalization
│ ├── models/ # Time-series Transformers and Bio-Signal RNNs/CNNs
│ ├── translation/ # Vocabulary mapping and generative alert logic
│ └── inference/ # Edge deployment optimization (ONNX/TFLite wrappers)
├── data/ # Open-source plant electrophysiology benchmark schemas
├── hardware/ # Electrode placement guides, schematics, and Arduino/RaspberryPi logs
├── notebooks/ # Waveform visualizations and stress-correlation heatmaps
├── Literature_Review/ # Team research matrices and BibTeX reference files
└── README.md