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Efficient Detection of Microplastics on Edge Devices With Tailored Compiler for TinyML Applications
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Two AI models (MLP and GRU) were designed for microplastic detection in water from scattered optical signals and optimized via neural architecture search, then compiled with a custom TinyML compiler for deployment on resource-constrained edge devices—enabling low-power, distributed microplastic monitoring.
The current study aims to train and benchmark AI models tailored for the detection of microplastic in water from scattered signals. We trained two different models, the first based on a Multi-Layer Perceptron (MLP) and the second on a Gated Recurrent Unit (GRU). A Neural Architecture Search algorithm was used to determine the optimal configuration for each of the two models. Moreover, for deployment on edge devices, a specific custom-made compiler was designed and used. The compiler is specifically designed for TinyML applications and, therefore, for resource-constrained devices. It bypasses traditional inference engines, compiling the NNs to native C code using only standard C libraries. Our approach demonstrated better performance compared to state-of-the-art frameworks such as ONNX Runtime, achieving better latency, memory usage, energy consumption, and a higher portability. This highlights the potential of our method for efficient and effective microplastic detection in environmental monitoring.
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Hybrid TinyML Sensor Detection for Microplastics
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A low-cost embedded system using an ESP32 microcontroller, LED light source, and light-dependent resistor combined with TinyML models successfully identified polyethylene and polypropylene microplastics in liquid samples through optical light-intensity variation. This portable, field-deployable sensor design represents a significant step toward accessible microplastic monitoring outside specialized laboratory settings.
Proof of Concept: A TinyML-Based Image Classifier for Detecting Microplastics and Waste in Simulated Marine Environments
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Researchers developed a proof-of-concept image classifier using Tiny Machine Learning (TinyML) implemented on an ESP32-CAM module to detect microplastics and cardboard waste in simulated marine environments, training a MobileNetV1-based transfer learning model on 229 images with 96x96 pixel scaling and normalization for low-cost autonomous monitoring applications.
Automated Microplastic Detection in Environmental Samples Using YOLOv8 Nano: A Lightweight Approach for Edge Deploymen
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Researchers trained the lightweight YOLOv8 Nano model on over 3,200 environmental images to detect microplastics automatically, achieving 84% precision and exporting the model to TensorFlow Lite format for deployment on mobile and embedded devices in resource-constrained field settings.
Automated Microplastic Detection in Environmental Samples Using YOLOv8 Nano: A Lightweight Approach for Edge Deploymen
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Researchers trained the lightweight YOLOv8 Nano model on over 3,200 environmental images to detect microplastics automatically, achieving 84% precision and exporting the model to TensorFlow Lite format for deployment on mobile and embedded devices in resource-constrained field settings.
Detecting Microplastics in Seawater with a Novel Optical Sensor Based on Artificial Intelligence Models
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Detecting microplastics in seawater quickly and accurately is a major technical challenge, and this study developed a novel optical sensor that uses artificial intelligence to identify plastic particles from light-scattering data in real time. The AI-powered system was tested on seawater samples and showed promising accuracy for classifying microplastic types without the need for time-consuming laboratory processing. Automated in-situ sensors like this could enable continuous, large-scale ocean monitoring for microplastic pollution.
Research digests by email
When a large batch of papers lands in the Atlas, we read through it and send a short write-up of what stood out.