Deep learning-based pollen imaging using a raspberry Pi and LED
Deep learning-based pollen imaging using a raspberry Pi and LED
Developing an affordable, compact imaging sensor could significantly enhance global airborne pollen monitoring and alleviate hay fever symptoms. By using a white light LED to illuminate pollen grains and capturing their scattering patterns with a Raspberry Pi camera, we can transform these patterns into detailed images through deep learning techniques. Our method successfully generates images of pollen from plant species not included in the neural network's training data. This technique could also be applied to imaging fungal spores and airborne particulates that contribute to air pollution, offering valuable insights in environmental science, health science, and agriculture. Furthermore, it could help develop more efficient air quality monitoring systems and support research on the effects of airborne particles on human health and crop productivity. By providing detailed images and data on various airborne particulates, this approach can enhance our understanding of how these particles interact with the environment and affect respiratory health, allergies, and diseases. Additionally, it can contribute to agricultural research by examining the impact of pollen and other particulates on crop growth and yield, ultimately aiding in the development of strategies to improve air quality and agricultural productivity.
Grant-Jacob, James A.
c5d144d8-3c43-4195-8e80-edd96bfda91b
Grant-Jacob, James A.
c5d144d8-3c43-4195-8e80-edd96bfda91b
Grant-Jacob, James A.
(2025)
Deep learning-based pollen imaging using a raspberry Pi and LED.
Southampton Imaging Conference | Light on Life, Avenue Campus, Southampton, United Kingdom.
(Submitted)
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Conference or Workshop Item
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Abstract
Developing an affordable, compact imaging sensor could significantly enhance global airborne pollen monitoring and alleviate hay fever symptoms. By using a white light LED to illuminate pollen grains and capturing their scattering patterns with a Raspberry Pi camera, we can transform these patterns into detailed images through deep learning techniques. Our method successfully generates images of pollen from plant species not included in the neural network's training data. This technique could also be applied to imaging fungal spores and airborne particulates that contribute to air pollution, offering valuable insights in environmental science, health science, and agriculture. Furthermore, it could help develop more efficient air quality monitoring systems and support research on the effects of airborne particles on human health and crop productivity. By providing detailed images and data on various airborne particulates, this approach can enhance our understanding of how these particles interact with the environment and affect respiratory health, allergies, and diseases. Additionally, it can contribute to agricultural research by examining the impact of pollen and other particulates on crop growth and yield, ultimately aiding in the development of strategies to improve air quality and agricultural productivity.
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Submitted date: 2025
Venue - Dates:
Southampton Imaging Conference | Light on Life, Avenue Campus, Southampton, United Kingdom, 2025-06-18
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Local EPrints ID: 502264
URI: http://eprints.soton.ac.uk/id/eprint/502264
PURE UUID: 7ddf2312-d7ea-4cd9-b344-57e96773518b
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Date deposited: 19 Jun 2025 16:56
Last modified: 20 Jun 2025 01:44
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Author:
James A. Grant-Jacob
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