h-ALO | photonic system for Adaptable muLtiple-analyte monitoring of fOod-quality

Summary
h-ALO aims to develop and demonstrate in real-setting a new photonic-based sensor which will allow local food producers and retailers to control food quality and safety, therefore increasing competitiveness in the whole food production value chain.
The sensor will provide:
• Unprecedented high sensitivity, low limit-of-detection and large dynamic range compared to previously developed portable systems through the combination of an analyte pre-concentration and a multi-modal detection scheme;
• Miniaturization and integration of optoelectronic and plasmonic components allowing portability in optical detection;
• Multiplex-analyte recognition, allowing the unprecedented detection of both microbiological and chemical contaminants such as pesticides/antiparasitic, heavy metals, micro-organisms;
• Easy and fast sample preparation protocols which are adaptable for a wide range of food samples;
• Measurement automation and fast response, making the sensor reliable for on-site use by farmers, retailers and non-expert operators;
• Mobile-phone connectivity and cloud-based data management allowing a distributed, anonymous food monitoring along the farm-to-fork chain.
The innovative technologies at the basis of the h-ALO sensor are:
i) highly integrated organic/hybrid photonic components as light-source and photodetector;
ii) nanoplasmonic biofunctionalized surface assessing innovative multimodal optical transduction;
iii) innovative aptamer- and immunoassay-based bio-recognition elements for multiplexing;
iv) a smart microsieve membrane for analyte pre-concentration.
The h-ALO prototype will be validated in lab by quantitative comparison with benchmark commercially available methods and demonstrated on-site in small selected agri-food chains such as aquaponics, craft beer, raw milk and organic honey, and introduced into an HACCP manual.
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More information & hyperlinks
Web resources: https://cordis.europa.eu/project/id/101016706
Start date: 01-01-2021
End date: 30-06-2024
Total budget - Public funding: 4 239 432,00 Euro - 4 239 432,00 Euro
Cordis data

Original description

h-ALO aims to develop and demonstrate in real-setting a new photonic-based sensor which will allow local food producers and retailers to control food quality and safety, therefore increasing competitiveness in the whole food production value chain.
The sensor will provide:
• Unprecedented high sensitivity, low limit-of-detection and large dynamic range compared to previously developed portable systems through the combination of an analyte pre-concentration and a multi-modal detection scheme;
• Miniaturization and integration of optoelectronic and plasmonic components allowing portability in optical detection;
• Multiplex-analyte recognition, allowing the unprecedented detection of both microbiological and chemical contaminants such as pesticides/antiparasitic, heavy metals, micro-organisms;
• Easy and fast sample preparation protocols which are adaptable for a wide range of food samples;
• Measurement automation and fast response, making the sensor reliable for on-site use by farmers, retailers and non-expert operators;
• Mobile-phone connectivity and cloud-based data management allowing a distributed, anonymous food monitoring along the farm-to-fork chain.
The innovative technologies at the basis of the h-ALO sensor are:
i) highly integrated organic/hybrid photonic components as light-source and photodetector;
ii) nanoplasmonic biofunctionalized surface assessing innovative multimodal optical transduction;
iii) innovative aptamer- and immunoassay-based bio-recognition elements for multiplexing;
iv) a smart microsieve membrane for analyte pre-concentration.
The h-ALO prototype will be validated in lab by quantitative comparison with benchmark commercially available methods and demonstrated on-site in small selected agri-food chains such as aquaponics, craft beer, raw milk and organic honey, and introduced into an HACCP manual.

Status

SIGNED

Call topic

ICT-37-2020

Update Date

26-10-2022
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