Energy harvesting uses ‘ambient’ energy from the environment such as heat, light or movement to supply ultra power electronic IoT devices. Typically used in conjunction with another power source to extend battery life and in many cases can enable the IoT device to be powered indefinitely.
Piezoelectric (Tyndall) |
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Piezo-electric MEMS devices design, fabrication and characterisation facilities |
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Electromagnetic (Tyndall) |
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Electromagnetic vibration and hybrid platforms |
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Thermoelectric (Tyndall) |
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Thermoelectric materials and devices & characterisation setup |
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Characterisation (CEA-Liten) |
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Bulk or thin-film thermoelectric harvester advanced characterisation setup |
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Modelling (CEA-Liten) |
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Thermoelectric material modelling and screening, harvester design and numerical simulation suite |
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Recording (FhG-IIS) |
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Recording of EH sources and EH systems in application environment |
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Design and characterisation (FhG-IIS) |
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Design and characterisation of energy harvesting systems |
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Thermoelectric (FhG-IMS) |
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Thermoelectric generator testbed |
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PV (FhG-IMS) |
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Photovoltaic harvesters design and processing |
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RF (FhG-IMS) |
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RF harvesting design and processing |
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RF Power Transfer (imec) |
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RF power transfer solutions |
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Databases (Virtual Access) |
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Energy harvesting and real vibration data |
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