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SRL Level
The Albanian coastline has been declining in recent years due to coastal erosion and uncontrolled...
Soil moisture is an important factor in precision agriculture for enabling flexible and smart irrigation strategies. Measuring soil moisture at 30-100 cm depth through devices connected to the Internet provides a centralized view of the crop status and the overall irrigation system. However, the cost of underground sensors and their connectivity is still limiting the applicability of the smart irrigation concept.
Developed by IDESIO
Mole is based on a new sensor concept. The device consists of an underground LoRa transceiver which transmits radiowaves to a buried collector. From measurements of the electromagnetic loss, soil moisture estimates can be retrieved if soil type/texture is well known. The transceiver also embeds the communication capability: a concentrator, located onboard a UAV, will connect to the Internet. The cost of the solution is in the order of 10-30% wrt traditional
approaches.
See more information about this level and the TRL and SRL levels.
It is known that radiowaves (below 1 GHz) can propagate underground with a loss rate that depends on the soil type and moisture content. LoRa is a novel wireless technology for the IoT (Internet of Things) even much more robust to power losses than its predecessors. It is expected that LoRa waves can travel underground up to about 10-20 m. Two radio transceivers can exchange signals and make possible to provide indirect estimates of soil moisture content without the need for an ad hoc sensor. The soil moisture value is computed locally and then transmitted by the receiving node to a surface gateway. The latter will forward data to the Internet through, for example, a UAV repeater which is flying above the area.
Limitations/conditions under which this innovation does not work or is less effective
The basic issue is the heterogeneity or macro-heterogeneity of the terrain because indirect measurements of the soil moisture depend on soil texture and homogeneous conditions. As consequence, the possible presence of major obstacles or special features (e.g. stones, whose size is larger than 30 cm in diameter) might generate deviations between the actual and estimated soil moisture values. The accuracy of the system and potential deviations need to be quantified through some test campaigns.
Added value
Cost is reduced by a factor of about 80% with respect to traditional solutions that require the installation of the sensor onboard a mobile device (eg. UAV, quad). 2. Outside the ground, in line-of-sight conditions, LoRa can transmit data up to about 15 km. Setting a repeater onboard a UAV flying 20 meters above the ground, the data measured from 10,000 hectares can be transferred to the Internet in 20 minutes.
Soil moisture is an important factor in precision agriculture for enabling flexible and smart irrigation strategies. Measuring soil moisture at 30-100 cm depth through devices connected to the Internet provides a centralized view of the crop status and the overall irrigation system. However, the cost of underground sensors and their connectivity is still limiting the applicability of the smart irrigation concept.
Developed by IDESIO
Mole is based on a new sensor concept. The device consists of an underground LoRa transceiver which transmits radiowaves to a buried collector. From measurements of the electromagnetic loss, soil moisture estimates can be retrieved if soil type/texture is well known. The transceiver also embeds the communication capability: a concentrator, located onboard a UAV, will connect to the Internet. The cost of the solution is in the order of 10-30% wrt traditional
approaches.
The main components of the system have been tested separately, and an initial integration exercise has been conducted.
It is known that radiowaves (below 1 GHz) can propagate underground with a loss rate that depends on the soil type and moisture content. LoRa is a novel wireless technology for the IoT (Internet of Things) even much more robust to power losses than its predecessors. It is expected that LoRa waves can travel underground up to about 10-20 m. Two radio transceivers can exchange signals and make possible to provide indirect estimates of soil moisture content without the need for an ad hoc sensor. The soil moisture value is computed locally and then transmitted by the receiving node to a surface gateway. The latter will forward data to the Internet through, for example, a UAV repeater which is flying above the area.
Limitations/conditions under which this innovation does not work or is less effective
The basic issue is the heterogeneity or macro-heterogeneity of the terrain because indirect measurements of the soil moisture depend on soil texture and homogeneous conditions. As consequence, the possible presence of major obstacles or special features (e.g. stones, whose size is larger than 30 cm in diameter) might generate deviations between the actual and estimated soil moisture values. The accuracy of the system and potential deviations need to be quantified through some test campaigns.
Added value
Cost is reduced by a factor of about 80% with respect to traditional solutions that require the installation of the sensor onboard a mobile device (eg. UAV, quad). 2. Outside the ground, in line-of-sight conditions, LoRa can transmit data up to about 15 km. Setting a repeater onboard a UAV flying 20 meters above the ground, the data measured from 10,000 hectares can be transferred to the Internet in 20 minutes.
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