Design of autonomous multi-sensing passive UHF RFID tag for greenhouse monitoring

Rennane, Ahmed; Benmahmoud, Fateh; Chérif, Ali; Touhami, R.; Tedjini, Smaïl

doi:10.1016/j.sna.2021.112922

Cited by 8 publications

(3 citation statements)

References 24 publications

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“…With the explosion of IoT technologies, new solutions for greenhouse monitoring have emerged, exploiting more efficient data transmission techniques, both in terms of energy consumption and of network coverage, as well as more complex data management architectures. Exploited data transmission technologies include UHF RFID [32], Bluetooth Low Energy [33] as well as LoRa [34], while some contributions propose the adoption of cloud services such as Thingspeak for data management [9,35]. Despite the great interest in setting up autonomous IoT infrastructures, little interest has been put on the problem of power management which may be in some cases an actual bottleneck.…”

Section: Greenhouse Monitoringmentioning

confidence: 99%

Autonomous IoT Monitoring Matching Spectral Artificial Light Manipulation for Horticulture

Cappelli

Fort

Pozzebon

et al. 2022

Sensors

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This paper aims at demonstrating the energy self-sufficiency of a LoRaWAN-based sensor node for monitoring environmental parameters exploiting energy harvesting directly coming from the artificial light used in indoor horticulture. A portable polycrystalline silicon module is used to charge a Li-Po battery, employed as the power reserve of a wireless sensor node able to accurately monitor, with a 1-h period, both the physical quantities most relevant for the application, i.e., humidity, temperature and pressure, and the chemical quantities, i.e., O2 and CO2 concentrations. To this aim, the node also hosts a power-hungry NDIR sensor. Two programmable light sources were used to emulate the actual lighting conditions of greenhouses, and to prove the effectiveness of the designed autonomous system: a LED-based custom designed solar simulator and a commercial LED light especially thought for plant cultivation purposes in greenhouses. Different lighting conditions used in indoor horticulture to enhance different plant growth phases, obtained as combinations of blue, red, far-red and white spectra, were tested by field tests of the sensor node. The energy self-sufficiency of the system was demonstrated by monitoring the charging/discharging trend of the Li-Po battery. Best results are obtained when white artificial light is mixed with the far-red component, closest to the polycrystalline silicon spectral response peak.

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Section: Greenhouse Monitoringmentioning

confidence: 99%

Autonomous IoT Monitoring Matching Spectral Artificial Light Manipulation for Horticulture

Cappelli

Fort

Pozzebon

et al. 2022

Sensors

View full text Add to dashboard Cite

show abstract

“…A sensor network was built in a wireless sensor network (WSN) using a wireless Zigbee module with a mesh topology to sense air temperature, CO 2 levels [32]. In addition to the Zigbee module, you can also use the SL900A module in the UHF band [33]. The measurement of wave attenuation for the 2.4 GHz frequency band that penetrated the greenhouse was also measured to determine the effect of the waves on plants [34].…”

Section: A Search String Reviewmentioning

confidence: 99%

A Systematic Literature Review: Internet of Things on Smart Greenhouse

Setyawan¹,

Warsito²,

Marjunus³

et al. 2022

IJACSA

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Increasing food needs and climate instability require researchers to innovate agriculture using smart greenhouses that are integrated with the Internet of Things (IoT). The Systematic Literature Review (SLR) begins with determining the topic keywords followed by searching the publisher link. It obtains 301 publications to be reviewed, 58 of which address the research questions posed. This study aims to collect and analyze in depth various knowledge about the Internet of Things Smart Greenhouse regarding sensors, methods used and publishers who publish the most related topics and the possibility of a research gap. The findings are as many as 12 publications that use temperature and humidity sensors and use the research and development methods integrated with Artificial intelligence methods, of which 62.1% do not use the datasets and 37.9% use the datasets. It obtains two possibilities of a research gap, namely improvising the algorithm and the dataset used and placing full control on the microcontroller development board and making IoT a supporting tool.

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“…In particular, RFID technology has many applications ranging from tracking foods and goods to the security of restricted areas [7][8][9][10][11][12][13][14][15][16]. Researchers are concentrated on finding solutions to further reduce the cost and in particular to improve the operating range [17][18][19][20][21][22], which for standard RFID is only a few centimeters. Some RFID systems permit us to obtain a large distance between the reader and the tags.…”

Section: Introductionmentioning

confidence: 99%

Development of Enhanced Range, High Q, Passive, Chipless RFID Tags for Continuous Monitoring and Sensing Applications

2021

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A high Q planar chipless RFID tag with high sensitivity is proposed for communication applications. In particular, the tag structure is composed of a complementary spiral structure (CSS) that is able to provide high sensitivity and compactness. A semi analytical formula for the design of a single bit tag is derived, and the behaviour of the CSS is analysed for different dielectric substrates. Different tags, composed of up to a set of eight resonators, have been numerically and experimentally assessed. In particular, a system prototype composed of a reader and a set of tags are fabricated and experimentally assessed as a proof of concept. The system provided an operative range of tens of centimetres (a maximum operative range of 65 cm). The obtained results are quite promising and the agreement between simulated and measured results are found to be good.

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Design of autonomous multi-sensing passive UHF RFID tag for greenhouse monitoring

Cited by 8 publications

References 24 publications

Autonomous IoT Monitoring Matching Spectral Artificial Light Manipulation for Horticulture

Autonomous IoT Monitoring Matching Spectral Artificial Light Manipulation for Horticulture

A Systematic Literature Review: Internet of Things on Smart Greenhouse

Development of Enhanced Range, High Q, Passive, Chipless RFID Tags for Continuous Monitoring and Sensing Applications

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