industry news
Subscribe to EE Journal Daily Newsletter

LAPIS Semiconductor’s Breakthrough Soil Environment Sensor

Optimized solution allows users to quickly and accurately monitor soil conditions in agricultural applications

Yokohama, Japan and Santa Clara, Calif. – June 22, 2017 – ROHM Group company LAPIS Semiconductor has recently announced the development of a soil environment sensor ideal for social infrastructure and IT agricultural monitoring that is expected to be adopted for productivity improvement, disaster prevention, and infrastructure monitoring. For the first time, a live demo will be showcased at this year’s Sensors Expo held on June 28-29th at booth 616, at the McEnery Convention Center in downtown San Jose.

Conventional methods may take a significant amount of time and is inefficient, involving sampling multiple locations then measuring the pH/EC using special equipment, with the results on soil conditions taking as much as a few weeks. In contrast, LAPIS Semiconductor’s soil environment sensor can remotely monitor soil conditions much faster without the need to visit individual sensor nodes. Additionally, using solar panels to generate power in conjunction with the low power operation of sensors allows them to be deployed without the need for physical maintenance for extended periods.

Fast, accurate monitoring is achieved by combining the LAPIS Semiconductor’s expertise in low-power MCUs, communication devices, and temperature sensors with newly developed acidity (pH) and electrical conductivity (EC) sensors. In addition, this design uses a solar panel with ROHM’s high efficiency charging solution that allows it to sustain itself for extended periods of time. And the LAPIS Semiconductor’s wireless communication modules enable any number of nodes to be paired to a central node and provide a range of 1km. Leveraging this technology makes it possible to provide a full solution for soil monitoring that is currently undergoing testing in the agriculture industry. 

Key Feature
1. Integrated semiconductor-based sensor enables real-time soil monitoring
2. Compact, monolithic sensor measures pH (acidity), electrical conductivity (EC), and soil temperature
3. IoT chipset solution optimized for social infrastructure and smart agriculture

Applications
– Social infrastructure monitoring
– Smart/IT agriculture

About ROHM Group
ROHM Semiconductor, an industry leader in system LSIs, discrete components and module products, utilizes proprietary leading-edge semiconductor technologies along with a completely in-house, vertically integrated production system that allows ROHM to quickly respond to changing needs while ensuring unsurpassed quality and reliability. ROHM has also established a global manufacturing, QA, and sales network in order to deliver stable supply and timely support to customers around the world. 

LAPIS Semiconductor, acquired in 2008 by the ROHM Group through a spin-off of OKI’s semiconductor business, supplies market-leading logic, memory, and display driver LSIs by leveraging low power consumption, high-frequency circuit, and digital-analog mixed signal technologies. Foundry services are also available for producing custom products for other companies.

Leave a Reply

featured blogs
Jul 24, 2017
(Please visit the site to view this video) Coming from hyperspace (camera Sean) Monday: Moving Logic into the 3rd Dimension Tuesday: An Academic View on How Tesla Will Not Win Wednesday: Samsung SDI on Batteries Thursday: O Lord Won't You Buy Me a Mercedes Benz...Truck F...
Jul 24, 2017
System designers and engineers constantly face design challenges to achieve higher data-rates in highly dense applications.  A popular system-level design approach in many high-speed applications marries the configurability and high-speed performance of FPGAs with the a...
Jun 20, 2017
For data-center architects it seems like a no-brainer. For a wide variety of applications, from the databases behind e-commerce platforms to the big-data tools in search engines to suddenly-fashionable data analytics to scientific codes, the dominant limitation on application...