5. Integrated sensing and communication
WEF Emerging Technology 2024
The advent of 6G networks facilitates simultaneous data collection (sensing) and transmission (communication). This enables environmental monitoring systems that help in smart agriculture, environmental conservation and urban planning. Integrated sensing and communication devices also promise to reduce energy and silicon consumption.
Competitive Environment in integrated sensing and communication
Companies and universities with conceptually close patents to the technology definition
Countries in technology
(number of active patents in technology in 2024 country by inventor address)
Development of patent publications
(publications per year)
EconSight comment and short analysis
Integrated sensing technology is a general technology concept for low powered communication devices integrated in the 6G infrastructure currently mainly targeted at applications in the digital agricultural space. Bayer/Monsanto is one of the leading larger players with Deere closely behind. We can see also larger IT players in the field, such as Intel and IBM, but also unexpected players such as Tata. However, the field is fully dominated by small players with a multitude of solutions, such as Smart Farm integrated elements, ripening sensors or moisture control. It remains to be seen where we will see further applications of these micronised devices besides Agtech. Some of the patents in this field are already being used in Smart City environments, but others applications areas will follow.
Background
- Textual concepts are generated for each WEF technology.
- The concepts are applied to our full-text AI-RAG (retrieval augmented generation system) which is optimised for highest precision patent analysis to identify the semantically close patents for each technology.
- A competitive environment with the most relevant companies and research institutions is developed where the relevance is calculated as the similarity of their patents compared to the technology concept. The closer to the technology core, the higher the similarity. Large corporates, small specialists and research institutions are shown separately.
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This invention relates to an integrated sensing and communication system designed for smart agriculture applications, leveraging the capabilities of 6G networks. The system combines advanced sensors and communication modules into a single device, capable of simultaneously collecting environmental data (such as soil moisture, temperature, and crop health) and transmitting this information in real-time to a central server. The high bandwidth and low latency of 6G networks enable rapid data processing and decision-making, improving agricultural efficiency and productivity. The system also reduces energy consumption by optimizing data transmission intervals based on the sensed environmental conditions.
This invention relates to an integrated sensing and communication system designed for smart agriculture applications, leveraging the capabilities of 6G networks. The system combines advanced sensors and communication modules into a single device, capable of simultaneously collecting environmental data (such as soil moisture, temperature, and crop health) and transmitting this information in real-time to a central server. The high bandwidth and low latency of 6G networks enable rapid data processing and decision-making, improving agricultural efficiency and productivity. The system also reduces energy consumption by optimizing data transmission intervals based on the sensed environmental conditions.
This invention presents an energy-efficient integrated sensing and communication module for environmental conservation applications, utilizing the advanced features of 6G networks. The module is equipped with sensors for monitoring various environmental parameters, such as wildlife activity, water quality, and forest health. The integrated communication unit enables the real-time transmission of data to conservation centers, facilitating prompt actions to protect endangered ecosystems. The system’s design prioritizes low power consumption and reduced silicon usage, making it suitable for deployment in remote and sensitive environments where energy resources are limited.
The invention relates to an integrated sensing and communication platform designed for managing smart infrastructure systems, utilizing 6G network capabilities. The platform integrates a wide array of sensors with communication modules, allowing for the simultaneous collection and transmission of structural health data, such as stress, vibration, and temperature in buildings and bridges. This real-time data exchange enables predictive maintenance and ensures the safety and longevity of critical infrastructure. The platform is designed to be energy-efficient, reducing both operational costs and the environmental impact associated with monitoring large-scale infrastructure.
This patent describes a low-power integrated sensing and communication system tailored for smart agriculture, leveraging 6G network technology. The system combines soil and crop sensors with a communication unit capable of real-time data transmission to agricultural management systems. The system is designed to operate on minimal power, using energy-harvesting techniques to sustain its operation in remote fields. The integration of sensing and communication in a single device reduces the need for multiple components, lowering silicon usage and overall system complexity. This innovation supports more sustainable and efficient farming practices by providing continuous monitoring with minimal energy consumption.
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