NIPPON TELEGRAPH AND TELEPHONE CORPORATION (20240323704). IOT COMMUNICATION SYSTEM, ACCESS POINT, SENSOR DEVICE, IOT COMMUNICATION METHOD AND PROGRAM simplified abstract

IOT COMMUNICATION SYSTEM, ACCESS POINT, SENSOR DEVICE, IOT COMMUNICATION METHOD AND PROGRAM

Organization Name

NIPPON TELEGRAPH AND TELEPHONE CORPORATION

Inventor(s)

Ryota Shiina of Musashino-shi, Tokyo (JP)

Shinya Tamaki of Musashino-shi, Tokyo (JP)

Tetsuya Suzuki of Musashino-shi, Tokyo (JP)

Yasutaka Kimura of Musashino-shi, Tokyo (JP)

Tomohiro Taniguchi of Musashino-shi, Tokyo (JP)

Sei Kou of Musashino-shi, Tokyo (JP)

Tomoya Hatano of Musashino-shi, Tokyo (JP)

Takashi Yamada of Musashino-shi, Tokyo (JP)

IOT COMMUNICATION SYSTEM, ACCESS POINT, SENSOR DEVICE, IOT COMMUNICATION METHOD AND PROGRAM - A simplified explanation of the abstract

This abstract first appeared for US patent application 20240323704 titled 'IOT COMMUNICATION SYSTEM, ACCESS POINT, SENSOR DEVICE, IOT COMMUNICATION METHOD AND PROGRAM

Simplified Explanation: The patent application describes an Internet of Things (IoT) communication system that includes sensor apparatuses and an access point for wireless communication. The access point emits multiple beams to a specific location, the sensor apparatus converts the beacon information from the detected beams into compressed beacon information, and transmits it back to the access point for restoration.

• The IoT communication system consists of sensor apparatuses and an access point for wireless communication.
• The access point emits multiple beams to a specific location for communication.
• Sensor apparatuses convert beacon information from detected beams into compressed data for transmission.
• The access point restores the beacon information from the compressed data received from the sensor apparatuses.

Potential Applications: 1. Smart home automation systems. 2. Industrial IoT applications for monitoring and control. 3. Environmental monitoring for smart cities. 4. Healthcare applications for remote patient monitoring. 5. Agricultural applications for precision farming.

Problems Solved: 1. Efficient communication in IoT networks. 2. Reduction of data transmission overhead. 3. Improved reliability and accuracy of data transmission. 4. Enhanced scalability for large-scale IoT deployments.

Benefits: 1. Increased efficiency in IoT communication. 2. Reduced data transmission costs. 3. Enhanced reliability and accuracy of data transmission. 4. Scalability for large-scale IoT deployments. 5. Improved overall performance of IoT networks.

Commercial Applications: The technology can be utilized in various industries such as smart home automation, industrial IoT, environmental monitoring, healthcare, and agriculture. It offers improved communication efficiency, reduced costs, and enhanced reliability for IoT applications.

Questions about IoT Communication System: 1. How does the IoT communication system improve data transmission efficiency? 2. What are the potential applications of the IoT communication system in different industries?

Frequently Updated Research: Researchers are continuously exploring ways to enhance the efficiency and reliability of IoT communication systems through advanced algorithms and technologies. Stay updated on the latest developments in this field for improved IoT network performance.

Original Abstract Submitted

in order to achieve the above object, an internet of things (iot) communication system according to the present disclosure is the iot communication system including one or a plurality of sensor apparatuses and an access point that performs wireless communication with the sensor apparatuses, in which the access point emits a plurality of beams to an arbitrary point, the sensor apparatus converts the beacon information acquired from the detected beams into compressed beacon information based on a beacon information correspondence table and transmits the compressed beacon information to the access point, and the access point restores the beacon information from the compressed beacon information received from the sensor apparatus based on the beacon information correspondence table.