To provide a communication control device capable of appropriately accommodating a surplus interference margin that is not distributed to a communication device depending on a situation. There is provided a communication control device including an acquisition unit that acquires a parameter for calculating a coverage of one or more second wireless systems that share a part or a whole of a frequency allocated to a first wireless system, and a control unit that calculates the coverage of the second wireless system on the basis of the parameter acquired by the acquisition unit and a predetermined reception power reference value, generates information indicating whether or not a partitioned geographical range is included in the coverage, and records a reception power level from the second wireless system in the geographical range in which the information satisfies a predetermined condition.

To provide a communication control device capable of appropriately accommodating a surplus interference margin that is not distributed to a communication device depending on a situation. There is provided a communication control device including an acquisition unit that acquires a parameter for calculating a coverage of one or more second wireless systems that share a part or a whole of a frequency allocated to a first wireless system, and a control unit that calculates the coverage of the second wireless system on the basis of the parameter acquired by the acquisition unit and a predetermined reception power reference value, generates information indicating whether or not a partitioned geographical range is included in the coverage, and records a reception power level from the second wireless system in the geographical range in which the information satisfies a predetermined condition.

A system may be configured to identify from among a plurality of access points in an area in communication with a network, a first access point associated with the area. In addition the system may also be configured to determine first location-related data for the first access point. Determining second location-related data for a second access point of the plurality of access points, the second access point being interior to the first access point within the network includes exchanging ranging data indicative of a first relative distance between the first access point and the second access point, the ranging data based at least in part on ranging message exchange measurements, and communicating the first location-related data from the first access point to the second access point.

A system may be configured to identify from among a plurality of access points in an area in communication with a network, a first access point associated with the area. In addition the system may also be configured to determine first location-related data for the first access point. Determining second location-related data for a second access point of the plurality of access points, the second access point being interior to the first access point within the network includes exchanging ranging data indicative of a first relative distance between the first access point and the second access point, the ranging data based at least in part on ranging message exchange measurements, and communicating the first location-related data from the first access point to the second access point.

The present publication relates to the wireless signal technologies, and provides methods and systems for wireless signal reinforcement and wireless network load sharing and following. The method for wireless signal reinforcement comprising: a mobile wireless access point moving and measuring the wireless signal strength of other wireless access points received at the location the mobile wireless access point passes through; determining a first location where the wireless signal needs to be reinforced according to the measurement result; and the mobile wireless access point moving to a second location according to the first location, so that the strength of the wireless signal transmitted by the mobile wireless access point from the second location to the first location exceeding the strength of the wireless signal of other wireless access points at the first location. The implementation of the publication can adaptively change the distribution of the environment wireless signals as the environment changes, and realize efficient coverage of wireless signals at low cost.

The present publication relates to the wireless signal technologies, and provides methods and systems for wireless signal reinforcement and wireless network load sharing and following. The method for wireless signal reinforcement comprising: a mobile wireless access point moving and measuring the wireless signal strength of other wireless access points received at the location the mobile wireless access point passes through; determining a first location where the wireless signal needs to be reinforced according to the measurement result; and the mobile wireless access point moving to a second location according to the first location, so that the strength of the wireless signal transmitted by the mobile wireless access point from the second location to the first location exceeding the strength of the wireless signal of other wireless access points at the first location. The implementation of the publication can adaptively change the distribution of the environment wireless signals as the environment changes, and realize efficient coverage of wireless signals at low cost.

Examples disclosed herein relate to a scanning system for determining enhanced placement of an antenna within an environment. The scanning system includes a sensor system configured to emit an optical signal pulse to a surrounding environment of the scanning system and receive one or more returning optical signal pulses reflected from one or more reflective objects in the surrounding environment. The sensor system obtains a plurality of sensor data slices along a first direction from the one or more returning optical signal pulses. Each of the sensor data slices corresponds to a different position of the scanning system along a second direction orthogonal to the first direction. The scanning system also includes a perception module communicably coupled to the sensor system and configured to generate mapping information of the identified one or more reflective objects in the scene with one or more trained neural networks in the perception module.

Examples disclosed herein relate to a scanning system for determining enhanced placement of an antenna within an environment. The scanning system includes a sensor system configured to emit an optical signal pulse to a surrounding environment of the scanning system and receive one or more returning optical signal pulses reflected from one or more reflective objects in the surrounding environment. The sensor system obtains a plurality of sensor data slices along a first direction from the one or more returning optical signal pulses. Each of the sensor data slices corresponds to a different position of the scanning system along a second direction orthogonal to the first direction. The scanning system also includes a perception module communicably coupled to the sensor system and configured to generate mapping information of the identified one or more reflective objects in the scene with one or more trained neural networks in the perception module.

The invention relates cloud based IoT network monitoring and validation to enable optimal network selection and connectivity for IoT sensors. The present invention relates to a system to measure the signal quality directly from the network module of IoT sensors. It comprises of an application programming interface (API) 105, a Network detection dongle 103, communication network 110, server 115, network modules of network operators and IoT sensors 120, to be deployed or installed. The invention also relates to a method for determination of signal strength from network module of IoT sensors, wherein the API 105 is configured to run network detection software to determine and validate an optimal location for IoT sensor/device installation or deployment based on the highest signal strength.

The invention relates cloud based IoT network monitoring and validation to enable optimal network selection and connectivity for IoT sensors. The present invention relates to a system to measure the signal quality directly from the network module of IoT sensors. It comprises of an application programming interface (API) 105, a Network detection dongle 103, communication network 110, server 115, network modules of network operators and IoT sensors 120, to be deployed or installed. The invention also relates to a method for determination of signal strength from network module of IoT sensors, wherein the API 105 is configured to run network detection software to determine and validate an optimal location for IoT sensor/device installation or deployment based on the highest signal strength.