1313 results about "Wireless control" patented technology

A swimming pool lamp is disclosed, including a lamp body provided in the swimming pool, and a wireless control component for sending and receiving remote control signals. Because the lamp body and the wireless control component are split setup, it can effectively avoid the wireless control component getting into water to affect the signal transmitting and receiving. The lamp body can be remotely controlled by a terminal provided, and the terminal can change luminous effects of LED lamp beads provided on the surface of the lamp panel. A mechanical button is provided on the surface of the lamp body, so that the luminous effects of the LED lamp beads on the lamp panel can be controlled by the mechanical button in conjunction with a control button without using the terminal for remote control, thus realizing a variety of control effects of the swimming pool lamp.

The invention discloses an immersive master-slave teleoperation anthropomorphic robot system with force feedback, a master end assembly comprises a seat, a master end control arm, a force feedback manipulator, a VR visual device, a data sensing glove and a master end controller, and the master end assembly is a master control end; the slave end assembly comprises a movable chassis, a movable trunk, a slave end mechanical arm, a slave end manipulator, a binocular camera and a slave end controller, and the slave end controller is in electric signal connection with the movable chassis, the movable trunk, the slave end mechanical arm, the slave end manipulator, the binocular camera, the six-dimensional torque sensor and the master end controller; the wireless controller is in electric signal connection with the master end controller and the slave end controller, the wireless controller has a slave end control mode and a force feedback teleoperation mode, and in the slave end control mode, the wireless controller controls the movable chassis to move; in the force feedback teleoperation mode, the master end control arm and the force feedback mechanical arm synchronously move with the slave end mechanical arm and the slave end mechanical arm correspondingly.

The invention discloses a method and a system for controlling disinfection equipment for animal husbandry and veterinary medicine, relates to the technical field of equipment control, and is used for solving the problems that the automation degree of the existing disinfection and killing operation is insufficient, and the disinfection and killing are weak, a plurality of disinfection and killing points are arranged in an animal husbandry farm, and the disinfection equipment, a sensor module and a wireless control terminal are arranged; the sensor module is used for acquiring livestock environment data of a livestock area under each disinfection point, the wireless control terminal is used for inputting the livestock environment data of the respective livestock area, parameter configuration and equipment state detection are carried out on disinfection equipment of the respective livestock area, disinfection operation of the respective livestock area is carried out, and whole-process monitoring is carried out; the method comprises the following steps: acquiring a monitoring result, marking a disinfection weak item of each disinfection device, establishing a respective disinfection fitting model according to the disinfection weak item, executing respective disinfection operation again according to the disinfection fitting model, and pushing a disinfection result of each disinfection point to an animal husbandry veterinary, thereby realizing automatic high-efficiency disinfection.

The invention relates to a wireless signal optimization method and system fused with channel state detection, and the method comprises the steps: obtaining detection state parameters of a fused channel, carrying out the scene decision processing, and outputting a classification result; performing transmission matching according to the classification result to obtain a transmission parameter set; performing channel frequency identification on the fusion channel based on the classification result to obtain frequency band resource block features; and carrying out transmission dynamic adaptation and frequency resource allocation based on the transmission parameter set and the frequency band resource block characteristics to obtain wireless control parameters. According to the invention, the complex characteristics of the channel can be reflected more comprehensively, and the accuracy of channel state detection is improved.

A dog crate system including a crate and a remote control. The crate is configured to contain a large dog, such as a security or law enforcement dog. The crate can be wirelessly opened using the remote control or another device. The crate includes a door and a body. The door includes a latch, a solenoid, and a receiver. The receiver can receive wireless control signals to actuate the solenoid and disengage the latch to open the door. The door can define an enclosed cavity to store the solenoid, receiver, and a battery. The body can define a floor having multiple protruding feet and a roof having multiple platforms. Multiple crates can stack by resting the feet of one crate on the platforms of another crate. The roof can define multiple shoulders adjacent to the platforms that secure the feet on a stacked crate in place.

A cargo controller is disclosed herein. The cargo controller includes a wireless emergency module (412) including an ultra-wide band radio, the wireless emergency module (412) configured to communicate with a plurality of cargo emergency stations of a cargo handling system using the ultra-wide band radio, a wireless control module (418) configured to communicate with a cargo control station of the cargo handling system, a processor, a memory operatively coupled to the processor. The memory includes instructions stored thereon that, when executed by the processor, cause the processor to receive ultra-wide band radio signals from the plurality of cargo emergency stations, determine a location within the cargo handling system based on the received ultra-wide band radio signals, and transmit the location to the cargo handling system.

The invention discloses a tea garden ditching and fertilizing all-in-one machine which adopts an electric crawler chassis which is independently driven on two sides, a fertilizing mechanism is located at the top of a whole machine frame, a ditching and earthing mechanism is located at the rear end of the whole machine frame, and the ditching depth can be adjusted by adjusting the length of a hydraulic telescopic rod; the control console is located at the front end of the whole machine frame and used for a driver to control the movement of the whole machine and the movement of all the mechanisms during driving, and meanwhile the ditching and fertilizing all-in-one machine for the tea garden can be controlled by selecting a wireless control mode under the condition that the road condition is simple. The ditching and fertilizing operation of the tea garden is more flexible; a wired and wireless combined remote control operation mode of ditching, fertilizing and earthing in the tea garden is realized; organic combination of the adjustable soil covering plate and the soil-splitting type fertilizing straight pipe is realized, and the soil crushing and covering link is more efficient; the ditching and fertilizing operation of the tea garden can be carried by a driver, and the complicated tea garden environment can be easily and timely adjusted in the operation process.

The invention discloses a distributed wireless control system and method for transformer winding deformation detection. The distributed wireless control system comprises a plurality of transformers, a first deformation detection device, a second deformation detection device, an edge computing server and a cloud platform, wherein the first deformation detection device and the second deformation detection device are electrically connected with windings of the transformers; the first deformation detection device is used for generating a first fault signal when a winding deformation fault is detected; the edge computing server is used for analyzing according to the type of the fault winding and the short-circuit impedance variable quantity to obtain a first fault credibility level; and the cloud platform is used for obtaining the second fault credibility according to the historical data of the transformer winding, and determining a fault secondary judgment strategy according to the first fault credibility level and the second fault credibility. According to the invention, two different types of winding deformation detection devices are arranged to work cooperatively, and a secondary judgment strategy is executed based on judgment of the fault credibility level and the fault credibility, so that the problem of deformation fault false alarm in actual work is reduced, and the accuracy and reliability of deformation fault detection are improved.

Methods, apparatus, systems, architectures and interfaces for a Multi-access Edge Computing (MEC) host providing a MEC platform, including a reliable and available wireless (RAW) control entity, are provided. A method may include any of: generating MEC application information associated with a MEC-to-RAW request according to information indicating a MEC application; transmitting, to another network entity, the MEC-to-RAW request including the MEC application information; and receiving, from the other network entity, a MEC-to-RAW response including information indicating any of: (1) a wireless communication network path, and (2) RAW control information associated with the wireless communication network path.

The invention relates to a smart greenhouse precise fertilization system and fertilization method based on Internet of Things, and belongs to the technical field of Internet of Things smart agriculture. Comprising an environment monitoring module, a crop growth monitoring module, a greenhouse environment adjusting module, a gas fertilizer applying module, a water and fertilizer applying module, a pesticide spraying module, a wireless control module, an intelligent gateway and a remote control module, the intelligent gateway sends data to the remote control module, the remote control module can check monitoring data and issue a control command, and the greenhouse environment adjusting module, the gas fertilizer applying module, the water and fertilizer applying module or the pesticide spraying module are controlled through the wireless control module to perform corresponding adjusting, fertilizer applying or pesticide spraying work; according to the greenhouse management system, automation and intelligence of greenhouse management are achieved, manual intervention is reduced, labor intensity and management cost are reduced, and energy and water are saved through rainwater recycling.

The invention discloses a capsule robot for collecting intestinal flora and a control method of the capsule robot. The capsule robot comprises a capsule robot body and a rotatable collecting module installed in the capsule robot body. A collecting port is formed in the capsule robot body, a plurality of collecting cabins are formed in the rotating face of the collecting module, and the collecting module rotates to enable the collecting cabins to be communicated with or not communicated with the collecting port. The capsule robot is small in size and capable of achieving the flora sampling function at the same time, all the assemblies are compactly integrated in the capsule robot, the cross contamination problem between different detection parts and different collection cabins is avoided through structural design and certain sealing treatment, a control circuit is a small-size control panel, and the control circuit is simple in structure and convenient to operate. According to the capsule robot, circuit layout and space utilization are optimized, the size is reduced, meanwhile, functional integrity is guaranteed, remote non-contact collection in the body of a patient can be achieved through Bluetooth communication wireless control, and the capsule robot has the long-acting power management capacity.

The invention discloses a light control method and device and a storage medium, and relates to the technical field of telecommunication, and the method comprises the steps: receiving a wireless control instruction sent by a control terminal based on a preset protocol, and then determining a decoding strategy matched with the preset protocol, the method comprises the steps of receiving a wireless control instruction, decoding a space identifier and a light control parameter in the wireless control instruction through a decoding strategy, then determining a matched control core according to the space identifier, determining region information associated with the control core, and finally sending the light control parameter to the control core, and the control core executes a light control operation corresponding to the area information based on the light control parameter. According to the method, through linkage control of the space identifier and the control core, the accuracy and flexibility of light control are improved.

A handheld video game console securing device that includes a first connecting structure and a second connecting structure connected together by a resiliently stretchable. Each of the connecting structures includes a snap-in connecting arrangement that permits a user to snap each connecting structure into or onto a corresponding receiving portion on opposite sides of a handheld video game console where wireless controllers would usually be connected.

A motion control system is disclosed for enabling three-axis positioning of an optical device, such as a portable microscope. The system includes an XY actuator module for lateral movement in orthogonal planar directions, a Z actuator module for vertical displacement to adjust focus, and a wireless control interface. The wireless control interface comprises a joystick and momentary switches, allowing independent, hands-free control of all three axes via radio frequency signals. The actuator modules are modular, lightweight, and powered by batteries or external power sources, making the system highly portable and suitable for field or surgical applications. The Z actuator adjusts only the objective lens, reducing weight and enabling micro-level focal changes without moving the entire microscope body. The system offers precision, stability, and ease of deployment, improving user ergonomics and operational efficiency in both clinical and mobile environments.

A cargo controller is disclosed herein. The cargo controller includes a wireless emergency module including an ultra-wide band radio, the wireless emergency module configured to communicate with a plurality of cargo emergency stations of a cargo handling system using the ultra-wide band radio, a wireless control module configured to communicate with a cargo control station of the cargo handling system, a processor, a memory operatively coupled to the processor. The memory includes instructions stored thereon that, when executed by the processor, cause the processor to receive ultra-wide band radio signals from the plurality of cargo emergency stations, determine a location within the cargo handling system based on the received ultra-wide band radio signals, and transmit the location to the cargo handling system.

A hydrofoil board having a hydrofoil configured to be automatically controlled to stabilize the board in a level position even when incurring waves. The hydrofoil includes a pair of individually controllable flaps that control the pitch and direction of the hydrofoil board when propelled in motion. A processor uses an inertial measurement unit (IMU) to obtain orientation and acceleration information of the hydrofoil board. A global positioning system (GPS) unit is also used as an additional speed and location sensor. The processor combines IMU data with a user / rider's input, such as selected speed and direction via handheld wireless controller, and individually controls the flap motors to position the flaps, and the propulsion motor to set speed. In one example, the controller is configured to bring the hydrofoil board to a complete and stabile stop.

A wearable electroencephalography device includes an ear cuff around an auricle of an ear comprising a curved structure conforming to contours of the ear, an electroencephalography electrode positioned on the ear cuff and contacting skin for detecting brain activity signals, a wireless controller integrated with the ear cuff and processing the brain activity signals from the electroencephalography electrode, and a wireless communication module transmitting the processed brain activity signals to an external device. The wearable electroencephalography device includes a mobile application receiving the transmitted brain activity signals from the wireless communication module, analyzing the brain activity signals using machine learning algorithms to determine emotional states of a user, and providing real-time feedback regarding the emotional states through a user interface. The mobile application comprises a self-report interface allowing the user to input subjective state data and a live-feed interface displaying real-time subjective state data derived from the brain activity signals.

An infusion pump assembly is disclosed. The infusion pump assembly includes a reservoir for receiving an infusible fluid, a pump assembly for pumping a quantity of infusible fluid from the reservoir to an exit, a first valve assembly configured to selectively isolate the pump assembly from the reservoir, a second valve assembly configured to selectively isolate the exit from the pumping assembly, and a split ring resonator antenna having a resonant frequency comprising a plurality of planar metallic layers.

This wireless communication control device is a first wireless control device provided with: a control circuit that causes the waveform of a reference signal transmitted to a wireless communication device in coordination with a second wireless communication control device to differ, either in the frequency domain or the time domain, from the waveform of a reference signal transmitted to the wireless communication device by the second wireless communication control device; and a transmission circuit that transmits the reference signal.

An apparatus configured to control transmission of wireless energy supplied to an electrically operable medical device adapted to be implanted in a mammal patient is provided. The apparatus comprises an external energy source adapted to be located outside the mammal patient and comprising an external control unit, the external energy source being adapted to transmit wireless energy, and an internal energy receiver located inside the patient and comprising an internal control unit, the internal energy receiver being adapted to receive the wireless energy, the internal energy receiver being configured to directly or indirectly supply wirelessly received energy to the electrically operable medical device, and a control unit comprising the internal control unit or the external control unit, wherein the electrically operable medical device is adapted to transfer control information to the control unit, the control information being related to an energy adapted for operating the medical device and said control information being adapted to be used to control the receipt of energy.

An animal containment and automatic release enclosure is disclosed featuring a unitary structure providing a secure interior space for animals. The enclosure incorporates ventilation apertures, enabling the animal to access fresh air for breathing and ventilation. Environmental sensors in wireless communication with a personal device continuously monitor the enclosure's conditions, ensuring the animal's well-being. Wirelessly controlled enclosure doors, operated by an electric enclosure door control device, provide convenient access to the enclosed animal. The system further integrates external sensors, such as a carbon monoxide sensor for monitoring external CO levels, a moisture detection pad sensor to identify liquid accidents, and a temperature sensor to regulate internal temperature. The enclosure is designed to cater to various environments, including those with potential carbon monoxide exposure, making it suitable for use in multiple settings. It can be employed by veterinarians, law enforcement personnel, military professionals, security experts, pet owners, and animals trained for specific tasks. Additionally, remote access is possible through a personal communication device.

The invention discloses a composite material plate ultrasonic detection robot and a detection method.The detection robot comprises a driving module, a guide rail support module and a main control module, rubber suction cups are arranged at the bottom of the driving module and are arranged at the two ends of the guide rail support module, and the main control module comprises a phased array module, a phased array probe and an electric telescopic rod; the driving module is arranged on the cylindrical support and moves left and right along the cylindrical support, the driving module establishes connection with the main control module through the wireless transmission module, and the main control module transmits instructions and data through the wireless transmission module; during detection, the rubber suction cup of the detection robot is firmly adsorbed on the surface of a detected composite material plate, and the phased array module collects detection data in real time and transmits the detection data to the mobile terminal equipment. The device is used for ultrasonic nondestructive testing, modular design and wireless control of non-metal composite material large plates, can quickly and efficiently realize full-automatic ultrasonic testing, displays the quality condition of the composite plates in real time, and is high in detection speed and high in detection precision.

The invention relates to a wireless remote control electric jack which comprises a jack base, the jack base is provided with a lifting piece, the upper area of the first end of the lifting piece is movably assembled on the jack base through a rotating shaft, and the second end of the lifting piece is provided with a lifting platform; the electric driving part is fixedly assembled on the side, away from the lifting table, of the base, an actuator module is arranged in the electric driving part, a wireless receiving and transmitting unit is integrated on the actuator module, and the output end of the wireless receiving and transmitting unit is connected with the lifting part so as to drive the lifting table to ascend or descend; the battery pack is detachably assembled on the side, close to the electric driving part, of the base, and the battery pack is electrically connected with the electric driving part; and the wireless remote controller is internally provided with a wireless control unit which is matched with the wireless receiving and transmitting unit and is in wireless communication with the wireless receiving and transmitting unit so as to wirelessly and remotely control the start and stop of the electric driving piece. Non-contact control of the electric jack is achieved, radial force generated by swing in the driving mechanism is effectively eliminated, and abrasion of parts is reduced.

The invention discloses an intelligent wireless control method and system for a cloud robot. The method comprises the following steps: constructing a reconfigurable intelligent metasurface assisted cloud robot wireless control system; based on each preset constraint condition, constructing an optimization model comprehensively considering control errors and communication jitter by taking maximization of long-term stability as a target; reconstructing the optimization model by adopting a preset part observable Markov decision process model to obtain a target optimization model; based on observation state information, collected in real time, of each cloud robot in the cloud robot wireless control system, a multi-agent migration reinforcement learning model based on near-end strategy optimization is adopted to optimize the target optimization model, and target parameter values corresponding to the to-be-optimized parameters are obtained, and performing intelligent control on each cloud robot in the cloud robot wireless control system based on the target parameter value. According to the method, the strategy migration efficiency and the system stability of wireless control of the cloud robot can be improved.

A portable fluid tank system can include wireless control capabilities. The portable fluid tank system can include a fluid tank with an internal volume for fluid storage and a fluid actuation system for controlled fluid movement and pressurization. An electronics housing within the portable fluid tank system can accommodate a removable energy storage device, providing power to the actuation system. The portable fluid tank system can include a multi-state control interface, facilitating direct user interaction or remote operation via a wireless communication module. The module can receive and execute commands from a remote transmitting device, enabling remote activation and control of the fluid actuation system.

A vehicle control system to manage keyless entry functionality and communication of a vehicle includes a wireless control module (WCM) configured to be disposed within the vehicle and control one or more keyless entry functions, and a vehicle access device (VAD) to provide keyless entry functionality to a user. The VAD includes a battery powering a wireless communication device (WCD) for communicating with the WCM. The VAD includes a battery saving function configured to selectively deactivate the WCD to preserve battery power when no motion of the VAD is detected for a predetermined period of time. A controller having one or more processors is programmed to detect a presence of the VAD within a predetermined range of the vehicle, and selectively send a signal to the VAD to disable the battery saving function when the VAD is within the predetermined range of the vehicle.

The invention provides a network equipment management method for realizing energy saving and a related device, and the method comprises the steps: constructing at least one relative position point location diagram according to the signal path loss information among a plurality of wireless APs in a target region, and carrying out the region division of each relative position point location diagram; wherein the relative position point map after region division comprises at least one sub-region, and the signal acquisition relationship between the wireless APs in each sub-region meets a set condition; according to the number of terminals connected with the plurality of wireless APs, determining a classification result of the wireless APs in each sub-region for each relative position point map; wherein the classification result comprises a first type of wireless APs and a second type of wireless APs; and controlling the second type of wireless APs to be closed. According to the method, under the condition that the IT network performance is guaranteed, the number of started network devices is reduced, electric power resources are saved, and an energy-saving and carbon-reducing green network is achieved.

An antenna arrangement for a watercraft is disclosed. In an embodiment, the antenna arrangement comprises a first antenna configured to wirelessly communicate with a wireless user device, the first antenna for securement to a top-side of a watercraft; a second antenna configured to wirelessly communicate with a wireless control unit, the second antenna for securement to an underside of the watercraft to place the second antenna in juxtaposed relationship with a third antenna of a wireless control unit; and a radio frequency (RF) transmission line conductively coupling the first antenna and the second antenna.

The invention relates to the technical field of fusion reactor vacuum leak detection, in particular to an unmanned aerial vehicle leak detection system and method based on array ultrasonic and infrared camera fusion. According to the technical scheme, the system comprises an upper computer and further comprises an unmanned aerial vehicle used for executing a flight task, an infrared camera and an array type ultrasonic detector, and the infrared camera is arranged at the end of the unmanned aerial vehicle and used for obtaining real-time environment information, controlling the flight path and detecting leakage points. According to the invention, non-contact and large-area rapid detection of vacuum chamber negative pressure leakage and fuel gas positive pressure leakage of the fusion device is realized through fusion and complementation of the infrared camera and the array ultrasonic detector in combination with high maneuverability of the unmanned aerial vehicle; the multi-scale ultrasonic array dynamic expansion design improves the detection efficiency and precision, the shielding shell guarantees the equipment stability in a strong radiation environment, the remote wireless control avoids the personnel exposure risk, finally, the safety is ensured, the leakage detection time is remarkably shortened, and the labor cost and the radiation hazard are reduced.

A device may determine a layout of the reconfigurable modular display. A device may establish local wireless connectivity to accept concurrent connections from client devices without reliance on external networking infrastructure. A device may obtain game-state data from at least one external source via a programmatic interface. A device may render scoreboard graphics according to the layout. A device may present an interactive activity on the reconfigurable modular display and receive spectator inputs via the local wireless connectivity. A device may update the reconfigurable modular display based at least on the game-state data and an aggregation of the spectator inputs.