143 results about "Radio control" patented technology

A radio-controlled model vehicle is provided including a model vehicle chassis, a vertically mounted motor, and a rear axle, configured to pivot in a vertical direction relative to the model vehicle chassis via one or more rear axle linkages. The rear axle also includes a vertical rear axle differential. The model vehicle further includes a gear reduction transmission including a spur gear comprising spur gear teeth offset from a spur gear center portion, and a pinion gear engaged with the spur gear teeth. In addition, the model vehicle includes a vertical, extendable driveshaft that has one end attached to the spur gear center portion and another end attached to the rear axle differential. Wherein the driveshaft extends through the spur gear and the motor powers propulsion wheels coupled to the rear axle via the gear reduction transmission, driveshaft and rear axle differential.

A method can include communicating, by a wireless device in a radio resource control (RRC) idle state or an RRC inactive state and with a first base station, packets associated with a service. The method can also include determining a quality-of-experience (QoE) of the service based on the communicating the packets. The method can further include sending, to a second base station, a first RRC message indicating that a measurement report associated with QoE of the service is available. The method can additionally include sending, to the second base station, a second RRC message that includes the measurement report. The measurement report can include the QoE of the service and area information associated with the QoE of the service.

A radio-controlled (RC) model vehicle body assembled with a panel connection system is provided. The system includes a first panel section having a mounting tab offset from a first panel outer surface and a tab mounting hole in the mounting tab. The system also includes a second panel section having a receiving slot and an offset panel mounting hole both offset from the second panel outer surface. The system includes a panel bracket comprising having an offset bracket first section and a bracket second section. The panel bracket further includes a first bracket mount in the offset bracket first section and a second bracket mount in the bracket second section. The second panel section is fastened to the panel bracket using the first bracket mount and the offset panel mounting hole and the mounting tab is inserted into the receiving slot and fastened to the second bracket mount.

In one embodiment, an apparatus includes a first radio controller configured to communicate using a first protocol; and a pseudo-random number generator configured to generate a pseudo-random output value based on the input data value. The apparatus includes a processor configured to determine a preamble based on an output of the pseudo-random number generator, and process a data packet received using the first radio controller using the preamble to generate a processed data packet.

An electronic device may include radios that transmit signals using antennas. Control circuitry may assign radio-frequency exposure (RFE) budgets to the radios. The control circuitry may classify and predict attributes of application data for transmission over the radios, may generate a per-radio data prediction based on the classified attributes, and may generate the RFE budgets based on the classified attributes. Each radio may transmit application data based on its data prediction and according to its RFE budget. A dynamic portion of the RFE budget may be reserved for control signaling. RFE planning in this way may ensure that the device optimally utilizes its RFE budget, increasing overall RFE during some time periods so sufficient transmit power is available, and ensuring that RFE is distributed across the radios depending on the amount and criticality of the data to be transmitted by each radio.

A communications system may include a head-mounted device (HMD) and at least one other device. The HMD may capture camera data from its surroundings. The devices may include radios for wirelessly communicating via corresponding communications links. The HMD may help to adjust one or more of the radios based on the camera data. The adjustments may include transitioning the radio(s) between radio states, controlling how the radio(s) search for other devices, controlling the radio(s) to initiate or end a particular connection, controlling the radio(s) to enter or exit a power-saving mode, disabling or powering off the radio(s), controlling the radio(s) to coordinate video streaming / playback, and / or controlling the radio(s) to coordinate reminders. Leveraging the optical capabilities of the HMD may allow the devices to wirelessly connect to each other in a seamless and efficient manner while also minimizing power consumption by the radios and user interaction with the devices.

A hoist hook includes a main plate, a first slide plate, a second slide plate, a first base, a second base, a pair of hooks, a flywheel, and rack. The first slide plate and the second slide plate are fixed to each other and are configured to be suspended from a radio-controlled unmanned aircraft and to slide vertically relative to the main plate while sandwiching the main plate. The first base and the second base are fixed to each other and are configured to slide vertically relative to the main plate while sandwiching the main plate. The pair of hooks are each rotatably linked to the first base and the second base. The flywheel is rotatably fixed to the main plate. The rack engages with the flywheel and is fixed to the first slide plate.

The present invention proposes a mobile robotic system capable of carrying out the movement, manipulation and precise installation of industrial loads (pipes, plates, equipment, parts, materials, etc.), using a single operator for that and presenting ease of use. The invention is basically composed of an anthropomorphic-type industrial robot (3) and a crawler mobile platform (11). The load capacity of the invention is limited by the maximum load capacity of the industrial robot employed. The precise positioning step has a special force amplification system (external exoskeleton) capable of moving a load fixed on the industrial robot wrist (position and orientation) with the force actions of an operator, directly on the robot wrist, or by means of a security extension. The robotic system can be controlled by radio control, capable of allowing both the control of the robot and the movement of the platform.The proposed system of this invention comprises a mobile platform for all types of terrain, an industrial robotic arm, an effector for handling pipes, an effector to pick up metal plates, the respective supports of effectors in a quick tool change system, a diesel electric generator, an industrial radio control, safety sensors and a video monitor for two cameras positioned on the robot structure.

1. The name of this design product: Vehicle-mounted radio control system operating console. 2. Purpose of this design product: It is a radio-specific operating platform that integrates system power supply and equipment control functions to ensure stable operation and efficient control of the radio system. 3. The key design point of this design product lies in the combination of shape and pattern. 4. The picture or photo that best illustrates the design points: Stereoscopic drawing 1.

The invention relates to non-lethal weapons for unmanned vehicles used in law enforcement services. A method of non-lethally incapacitating a target from a vehicle, comprising: mounting on the unmanned vehicle a multi-shot launcher unit equipped with a stun round or other non-lethal incapacitant round. The unit is permanently mounted to the vehicle or mounted to the vehicle in a manner that it can be detached from the vehicle while maintaining a tethered connection to the vehicle. An incapacitation system comprising a wheeled or tracked transport platform or a multi-copter with a launcher unit that is movably attached in a cradle controlled by an operator or a multi-copter with a satellite that can be separated from the multi-copter and connected to it by a power cable with a winch, each of the above being radio controlled by an operator or an automated system for controlling movement of the vehicle and for controlling the launcher unit with a camera. The effect is the ability to use different types of non-lethal incapacitation, avoid counterattacks with kinetic incapacitation means, improve the operator's situational awareness and allow greater concealment when approaching a lawbreaker.

The image relating to the present design is a display image that shows the movement status of a work vehicle, representing the movement status of the work vehicle, whether it is stopped or moving, with a display icon. The "image diagram" shows the state in which the work vehicle is stopped, and the "image diagram of the changed state" shows the state in which the work vehicle is moving. The image changes between the "image diagram" and the "image diagram of the changed state" depending on the movement status of the work vehicle. This image can be displayed on the display unit of a radio control unit that can remotely control a work vehicle such as a lawnmower, as shown in, for example, "Reference Diagram 1" and "Reference Diagram 2 showing the state of use".

An automobile includes an entertainment execution device, a display device and a mode select controller. The entertainment execution device executes entertainment software, communicates with radio control equipment, or plays back a video content. The display device displays an image output from the entertainment execution device on a windshield or on a flexible display capable of being raised or lowered between a front windshield and a steering wheel. The mode select controller enables selection between an entertainment mode for operating the entertainment execution device and a driving mode for driving the automobile and executes control according to each mode. The mode select controller controls the display device to display the image output in a first region of the windshield in the driving mode, and to display the image output in a second region of the windshield or on the flexible display in a raised state in the entertainment mode.

The invention provides a time service signal protection method and a time service protection system using a radio controlled clock. The method comprises the following steps: monitoring whether a time signal received by a GNSS (Global Navigation Satellite System) receiver is interfered or not; if interference occurs, ephemeris data of a satellite are obtained through a GNSS receiver, and a reference clock signal is obtained through a radio controlled clock tame correction crystal oscillator; generating an analog satellite signal based on the ephemeris data and the reference clock signal; and outputting the simulated satellite signal to satellite time service clock equipment. When the time service protection equipment provided by the invention is interfered, accurate satellite signal output is completed by means of the self-generated simulation satellite signal, and the accurate satellite signal output is completed by using the wave clock, so that higher precision, stability and anti-interference performance are achieved.

To reduce the influence of radio wave interference that may occur when waiting for connection from an information processing device.SOLUTION: The present invention provides a wireless device capable of wirelessly communicating with an information processing device, wherein the wireless device includes a wireless control unit that waits for connection from the information processing device in both P2P connection and infrastructure connection, and a standby control unit that stops waiting for P2P connection when the wireless control unit is connected to the information processing device via infrastructure connection.SELECTED DRAWING: Figure 11

To provide a radio clock repeater that can be attached in position by a single hand without losing components.SOLUTION: A radio clock repeater comprises: a slave unit body 21 that outputs a pseudo-standard radio wave; a slave unit casing 12 in which the slave unit body 21 is housed; a fastener 13 which is provided at the slave unit casing 12 and fastens the slave unit casing 12 to a wall surface fixture F; and a fixture 16D for fixing a radio clock C to the front of the slave unit casing 12. The fastener 13 includes a plate body 14 formed with a wall-hanging hole 14A into which a tip Ft of the wall surface fixture F is inserted, and a lock member 15 which is located below the wall-handing hole 14A and prevents the tip Ft from coming off. The lock member 15 includes a leaf spring member 15A fixed to the plate body 14, and a non-fixing part 15B attached to the leaf spring member 15A and capable of coming close to or separating from the wall-handling hole 14A. The non-fixing part 15B is biased to be in a state of being close to the wall-hanging hole 14A.SELECTED DRAWING: Figure 7

Irrigation of agricultural and horticultural crops is a crucial component of modern agriculture, ensuring consistently high yields. In this context, drip irrigation, and especially subsurface drip irrigation, is a very water-efficient approach. However, flushing drip irrigation systems with branch lines is a very labor-intensive process, as each line must be manually opened and closed individually. The present invention relates to a drip irrigation system for the irrigation and / or fertigation of agricultural, forestry, or horticultural areas with radio-controlled, automatic flushing. The present invention enables, by using actuator units with valves, each comprising cost-effective short-range radio modules (e.g., 10 m) and each utilizing other actuator units as repeaters for radio communication with the more distant control unit, a very cost-effective automation for opening and closing the drip lines during the flushing process.

Various embodiments comprise systems, methods, architectures, mechanisms or apparatus providing far-field wireless charging of implanted medical devices, Internet of Things (IoT) and the like via a leader radio configured for receiving spread spectrum (SS) modulated radio waves from a plurality of slave radios within an area including the leader radio and a target device, for receiving from the target device backscatter radio energy associated with the (SS) modulated radio waves, and for generating slave radio control signals; the leader radio, in a charging mode of operation, being configured for determining changes in received power associated with backscatter radio energy received from the target device and responsively transmitting control signals toward the slave radios configured to cause the slave radios to modify respective radio wave transmission times such that slave radio wave transmissions are substantially phase aligned when received at the target device.

The utility model relates to the technical field of radio controlled clocks, and discloses a pointer type radio controlled clock movement capable of quickly calling memory time, which comprises a shell, a pointer shaft is arranged in the center of the shell, a gear is connected to the bottom of the pointer shaft, and a PCB (printed circuit board) is arranged in the shell. According to the pointer type radio controlled clock movement capable of quickly calling the memory time, the microcontroller, the main battery, the memory battery, the voltage stabilizing module, the power supply switching module, the battery low-voltage detection module, the signal receiving and timing module and the movement driving chip are arranged on the PCB, so that the whole machine has a time memory function; the pointers can call and memorize within sixty seconds after returning to zero, quickly display current standard time, save time and electric energy, optimize user experience, and solve the problems that when a battery of an existing radio controlled clock is replaced, signals are difficult to receive, electric energy and time are wasted in vain, energy conservation and environmental protection are not facilitated, and the service life of the existing radio controlled clock is prolonged due to the fact that radio signals in the daytime are complex and large in interference. And the user experience is poor.

Claim: Claim for a system for controlling the line mechanism of a retractable line, with a wireless radio control that communicates via an integrated radio module that operates in the WLAN, Bluetooth, NFC and 433 MHz radio band, whereby the actuator activates the locking device of the line mechanism mechanically, electromechanically or electronically in order to block or release the line movement, whereby various locking devices, such as motor-operated locking bolts, electromagnetic clamping mechanisms or motorised lever systems, can be used.

A radio remote-control apparatus having energy harvesting and rotation sensing functions, comprising: a motor (1), an energy harvester (2), a rotation sensor (3) and a radio transmitter (4), wherein a stator of the motor (1) at least includes two windings; an input of the energy harvester (2) and an input of the rotation sensor (3) are both connected to the windings; an input of the radio transmitter (4) is connected to an output of the rotation sensor (3); when a circular dial (5) connected to a rotating shaft of the motor (1) is rotated, the motor (1) serves as a generator, both the windings generate alternating-current signals and output same to the energy harvester (2), and the energy harvester (2) provides a power supply to the rotation sensor (3) and the radio transmitter (4); in addition, the amount of rotation and direction of rotation of the circular dial (5) are also reflected in phase changes of the signals output by the windings, and on the basis of the phase changes of the signals output by the windings, the rotation sensor (3) generates a control signal, which is modulated and transmitted by the radio transmitter (4). The problem of it being difficult to realize self-supply of electric energy in rotation-sensing radio control is effectively solved, and a low-cost and efficient rotation remote-control mode is provided.

A system includes a control device, a first mobile computing device connected to the control device using at least one first flexible printed circuit (FPC) connector, and a second computing device that communicates with the first mobile computing device using at least one second FPC connector, wherein the control device receives input and the first mobile computing device receives a broadcast and a key value, the control device upon receiving the input simultaneously changes to a first particular channel for a first radio communication and a second particular channel for a second radio communication, the first particular channel associated with the second particular channel, and the first mobile computing device transmits the broadcast and the key value as the first radio communication and the second computing device transmits the broadcast and the key value as the second radio communication simultaneously.

A platform for an improved radio control system for mobile equipment (e.g., crane) is provided that has different types of Transmitters (Basic Transmitter, Standard Transmitter, Belly Box Transmitter, and Mill-Style Belly Box Transmitter) and different types of Receivers (Standard Crane Mount Receiver, Digital Receiver, Expandable Receiver operable with different internal expansion cards, and different external Receiver boards) from which users can create a customized radio system for their desired radio controlled machine application (e.g., a DC Radio System, or an AC Radio System, for industrial and commercial environments). Transmitters have platform-wide battery pack and charger compatibility. Transmitters / Receivers have USB connections to obtain data logs, and various indicators (e.g., tricolor LEDs) for battery status, pairing status, and / or operational configuration or status (e.g., fault). Transmitters / Receivers are supplied with a basic Configuration or a Customer Specific Configuration; and a button interface, or a configuration software application and interface, to modify configuration.

An attitude control device mounted on a radio-controlled model airplane, which is a controlled object controlled based on a control signal received from an external device, comprises a calculation part configured to selectively output a first aileron control signal, which is input as the control signal, and a second aileron control signal, which is calculated based on a roll angle of the controlled object to maintain the controlled object in a horizontal state. The calculation part selects and outputs the second aileron control signal when the following conditions are satisfied: turning on of a function is instructed by a function setting signal received from the external device; the first aileron control signal is a signal indicating neutral; and the roll angle of the controlled object is within a set angle.

A radio communication apparatus that simultaneously uses multiple radio channels, the radio communication apparatus includes a radio communicator, and a radio controller, wherein the radio controller uses multiple transmission methods, at least one of the multiple transmission methods is a method for reducing latency, at least one radio channel of the multiple radio channels is allocated to the method for reducing latency, a beacon is transmitted on the multiple radio channels by use of the radio communicator, and information transmitted in the beacon includes an information element indicating the at least one radio channel allocated to the method for reducing latency.

A vehicle (1) comprises a frame (2) having a longitudinal axis (X), a transverse axis (Y) and a vertical axis (Z); the vehicle (1) has a drive unit (8), a control unit (9), a movement unit (3, 3I, 3II), and a remote control (10); wherein the control unit (9) is configured to exchange information and data with the remote control (10) to regulate the drive unit (8); wherein the frame (2) is provided with a fixed part (5) and a movable part (6); wherein at least a portion of the drive unit (8) is fixed to the movable portion (6); the vehicle (1) having a lifting system (7) interposed between the fixed part (5) and the movable part (6) and configured to move the movable part (6) relative to the fixed part (5) along the vertical axis (Z); wherein the lifting system (7) has a plurality of actuators (18, 18I, 18II).

The invention provides a universal radio control detector test system. The universal radio control detector test system comprises a horn antenna, test equipment and an upper computer, the horn antenna is used for receiving a signal sent by a to-be-tested antenna and is connected with test equipment through a radio frequency cable; the test equipment comprises a radio frequency chip, an AD chip and an FPGA chip, the FPGA chip is used for running an FPGA program, and the FPGA program is used for setting hardware configuration, processing a received signal and sending a processed test result to the upper computer; the upper computer is used for selecting hardware configuration, switching a test mode and displaying a measurement result; the measurement mode supports a manual measurement mode and an automatic measurement mode; according to the invention, hardware configuration is set through an FPGA program, different scenes and different radio control detectors can be tested, and test indexes under a plurality of frequency points can be automatically tested in an automatic test mode; a threshold value and an LED lamp are arranged to cooperate with the fine tuning mechanism to adjust the horn antenna, so that the signal receiving effect can be improved, and the test equipment is high in integration level, good in portability and simple to operate.

A platform for an improved radio control system for mobile equipment (e.g., crane) is provided that has different types of Transmitters (Basic Transmitter, Standard Transmitter, Belly Box Transmitter, and Mill-Style Belly Box Transmitter) and different types of Receivers (Standard Crane Mount Receiver, Digital Receiver, Expandable Receiver operable with different internal expansion cards, and different external Receiver boards) from which users can create a customized radio system for their desired radio controlled machine application (e.g., a DC Radio System, or an AC Radio System, for industrial and commercial environments). Transmitters have platform-wide battery pack and charger compatibility. Transmitters / Receivers have USB connections to obtain data logs, and various indicators (e.g., tricolor LEDs) for battery status, pairing status, and / or operational configuration or status (e.g., fault). Transmitters / Receivers are supplied with a basic Configuration or a Customer Specific Configuration; and a button interface, or a configuration software application and interface, to modify configuration.

This radio wave control plate is a radio wave control plate capable of emitting incident radio waves in a predetermined direction, and includes a plurality of unit structures arranged on a first surface. The unit structure includes a substrate and an electrode provided on the substrate and formed in a mesh shape in a plan view.

FIELD: lighting technology.SUBSTANCE: invention can be used in street and outdoor lighting installations based on LED lights using wireless communication technologies. The declared LED street light comprises a housing, a mounting unit, protective glass, modules with LEDs of two CCTs arranged in a staggered pattern, and terminal blocks. It includes a two-channel LED driver, each channel of which is connected to LEDs with the same CCT, a control module based on a NEMA connector, located on the light body, and a lighting controller installed in the control module, which converts radio control signals transmitted in automatic mode or in manual mode on command from the dispatcher, into electrical signals arriving at two independent input channels of the LED driver.EFFECT: expansion of the functional capabilities of the light while simplifying the design due to the use in the light circuit of a two-channel LED driver with two independent output channels: one for regulating the output current for controlling the power of the LEDs, the other for regulating the colour temperature.5 cl, 6 dwg