Abstract:
A wireless device 101 is a wireless device having identification information, and includes: an operation unit 11; a power generating unit 12 that generates electric power by operation on the operation unit 11; a signal generating unit 13 that operates by using the electric power generated by the power generating unit 12 and is capable of outputting a signal of a kind corresponding to the content of each operation on the operation unit 11; a storage unit 15 that operates by using the electric power generated by the power generating unit 12 and nonvolatilely stores the content of an output signal of the signal generating unit 13, the identification information, and reference information; and a transmission control unit 14 that compares the content of the output signal with the reference information when the operation on the operation unit 11 satisfies a predetermined condition, the content of the output signal and the reference information being stored in the storage unit 15, and transits to a transmission permission state in which transmitting a wireless signal including the identification information stored in the storage unit 15 to a different device is permitted when a result of the comparison satisfies a predetermined condition.
Abstract:
A method for detecting motion status of moving object structure is disclosed. The Coach controls the remote control receiving module with the remote control transmitting module to actuate the control circuit module. After the sportsman attacks the body, the Coach and/or the sportsman may see the light emitted by the light emitting module to know the motion status of the body, and detect it by the sensor and then be transmitted to control circuit module to data processing. After data processing, the message (including path, placement, height, speed, pressure, hitting point, angle, track, distance, and etc.) may be transmitted to the wireless transmission receiving module via the wireless transmission transmitting module with RF or Bluetooth and displayed on the wireless transmission receiving module to provide training. Furthermore, it may be charged by wireless charging to prevent from powering exhaustion.
Abstract:
A method is provided that integrates a unique set of structural features for concealing self-powered sensor and communication devices in aesthetically neutral, or camouflaged, packages that include energy harvesting systems that provide autonomous electrical power to sensors, data processing and wireless communication components in the portable, self-contained packages. Color-matched, image-matched and/or texture-matched optical layers are formed over energy harvesting components, including photovoltaic energy collecting components. Optical layers are tuned to scatter selectable wavelengths of electromagnetic energy back in an incident direction while allowing remaining wavelengths of electromagnetic energy to pass through the layers to the energy collecting components below. The layers uniquely implement optical light scattering techniques to make the layers appear opaque when observed from a light incident side, while allowing at least 50%, and as much as 80+%, of the energy impinging on the energy or incident side to pass through the layer.
Abstract:
Provided is a portable controller and associated method that provides a patient or caregiver the ability to recharge and alter the parameters of an implanted medical device, while allowing the patient substantially unobstructed mobility. To enable mobility, the controller may be worn on a belt or clothing. The controller also allows the patient to turn device stimulation on and off, check battery status, and to vary stimulation parameters within ranges that may be predefined and programmed by a clinician. The controller communicates with the medical device to retrieve information and make parameter adjustments using wireless telemetry, and it can send and receive information from several feet away from the implanted medical device. Charging of a battery contained in the implanted medical device is achieved via an inductive radio frequency link using a charge coil placed in close proximity to the medical device.
Abstract:
A wearable device is disclosed that, while being worn by a user, may allow a user to authenticate to a second device such as a smartphone without having to enter an unlock code such as a personal identification number. The wearable device may detect when the user removes it. Removal of the wearable device may cause it to be disabled and prevent it from being used to authenticate a subsequent user to the second device until it is re-enabled.
Abstract:
A method is provided that integrated a unique set of structural features for concealing self-powered sensor and communication devices in aesthetically neutral, or camouflaged, packages that include energy harvesting systems that provide autonomous electrical power to sensors, data processing and wireless communication components in the portable, self-contained packages. Color-matched, image-matched and/or texture-matched optical layers are formed over energy harvesting components, including photovoltaic energy collecting components. Optical layers are tuned to scatter selectable wavelengths of electromagnetic energy back in an incident direction while allowing remaining wavelengths of electromagnetic energy to pass through the layers to the energy collecting components below. The layers uniquely implement optical light scattering techniques to make the layers appear opaque when observed from a light incident side, while allowing at least 50% and as much as 80+%, of the energy impinging on the energy or incident side to pass through the layer.
Abstract:
A remote controller 101 includes: an operation unit 11; a power generating unit 12 that generates electric power by operation on the operation unit 11; a signal generating unit 13 that operates by using the electric power generated by the power generating unit 12 and is able to output a signal of a kind corresponding to the content of each operation on the operation unit 11; a storage unit 15 that operates by using the electric power generated by the power generating unit 12 and nonvolatilely stores the content of an output signal of the signal generating unit 13; and a transmission control unit 14 that operates by using the electric power generated by the power generating unit 12 and transmits a wireless signal including information corresponding to the content of the output signal stored in the storage unit 15 when the operation on the operation unit 11 satisfies a predetermined condition.
Abstract:
According to some aspects, a power regulation system for energy harvesters that lacks a battery is provided. In some embodiments, the power regulation system may receive power from multiple energy harvesters that generate energy from different sources, such as wind currents and ambient light. In these embodiments, the power regulation system may selectively provide power from one or more of the energy harvesters to a load as environmental conditions change and power itself with energy from the energy harvesters. Thereby, the power regulation system may start and operate without a battery and provide power to the load over a wider range of environmental conditions.
Abstract:
A remote control device includes: a housing; a central processor arranged in the housing and configured to control operations of the remote control device; a thermoelectric generator arranged in the housing and coupled to the central processor; a button module arranged in the housing and coupled to the central processor and the thermoelectric generator; and a communication module coupled to the central processor and the thermoelectric generator, wherein: the thermoelectric generator includes an electricity generator having two metal sheets made of different materials, the two metal sheets being connected to each other at two connection points and forming a closed loop circuit via the two connection points, and the electricity generator is configured to generate a thermoelectromotive force based on a temperature difference between the two connection points, and power the central processor, the button module, and the communication module using the thermoelectromotive force.
Abstract:
The current embodiments provide a switch device for a wireless pushbutton, wherein the switch device comprising an energy conversion mechanism, a signal output mechanism, an actuation device, and a plurality of encoding contacts. The actuation device may be configured to establish contact with at least one of the plurality of encoding contacts when a first quantity of an actuation force is applied for generating an encoded signal. The actuation device may be configured to activate the energy conversion mechanism to generate energy when a second quantity of an actuation force greater than the first quantity is applied to the activation device. The signal output mechanism may be configured to transmit a wireless output signal using the encoded signal when the energy conversion mechanism is activated.