Abstract: There are disclosed various apparatuses and methods for tuning a resonance frequency. In some embodiments there is provided an apparatus (200) comprising at least one input electrode (202, 204) for receiving radio frequency signals; a graphene foil (210) for converting at least part of the radio frequency signals into mechanical energy; at least one dielectric support element (212) to support the graphene foil (210) and to space apart the at least one input electrode (202, 204) and the graphene foil (210). The graphene foil (210) has piezoelectric properties. In some embodiments there is provided a method comprising receiving radio frequency signals by at least one input electrode (202, 204) of an apparatus (200); providing a bias voltage to the apparatus (200) for tuning the resonance frequency of the apparatus (200); and converting at least part of the radio frequency signals into mechanical energy by a graphene foil (210) having piezoelectric properties.

Abstract: A system including a wireless device configured to apply selective error correction coding to data content to produce first data and second data, wherein the first and the second data being error correction coded differently; maintain the first data and the second data in a non-volatile memory of the wireless device; receive an electromagnetic signal for powering the wireless device; and transmit the first data and the second data over a short-range wireless link. The system further includes an apparatus configured to transmit an electromagnetic signal for powering the wireless device; receive first and second data over a short-range wireless link, wherein the first data and the second data being error correction coded differently; and apply selective error correction decoding to the first data and the second data to produce data content.

Abstract: Example method, apparatus, and system embodiments are disclosed to provide a high data throughput optical communication link. An example embodiment comprises: a high frequency optical receiver configured to receive signals modulated with high frequency data; an optical waveguide having a receiving portion and a transmitting portion juxtaposed with the receiver, configured to transfer signals incident on the receiving portion, to the transmitting portion, and to transmit the signals to the receiver; a guide portion configured to releasably engage another apparatus, for positioning the waveguide with respect to the other apparatus, to receive at the receiving portion of the waveguide, signals from the other apparatus, for delivery to the receiver; and a wireless power circuit configured to exchange wireless power with the other apparatus, to convert between electrical signals modulated with high frequency data and the optical signals modulated with high frequency data received by the waveguide.

Abstract: In accordance with an example embodiment of the present invention, an apparatus is provided, including a photodetecting structure with one or more photon sensing layers of graphene; and an integrated graphene field effect transistor configured to function as a pre-amplifier for the photodetecting structure, where the graphene field effect transistor is vertically integrated to the photodetecting structure.

Abstract: A radio-powered apparatus (100) is protected from overloading in strong electromagnetic fields. The apparatus uses a resonant circuitry (120) to receive antenna signals at resonance frequency of the resonant circuitry and to obtain power from the received antenna signals. For restricting energy intake of the resonant circuitry, the resonant circuitry is detuned to operate with a smaller efficiency using an adaptive element in the resonant circuitry.

Abstract: A printed wiring board including a conductive layer, the conductive layer including a network of nanotubes with respective longitudinal axes, the nanotubes arranged such that their longitudinal axes are aligned substantially parallel to one another in a configuration such that electrical current passing through the conductive layer along a first axis substantially parallel to the longitudinal axes of the nanotubes experiences one degree of dissipation, and electrical current passing through the conductive layer along a second axis experiences a higher degree of dissipation.

Abstract: Example method, apparatus, and system embodiments are disclosed to provide a high data throughput optical communication link. An example embodiment comprises: a high frequency optical receiver configured to receive signals modulated with high frequency data; an optical waveguide having a receiving portion and a transmitting portion juxtaposed with the receiver, configured to transfer signals incident on the receiving portion, to the transmitting portion, and to transmit the signals to the receiver; a guide portion configured to releasably engage another apparatus, for positioning the waveguide with respect to the other apparatus, to receive at the receiving portion of the waveguide, signals from the other apparatus, for delivery to the receiver; and a wireless power circuit configured to exchange wireless power with the other apparatus, to convert between electrical signals modulated with high frequency data and the optical signals modulated with high frequency data received by the waveguide.

Abstract: An apparatus including a spin torque oscillator configured to receive an input electric current and to produce a radio frequency output signal; and a tunable current source for providing an input electric current to the spin torque oscillator.

Abstract: In accordance with an example embodiment of the present invention, an apparatus is provided, including a plurality of photon sensing layers arranged on top of each other, and an intermediate layer between each two adjacent sensing layers, the sensing layers being of graphene, and each intermediate layer being configured to prevent a respective color component of light from proceeding into the photon sensing layer next to it.

Abstract: A printed wiring board including a conductive layer, the conductive layer including a network of nanotubes with respective longitudinal axes, the nanotubes arranged such that their longitudinal axes are aligned substantially parallel to one another in a configuration such that electrical current passing through the conductive layer along a first axis substantially parallel to the longitudinal axes of the nanotubes experiences one degree of dissipation, and electrical current passing through the conductive layer along a second axis experiences a higher degree of dissipation.

Abstract: In accordance with an example embodiment of the present invention, an apparatus is provided, including a photodetecting structure with one or more photon sensing layers of graphene; and an integrated graphene field effect transistor configured to function as a pre-amplifier for the photodetecting structure, where the graphene field effect transistor is vertically integrated to the photodetecting structure.

Abstract: In accordance with an example embodiment of the present invention, an apparatus is provided, including a scintillator configured to convert ionizing radiation into photons, and a photo detector including at least one graphene layer configured to detect said photons. In accordance with another example embodiment of the present invention, a method is provided, including receiving and detecting photons by a photo detector from a scintillator, said photo detector including at least one graphene layer configured to detect said photons, and transmitting information indicative of said detected photons from said apparatus to an external device.

Abstract: In accordance with an example embodiment of the present invention, an apparatus is provided, including a plurality of photon sensing layers arranged on top of each other, and an intermediate layer between each two adjacent sensing layers, the sensing layers being of graphene, and each intermediate layer being configured to prevent a respective color component of light from proceeding into the photon sensing layer next to it.

Abstract: An apparatus including a spin torque oscillator configured to receive an input electric current and to produce a radio frequency output signal; and a tunable current source for providing an input electric current to the spin torque oscillator.

Abstract: A method and apparatus are provided for receiving compressed sensed data at a device and providing for decompression of the compressed sensed data at a delegated resource. A method of using resources may be provided with superior processing capacity and/or power capacity for computationally intensive decompression of compressed sensed data. A method may include determining a target recipient device for decompressed data, determining the appropriate decompressed data format for the decompressed data, and determining a delegated resource to select for decompression of the compressed sensed data. The method may further include providing for transmission of the compressed sensed data to the delegated resource.

Abstract: A scalable low voltage signaling (SLVS) serial interface structure is configured as a 0.4V NMOS totem-pole driver structure for both high speed differential signaling and slow speed single-ended signaling using the same 0.4V NMOS totem-pole driver structure. An un-terminated receiver (Rx) and a CMOS inverter comparator powered from a 0.4 volt supply, is used for receiving the slow speed single-ended 0-100 mega bits per second (Mbps) signaling in a data link. A terminated receiver (Rx) and a differential comparator powered from a 0.4 volt supply, is used for receiving the high speed differential 2 giga bits per second (Gbps) signaling in the data link.

Abstract: A system and method for transmitting and receiving through a high speed serial link with power up and power down capability. The exemplary embodiments of this invention involves a method of power up and power down the high-speed serial link without using high voltage swing control and signaling. Both the transmitter and the receiver wake up only during pre-defined burst cycles. During each burst cycle, data will be transmitted and received in burst mode. Outside each burst cycle, the transmitter and receiver will be powered off or partially powered off. Various phase-locked loop based circuit ensure the transmitter and the receiver can be locked in frequency and phase quickly at the time of power-up. The duration of the burst cycle and the interval between two adjacent burst cycles can be either fixed or changed by upper level protocol.

Abstract: To significantly reduce mobile station static power consumption, and to make it possible to use a high speed asynchronous link in the mobile station, the invention uses one of the amplitude levels of, preferably, a PAM-5 (Pulse Amplitude Modulation with five amplitude levels) modulation technique as a strobe signal to generate a change in the transmitted signal. The change in the transmitted signal makes it possible for a PAM-5 receiving circuit to sample and decode two consecutive occurrences of the same data bits. The use of this invention avoids the requirement to include an oscillator in the PAM-5 receiver, or to dedicate a signal line to transmit a clock signal from the transmitter to the receiver.

Abstract: A mobile device (10) includes a plurality of sub-assemblies coupled together by a plurality of data communication buses (22) connected to ports (20). At least one port includes a Multi-level Analog Signaling (MAS) circuit arrangement that includes a transmitter (20A) to encode data bits represented by multi-level analog signals. A data communications bus that couples the transmitter to a receiver (20B) in another port includes at least one multi-level, possibly differential signal buses for conveying the encoded data bits such that such that, on each multi-level signal bus, during each data bit period the signal level is required to change from a signal level of an immediately preceding data bit period.

Abstract: To significantly reduce mobile station static power consumption, and to make it possible to use a high speed asynchronous link in the mobile station, the invention uses one of the amplitude levels of, preferably, a PAM-5 (Pulse Amplitude Modulation with five amplitude levels) modulation technique as a strobe signal to generate a change in the transmitted signal. The change in the transmitted signal makes it possible for a PAM-5 receiving circuit to sample and decode two consecutive occurrences of the same data bits. The use of this invention avoids the requirement to include an oscillator in the PAM-5 receiver, or to dedicate a signal line to transmit a clock signal from the transmitter to the receiver.