Intel Corporation

Hossein Alavi

Markus Dominik Mueck

Vladimir Ivanov

Harry G Skinner

Farhana Sheikh

Adesoji J Sajuyigbe

Ram K Krishnamurthy

Donald S Gardner

Jesse R Walker

Ehud Reshef

Men Long

Sumeet Sandhu

Alpa T Narendra Trivedi

Patrick Koeberl

Arnaud Lucres Amadjikpe

Masoud Sajadieh

Tae Young Yang

William Dawson Kesling

Firouz Behnamfar

Timo Huusari

Surendra Boppana

A radar device may include a digital to analog converter (DAC) stage. The DAC stage may generate a plurality of analog signals. The DAC stage may generate a different analog signal for each transmitter chain of a plurality of transmitter chains. Each analog signal of the plurality of analog signals may represent a single digital signal. Each transmitter chain of the plurality of transmitter chains may include a transmit chain portion and switched analog beamforming network (BFN). The transmit chain portion may generate a plurality of intermediate analog signals representative of the corresponding analog signal. The switched analog BFN may generate a plurality of analog transmit signals for an intermediate analog signal of the plurality of intermediate analog signals. The plurality of analog transmit signals may include a beam formed in accordance with a state of the switched analog BFN.

High end imaging radar

Orbital angular momentum (OAM)-based multiplexing includes accessing distinct data streams to be multiplexed and transmitted according to a corresponding plurality of OAM modes. The OAM-based multiplexing further includes generating a set of antenna element-specific signals corresponding to individual antenna elements of an antenna array. Individual ones of the antenna element-specific signals are based on corresponding distinct data streams.

Orbital angular momentum (OAM) mode multiplexing transmission system

Orbital angular momentum-based multiplexing with shared antenna elements

The disclosure generally relates to a method, apparatus and system for identifying non-compliant radio emissions and for enforcing compliance. In one embodiment, the disclosure relates to a dynamic radiation control of a radio by measuring a signal attribute for an outbound signal having a protocol; comparing the signal attribute with a predefined mask, the predefined mask governed by at least one of a radio location or a signal protocol; and determining whether to transmit the outbound signal.

Method and apparatus for dynamic radio emission compliance monitoring

Embodiments of a variable inductor and a communication device are generally described herein. The variable inductor may comprise a signal wire and a control wire to receive a direct current (DC) control current. The variable inductor may further comprise a magnetic material integrated with the signal wire and the control wire. When a DC control current applied to the control wires takes a first current value, an inductance between an input node and an output node on the signal wire may take a first inductance value. When the DC control current takes a second current value, the inductance between the input node and the output node may take a second inductance value.

Variable inductor and wireless communication device including variable device for conversion of a baseband signal to a radio frequency (RF) range

A method and system for self-interference cancellation in a wireless communication device. The wireless communication device can include a first interference detector, a second interference detector, an interference canceler, and a controller. The first interference detector can be configured to detect interference in a received signal. The interference canceler can be configured to perform one or more interference cancellation processes on the received signal. The second interference detector can be configured to detect interference remaining in an interference canceled signal processed by the interference canceler. The controller can be configured to enable or disable the interference canceler based on the detection of the first and/or the second interference detectors.

Interference cancelation

The present application discloses device and system embodiments that address mobile device integration considerations for various categories of UV sensors, including cameras, photodiodes, and chemical sensors. The UV sensors may use the functionalities of the existing in-built sensors in conventional mobile devices, and/or integrate additional components specific to UV sensing. By optimally positioning the sensors, UV sensing and other collateral functionalities (e.g., charging a photovoltaic cell integrated with the mobile device) can be realized in parallel.

Mobile device based ultra-violet (UV) radiation sensing

Some demonstrative embodiments include devices, systems and/or methods of configuring a radio transceiver. For example, some embodiment include a radio virtual machine (RVM) to configure a radio transceiver, the RVM including a radio processor to execute a first code configuring one or more transceiver functionalities independent of a configuration of the radio transceiver, and to generate a second code based on the configuration of the radio transceiver and the first code, wherein the second code is to be executed by the radio transceiver to configure the one or more transceiver functionalities for the radio transceiver.

Device, system and method of configuring a radio transceiver

An apparatus that enables baseband time domain cancellation of data bus interference is described herein. The apparatus includes a wireless receiver and a cancellator. The cancellator is to determine an estimate of wireless interference in a baseband time domain on data to be received by the wireless receiver and to subtract the estimate of wireless interference from the data.

Baseband time domain cancellation of data bus interference

A radio equipment comprises waveform generator to receive input data and to generate output baseband waves corresponding to the received input data, and a radio-frequency component to transform the baseband waves generated in radio waves. The waveform generator comprises a Radio Virtual Machine (RVM) that has been compiled to operate on hardware underlying the RVM. The RVM comprises an associated RVM class that establishes a level of reconfigurability of low-level parameters of the RVM. The RVM class comprises one of a plurality of RVM classes in which each RVM class comprises a corresponding level of reconfigurability of low-level RVM parameters and a corresponding level of certification testing for reconfigured RVMs of the class. In one exemplary embodiment, the plurality of RVM classes comprises at least one RVM class comprising full reconfigurability of low-level RVM parameters and at least one RVM class comprising limited reconfigurability of low-level RVM parameters.

Method for certification of reconfigurable radio equipment when reconfiguration software developed by third party

Some demonstrative embodiments include apparatuses, systems and/or methods of protecting domains of a multimode wireless radio transceiver. For example, an apparatus may include a protection domain controller (PDC) to restrict access of a configuration software to a protection domain of a plurality of protection domains of a multimode wireless radio transceiver based on a security level of the configuration software, wherein the protection domain includes one or more radio configuration parameters of the multimode wireless radio transceiver.

Apparatus, system and method of protecting domains of a multimode wireless radio transceiver

Device, system, and method of flicker noise mitigation. For example, an apparatus includes a digital adaptive filter to mitigate flicker noise from a received Orthogonal Frequency-Division Multiplexing (OFDM) signal, wherein the digital adaptive filter includes: a prediction filter to estimate a value of the flicker noise based on linear combination of past low-pass filtered signal samples; a trainer sub-circuit to modify a coefficient of the prediction filter based on a difference between: a known incoming signal filtered by the prediction filter in a training stage, and a locally-generated reference copy of the known signal; a first path including a first pair of analysis-synthesis filters; and a second, parallel, path including a second pair of analysis-synthesis filters and further including the prediction filter.

Growing community of inventors

Portland, OR, United States of America

Hossein Alavi