Abstract: A wireless charging system is provided that includes a charger portion that receives one or more portable elements for charging wirelessly. The charger portion controls the amount of power needed to charge the one or more portable elements. An inband communication module receives inband communications with the one or more portable elements using a random access mode. The charger portion utilizes the inband communications to determine how much power is needed, via energy based reporting, to charge the one or more portable elements that avoids conveying identification information.

Abstract: A method includes, during a first iteration of a first decoder for decoding convolutionally encoded data elements, determining a first value of a first path metric. The method also includes, during a second iteration of the first decoder, determining a second value of the first path metric by using the first value of the first path metric as an initial value of the first path metric.

Abstract: This patent application relates generally to wireless communications systems, and, more particularly, mobile station receiver architecture.

Abstract: A wireless communication system is provided that includes a base station receiving a plurality of input signals that are selectively provided to a plurality of precoders. The precoders perform precoding operations on the input signals and output a first signal. The base station includes an algorithm that minimizes total transmit power per antenna under signal to interference and noise ratio (SINR) target constraints or maximizes the SINR under a sum of power constraint so as to determine power allocation and obtain efficient precoders. A number of mobile receiver units receive the first signal and performs their respective operations to extrapolate the linear estimate of the input signals.

Abstract: A method includes receiving data in a first data processing module, and enabling a second data processing module when at least one signal time slot of the received data comprises data that complies with a first data transmission standard. The method also includes exchanging signals between the first data processing module and software executing in a processor, and determining that a software configuration of the second data processing module has been completed. The method also includes processing the data in the second data processing module for the at least one signal time slot, and enabling a third data processing module upon a completion of processing at least one data block in the second data processing module, and determining that a software configuration of the third data processing module has been completed, the at least one data block comprising multiple signal time slots.

Abstract: A method includes receiving data elements representative of constellation points of a modulated signal. Each data element includes a gain. The method also includes identifying a common gain value among the received data elements, and adjusting the data elements to include the common gain value.

Abstract: An apparatus for processing signals in a wireless system includes a first memory module to receive input data from a set of physical channels, a first plurality of sub-modules to process the input data. Each of the first plurality of sub-modules is selected to function based upon data and transmission channel specifications. The apparatus also includes a second memory module to receive processed input data and output intermediate data. Locations of the input data in the second memory is allocated in connection with data and transmission channel specifications. The apparatus also includes a second plurality of sub-modules to process the intermediate data. Each of the second plurality of sub-modules is selected to function based upon data and transmission channel specifications. The apparatus also includes a third memory module to receive and output bit rate processing output.

Abstract: A method includes, during a first iteration of a first decoder for decoding convolutionally encoded data elements, determining a first value of a first path metric. The method also includes, during a second iteration of the first decoder, determining a second value of the first path metric by using the first value of the first path metric as an initial value of the first path metric.

Abstract: A method comprises receiving a sequence of unique memory addresses associated with concatenated, convolutionally encoded data elements. The method also comprises identifying each of the unique memory addresses as being included in one group of a plurality of address groups. Each address group substantially includes an equivalent number of unique addresses. The method also comprises, in parallel, accessing at least one memory address associated with each group of the plurality of address groups to operate upon the respective concatenated, convolutionally encoded data elements associated with each of the unique memory addresses being accessed.

Abstract: A wireless device has a BRP-CRP interface that includes a dual-port frame memory having a first access port and a second access port in which data can be written to the dual-port frame memory through the first access port at the same time that data is read from the dual-port frame memory through the second access port. A bit rate processor performs bit rate processing on input data and writes data resulting from the bit rate processing to the dual-port frame memory through the first access port. A chip rate processor reads data from the dual-port frame memory through the second access port and performs chip rate processing on the data read from the dual-port frame memory. A data processor executes a software application that writes data to the dual-port frame memory through the first access port and reads data from the dual-port frame memory through the second access port.

Abstract: A system includes a receiver for receiving a modulated signal. The receiver includes a gain estimator for converting complex data representative of constellation points of the modulated signal into scalar data representation. The gain estimator is configured to fold a first portion of the scalar data representation onto a second portion of the scalar data representation. The gain estimator is further configured to estimate a constellation gain value from the folded first portion and the second portion of the scalar data representation.

Abstract: A method includes segmenting a first portion of a data block into a plurality of segments that includes a first segment. The data block includes a second portion, different from the first portion, which stores cyclic redundancy check data calculated from data stored in the first portion of the data block. The method also includes calculating cyclic redundancy check data from the first segment, and, translating the calculated cyclic redundancy check data to a location associated with the data block. The method also includes combining the cyclic redundancy check data associated with the first segment and cyclic redundancy check data associated with at least one other segment included in the plurality of segments. The method also includes using the combined cyclic redundancy check data for error detection.

Abstract: An apparatus for processing signals in a wireless system includes a first memory module to receive input data from a set of physical channels, a first plurality of sub-modules to process the input data. Each of the first plurality of sub-modules is selected to function based upon data and transmission channel specifications. The apparatus also includes a second memory module to receive processed input data and output intermediate data. Locations of the input data in the second memory is allocated in connection with data and transmission channel specifications. The apparatus also includes a second plurality of sub-modules to process the intermediate data. Each of the second plurality of sub-modules is selected to function based upon data and transmission channel specifications. The apparatus also includes a third memory module to receive and output bit rate processing output.

Abstract: A wireless device has a BRP-CRP interface that includes a dual-port frame memory having a first access port and a second access port in which data can be written to the dual-port frame memory through the first access port at the same time that data is read from the dual-port frame memory through the second access port. A bit rate processor performs bit rate processing on input data and writes data resulting from the bit rate processing to the dual-port frame memory through the first access port. A chip rate processor reads data from the dual-port frame memory through the second access port and performs chip rate processing on the data read from the dual-port frame memory. A data processor executes a software application that writes data to the dual-port frame memory through the first access port and reads data from the dual-port frame memory through the second access port.

Abstract: A method includes receiving data elements representative of constellation points of a modulated signal. Each data element includes a gain. The method also includes identifying a common gain value among the received data elements, and adjusting the data elements to include the common gain value.

Abstract: A method includes receiving data in a first data processing module, and enabling a second data processing module when at least one signal time slot of the received data comprises data that complies with a first data transmission standard. The method also includes exchanging signals between the first data processing module and software executing in a processor, and determining that a software configuration of the second data processing module has been completed. The method also includes processing the data in the second data processing module for the at least one signal time slot, and enabling a third data processing module upon a completion of processing at least one data block in the second data processing module, and determining that a software configuration of the third data processing module has been completed, the at least one data block comprising multiple signal time slots.

Abstract: A method includes identifying a soft decision from a constellation point of a modulated signal. The identification is based upon a logical combination of data representing a first and second portion of the constellation point, data representing an arrangement of the first and second portions of the constellation point, and data representing a scrambling of the first and second portions of the constellation point.

Abstract: This patent application relates generally to wireless communications systems, and, more particularly, mobile station receiver architecture.

Abstract: A system includes a receiver for receiving a modulated signal. The receiver includes a gain estimator for converting complex data representative of constellation points of the modulated signal into scalar data representation. The gain estimator is configured to fold a first portion of the scalar data representation onto a second portion of the scalar data representation. The gain estimator is further configured to estimate a constellation gain value from the folded first portion and the second portion of the scalar data representation.