Abstract: The present invention relates to a pharmaceutical composition that provides long-term stability of a hydrolytically labile antipsychotic agent.

Abstract: A method for performing a backup in relation to a separated database, the method includes creating, by a processing circuit, a new backup log structured merge (LSM) tree of the separated database, wherein the new backup LSM tree is associated with a new point in time (PIT) and belongs to a group of LSM trees that comprise a primary LSM tree and one or more backup LSM trees that are associated with different PITs, and share a key value (KV) database that is mutable and is separated from the group; wherein the creating comprises storing the new backup LSM tree to a destination.

Abstract: A system and method for image data management. A tiled representation of a data set is accessed. The tiled representation includes a plurality of high-resolution tiles and a plurality of reduced-resolution tiles. A request to access said data set from a computing device is received. An image display window is determined based on said request from the computing device, where the image display window corresponds to a displayable image for display on the display device. At least one overlapping image to send the computing device is determined based on said image display window, where the at least one overlapping image is selected from the scaled full images, the plurality of high-resolution tiles, and the plurality of reduced resolution tiles. At least a portion of the at least one overlapping image is sent to the computing device.

Abstract: A system and method for image data management. A tiled representation of a data set is accessed. The tiled representation includes a plurality of high-resolution tiles and a plurality of reduced-resolution tiles. A request to access said data set from a computing device is received. An image display window is determined based on said request from the computing device, where the image display window corresponds to a displayable image for display on the display device. At least one overlapping image to send the computing device is determined based on said image display window, where the at least one overlapping image is selected from the scaled full images, the plurality of high-resolution tiles, and the plurality of reduced resolution tiles. At least a portion of the at least one overlapping image is sent to the computing device.

Abstract: A system and method for image data management. A tiled representation of a data set is accessed. The tiled representation includes a plurality of high-resolution tiles and a plurality of reduced-resolution tiles. A request to access said data set from a computing device is received. An image display window is determined based on said request from the computing device, where the image display window corresponds to a displayable image for display on the display device. At least one overlapping image to send the computing device is determined based on said image display window, where the at least one overlapping image is selected from the scaled full images, the plurality of high-resolution tiles, and the plurality of reduced resolution tiles. At least a portion of the at least one overlapping image is sent to the computing device.

Abstract: A system and method for image data management. A tiled representation of a data set is accessed. The tiled representation includes a plurality of high-resolution tiles and a plurality of reduced-resolution tiles. A request to access said data set from a computing device is received. An image display window is determined based on said request from the computing device, where the image display window corresponds to a displayable image for display on the display device. At least one overlapping image to send the computing device is determined based on said image display window, where the at least one overlapping image is selected from the scaled full images, the plurality of high-resolution tiles, and the plurality of reduced resolution tiles. At least a portion of the at least one overlapping image is sent to the computing device.

Abstract: A RF transmitter is operable to transmit a signal at a frequency specified by the Bluetooth protocol. A passive upconversion mixer, which comprises a pair of MOSFET switches, is utilized inside the RF transmitter. The passive upconversion mixer is operable to receive analog local oscillator (LO) signals to be utilized for controlling operation of each of the pair of MOSFET switches to transmit signals with maximum gain. A MOS threshold voltage VTH and a DC component of a received baseband signal, VBB—DC, are determined for each of the pair of MOSFET switches. The determined VTH and the determined VBB—DC of the received baseband signal are combined such as VTH+VBB—DC and compared with a DC component of the received LO signals, VLO—DC. The VLO—DC is set equal to VTH+VBB—DC, accordingly, to provide maximum gain from the passive upconversion mixer for signal transmission.

Abstract: The present invention provides a transmitter architecture operable to cancel non-data-related direct current (DC) components therein. One method to cancel transmitter non-data-related DC offsets includes generating a baseband digital null signal. Then the digital null signal is converted to a pair of differential analog voltage null signals. The pair of differential analog voltage null signals may be converted to a pair of differential analog current null signals. The pair of differential analog current null signals is provided to a pair of matched impedances to generate a pair of voltage signals across the pair of matched impedances. A voltage offset results from comparing the pair of voltages generated across the pair of matched impedances. Then a current offset is determined based on the voltage offset.

Abstract: Certain embodiments of the invention may be found in a method and system for single sideband mixing receiver architecture for improving signal quality in an RF communication system. An embodiment of the invention may mix a first input signal with a first local oscillator signal, via a first mixer, to generate a first mixed output signal. It may also mix a second input signal with a second local oscillator signal, via a second mixer, to generate a second mixed output signal. It may then generate a single sideband signal by adding the first mixed output signal and the second mixed output signal. The removal of one of two sidebands may reduce noise at the desired signal, since the removed sideband may have been at the same frequency as the desired signal.

Abstract: A method to reduce transmitted output power and the battery consumption is provided. This involves first determining the required output level. The amplitude of the input signal provided to a PA driver may be based on the required output power level. This amplitude may be set by a PGA. A number of cascode bias signals are also provided to the PA driver. These cascode bias signals are based on the required output power level as well. Reducing the cascode bias signals by enabling/disabling circuits within the PA driver allows power consumption of the wireless device to be reduced.

Abstract: The present invention provides a transmitter architecture operable to cancel non-data-related direct current (DC) components therein. One method to cancel transmitter non-data-related DC offsets includes generating a baseband digital null signal. Then the digital null signal is converted to a pair of differential analog voltage null signals. The pair of differential analog voltage null signals may be converted to a pair of differential analog current null signals. The pair of differential analog current null signals is provided to a pair of matched impedances to generate a pair of voltage signals across the pair of matched impedances. A voltage offset results from comparing the pair of voltages generated across the pair of matched impedances. Then a current offset is determined based on the voltage offset.

Abstract: A method to reduce transmitted output power and the battery consumption is provided. This involves first determining the required output level. The amplitude of the input signal provided to a PA driver may be based on the required output power level. This amplitude may be set by a PGA. A number of cascode bias signals are also provided to the PA driver. These cascode bias signals are based on the required output power level as well. Reducing the cascode bias signals by enabling/disabling circuits within the PA driver allows power consumption of the wireless device to be reduced.

Abstract: A fast starting on-chip crystal oscillation circuit includes a power supply (Vdd) integrated circuit pad, a power return (Vss) integrated circuit pad, a 1st crystal integrated circuit pad, a 2nd crystal integrated circuit pad, a 1st transistor, a 2nd transistor, an inverter, a resistor, and two capacitors. The 1st and 2nd crystal IC pads couple a 1st and 2nd node of an external crystal oscillator to the fast starting on-chip crystal oscillation circuit. The 1st transistor, when activated, couples a power source connection of the inverter to the Vdd IC pad. The 2nd transistor, when activated, couples a power return connection of the inverter to the Vss IC pad. The input of the inverter is coupled to the 1st crystal IC pad and the output of the inverter is coupled to the 2nd crystal IC pad. The resistor is coupled in parallel with the inverter while the 1st capacitor is coupled to the input of the inverter and to the Vss IC pad. The 2nd capacitor is coupled to the output of the inverter and to the Vss IC pad.

Abstract: A multi-mode band-gap current reference includes a band-gap current mode module and an adjustable current source module. The band-gap current module provides a band-gap reference current and a voltage representation of the band-gap reference current. The adjustable current source module is operably coupled to produce a process-independent band-gap current and a voltage representation of the process-independent band-gap current. The adjustable current source module produces the process-independent band-gap current based on a difference between the voltage representation of the band-gap reference current and the voltage representation of the process-independent band-gap current.

Abstract: A fast starting on-chip crystal oscillation circuit includes a (Vdd) IC pad, a (Vss) IC pad, a 1st crystal IC pad, a 2nd crystal IC pad, a 1st transistor, a 2nd transistor, an inverter, a resistor, and two capacitors. The 1st and 2nd crystal IC pads couple an external crystal oscillator to the fast starting on-chip crystal oscillation circuit. The 1st and 2nd transistors, when activated, couple power to the inverter. The input of the inverter is coupled to the 1st crystal IC pad and to the 1st capacitor. The output of the inverter is coupled to the 2nd crystal IC pad and to the 2nd capacitor. The resistor is coupled in parallel with the inverter. When the 1st and 2nd transistors are activated, an impulse voltage occurs between the 1st and 2nd crystal IC pads to initiate the oscillation of the crystal oscillator.

Abstract: Aspects of compensating for transmitter output power may comprise sampling an on-chip transmitter circuit temperature at various time instants and determining a feedback temperature compensation value. At least one digital-to-analog converter may be adjusted by utilizing the feedback temperature compensation value, which may correspond to the sampled temperature. The digital-to-analog converter may be an I-component digital-to-analog converter and/or a Q-component digital-to-analog converter. At least a portion of the on-chip transmitter circuit may be characterized to determine power output dependence of the on-chip transmitter circuit on temperature variation of the on-chip transmitter circuit. Based on this characterization, a feedback temperature compensation value that may correspond to the sampled temperature may be used to adjust the digital-to-analog converter. The feedback temperature compensation value may be, for example, from a lookup table or an algorithm.