Abstract:
Screen content from a first telecommunication device, such as a smartphone, is cast wirelessly and received by a second telecommunications device. The received screen content is formatted for presentation on the second telecommunications device. Screen content from among the received screen content may be selected for transmitting to a third telecommunications device. The selected screen content is transmitted to the third telecommunications device for presentation on a virtual screen of the third telcommunications device.
Abstract:
Some embodiments present a method of performing a variable shift operation. This method can be used by a microprocessor that does not allow variable shift operation for certain operand sizes. The method simulates a shift instruction that shifts an operand by a shift count. The method identifies a first shift command and a second shift command. The method computes a mask value. The mask value depends on whether the shift count is less than half of the operand size or greater than or equal to half of the operand size. The method uses the mask value to cause one of the first shift command and the second shift command to produce no shift. In some embodiments, the method allows for the shift count to be specified in bytes or in bits.
Abstract:
The invention provides nucleic acids encoding PARP fusion proteins, PARP fusion proteins, antibodies that bind to one or more of these PARP fusion proteins, and transgenic cells expressing one or more PARP fusion proteins. The invention also provides methods for identifying an agent as a specific PARP inhibitor or activator requiring contacting one or more PARP fusion proteins with a labeled nicotinamide adenine dinucleotide substrate and the agent and measuring the amount of labeled of ADP-ribose covalently attached to the one or more PARP fusion proteins. The invention also provides methods for identifying an agent that specifically binds to one or more PARP fusion proteins and methods for quantitating the level of one or more PARP proteins in a sample.
Abstract:
Nanowire-based field-effect transistors (FETs) and techniques for the fabrication thereof are provided. In one aspect, a FET is provided having a plurality of device layers oriented vertically in a stack, each device layer having a source region, a drain region and a plurality of nanowire channels connecting the source region and the drain region, wherein one or more of the device layers are configured to have a different threshold voltage from one or more other of the device layers; and a gate common to each of the device layers surrounding the nanowire channels.
Abstract:
A semiconductor structure is provided that includes a plurality of vertically stacked and vertically spaced apart semiconductor nanowires (e.g., a semiconductor nanowire mesh) located on a surface of a substrate. One end segment of each vertically stacked and vertically spaced apart semiconductor nanowires is connected to a source region and another end segment of each vertically stacked and vertically spaced apart semiconductor nanowires is connected to a drain region. A gate region including a gate dielectric and a gate conductor abuts the plurality of vertically stacked and vertically spaced apart semiconductor nanowires, and the source regions and the drain regions are self-aligned with the gate region.
Abstract:
Some embodiments present a method of performing a variable shift operation. This method can be used by a microprocessor that does not allow variable shift operation for certain operand sizes. The method simulates a shift instruction that shifts an operand by a shift count. The method identifies a first shift command and a second shift command. The method computes a mask value. The mask value depends on whether the shift count is less than half of the operand size or greater than or equal to half of the operand size. The method uses the mask value to cause one of the first shift command and the second shift command to produce no shift. In some embodiments, the method allows for the shift count to be specified in bytes or in bits.
Abstract:
A method for optical spectrum analysis provides a tunable optical filter and scans a wavelength range of an optical signal that is larger than the free spectrum range of the tunable optical filter. The optical signal is filtered through the tunable optical filter. Separate multiple optical orders of the wavelengths scanned and filtered by the tunable optical filter are individually detected.
Abstract:
An optical signal measurement system provides a tunable optical filter. An unknown optical signal is scanned through the tunable optical filter. The wavelength and chromatic dispersion values of the unknown optical signal scanned through the tunable optical filter are measured by operating the tunable optical filter in a scanning mode for at least one of OSA and PMD measurements, and in a stepping mode for CD measurements. The wavelength and the dispersion values in the unknown optical signal are specified.
Abstract:
The present invention relates to a peripheral device for image display, which comprises a hollow spot for holding the peripheral device, which then comprises a base and a shaft, wherein the shaft was located on the base, of which the shaft and the slot are a hole and shaft assembly case and the shaft maintains its degree of freedom in the slot, wherein the base can not only rotate but also slide. In addition, the base comprises at least one positioning hole and the image display device comprises at least one positioning pin, when the positioning hole is fitted by the positioning pin, the degree of freedom of the rotation is thus restricted. In comparison with prior art, the ease of use is obvious, and the design flexibility is abundant.