mhurhangee/ep-ind-claims huggingface dataset:
A solid-state image sensor of an electronic device, comprising: a plurality of, pixels (R,G,B,P) arranged in a matrix form; and a plurality of phase difference pixel, of the plurality of pixels (R,G,B,P) arranged at locations of pixels that are commonly read out in a plurality of different skip readout modes; characterized in that the plurality of skip readout modes comprises a first skip readout mode in which one pixel line is read out and two pixel lines are skipped and a second skip readout mode in which two pixel lines are read out and two pixel lines are skipped; and the plurality of pixels are classified into a first pixel region that is read out according to the first skip readout mode and a second pixel region that is read out according to the second skip readout mode; and the plurality of phase difference pixels are arranged at portions in which the first and second pixel regions overlap each other that are read out according to both the first skip readout mode and the second skip readout mode. a plurality of, pixels (R,G,B,P) arranged in a matrix form; and a plurality of phase difference pixel, of the plurality of pixels (R,G,B,P) arranged at locations of pixels that are commonly read out in a plurality of different skip readout modes; characterized in that the plurality of skip readout modes comprises a first skip readout mode in which one pixel line is read out and two pixel lines are skipped and a second skip readout mode in which two pixel lines are read out and two pixel lines are skipped; and the plurality of pixels are classified into a first pixel region that is read out according to the first skip readout mode and a second pixel region that is read out according to the second skip readout mode; and the plurality of phase difference pixels are arranged at portions in which the first and second pixel regions overlap each other that are read out according to both the first skip readout mode and the second skip readout mode.
A method for communication, comprising: receiving modulated signals, which convey encoded speech; estimating a measure of information entropy associated with the received signals; selecting a speech encoding scheme responsively to the estimated measure of the information entropy; and sending a request to a transmitter to encode subsequent speech using the selected speech encoding scheme. receiving modulated signals, which convey encoded speech; estimating a measure of information entropy associated with the received signals; selecting a speech encoding scheme responsively to the estimated measure of the information entropy; and sending a request to a transmitter to encode subsequent speech using the selected speech encoding scheme.
Method for fastening a split inner ring to a shaft, wherein the method comprises rolling in a rolling ring, specifically in such a way that the rolling ring indirectly limits a movement of the inner ring in an axially outer direction, characterized in that the shaft has a step, wherein the rolling ring is deformed in such a way that a gap is formed between the rolling ring and the inner ring and that, in a first section, which bears against the shaft, the rolling ring bears against the step, and wherein, in a second section, the rolling ring extends rectilinearly beyond the step in a radially outer direction, wherein the method comprises introducing a compensation element into the gap. wherein the method comprises rolling in a rolling ring, specifically in such a way that the rolling ring indirectly limits a movement of the inner ring in an axially outer direction, characterized in that the shaft has a step, wherein the rolling ring is deformed in such a way that a gap is formed between the rolling ring and the inner ring and that, in a first section, which bears against the shaft, the rolling ring bears against the step, and wherein, in a second section, the rolling ring extends rectilinearly beyond the step in a radially outer direction, wherein the method comprises introducing a compensation element into the gap.
A process for applying a transfer material onto the surface of a three-dimensional article comprising: providing at least one three-dimensional article which has a surface; providing a deposition device; providing a continuous transfer component with initial dimensions, a surface, and an initial configuration, wherein the transfer component is arranged to receive two or more transfer material deposits for application to different articles; depositing a material onto a portion of the surface of said continuous transfer component with said deposition device to form a transfer material on said transfer component; modifying the initial dimensions and/or the initial configuration of the portion of said transfer component with said transfer material thereon to conform the portion of the transfer component with said transfer material thereon to at least a portion of the surface of said three-dimensional article; said process characterized in that said modifying uses a mechanism in which a portion of the transfer component spans between spaced apart constraining components (90A, 90B) that constrain the transfer component in one or more directions, and the article is pushed into the span of the transfer component or the span of the transfer component is pulled onto the article; and transferring the transfer material from said transfer component onto the surface of said article. providing at least one three-dimensional article which has a surface; providing a deposition device; providing a continuous transfer component with initial dimensions, a surface, and an initial configuration, wherein the transfer component is arranged to receive two or more transfer material deposits for application to different articles; depositing a material onto a portion of the surface of said continuous transfer component with said deposition device to form a transfer material on said transfer component; modifying the initial dimensions and/or the initial configuration of the portion of said transfer component with said transfer material thereon to conform the portion of the transfer component with said transfer material thereon to at least a portion of the surface of said three-dimensional article; said process characterized in that said modifying uses a mechanism in which a portion of the transfer component spans between spaced apart constraining components (90A, 90B) that constrain the transfer component in one or more directions, and the article is pushed into the span of the transfer component or the span of the transfer component is pulled onto the article; and transferring the transfer material from said transfer component onto the surface of said article.
A heat exchanger with a ferromagnetic casing, together with a planar contact element (1, 14, 18, 20) and a heat-conducting element mounted thereon, by means of which, on the one hand, a tube (2, 15, 22, 23) through which a fluid can flow is held on the contact element (1, 14, 18, 20) and, on the other hand, a strip-shaped magnet (3, 10, 16, 21) which runs parallel to the tube (2, 15, 22), holds the contact element (1, 14, 18, 20) and the casing together, characterised in that, the tube (2, 15, 22, 23) and the magnet (3, 10, 16, 21) lie on the contact element (1, 14, 18, 20), and an aluminium heat-conducting plate as the heat-conducting element covers the tube (2, 15, 22, 23) and the magnet (3, 10, 16, 21) such that it follows a contour of the tube (2, 15, 22, 23) and the magnet (3, 10, 16, 21).
An apparatus comprising a coupling mechanism with an abrasive roll assembly placed inside the apparatus to couple the abrasive roll assembly along its axial centre with the axial centre of the apparatus, the coupling mechanism comprising: a locking disk placed along the abrasive roll assembly which is in association with the axial centre of the abrasive roll assembly; a shaft fixed along the axial centre of said locking disk such that said shaft and said locking disk have common centre of axis; a rotating means, the outer surface of which is fixed to the body of the apparatus forming a stationary end and said locking disk mates the abrasive roll assembly and holds the abrasive roll assembly intact with respect to the apparatus and that said shaft along with said locking disk can be rotated with respect to said rotating means and that the axis of rotation is along the axial centre of the apparatus, characterized in that the inner surface of said rotating means is fixed to the outer surface of a hollow guide and lock means forming a rotatable end wherein said hollow guide and lock means is rotatable with respect to said rotating means; and said shaft is slidable and lockable at the inner side of said hollow guide and lock means and said locking disk is movable in accordance with said shaft movement. a locking disk placed along the abrasive roll assembly which is in association with the axial centre of the abrasive roll assembly; a shaft fixed along the axial centre of said locking disk such that said shaft and said locking disk have common centre of axis; a rotating means, the outer surface of which is fixed to the body of the apparatus forming a stationary end and said locking disk mates the abrasive roll assembly and holds the abrasive roll assembly intact with respect to the apparatus and that said shaft along with said locking disk can be rotated with respect to said rotating means and that the axis of rotation is along the axial centre of the apparatus, characterized in that the inner surface of said rotating means is fixed to the outer surface of a hollow guide and lock means forming a rotatable end wherein said hollow guide and lock means is rotatable with respect to said rotating means; and said shaft is slidable and lockable at the inner side of said hollow guide and lock means and said locking disk is movable in accordance with said shaft movement.
A solar power generator (100, 200), comprising: - a luminescent solar concentrator with a luminescent converter (101, 201) comprising magic-sized clusters (110, 210), called MSCs, of luminescent material; - a photo cell (130, 230) that is arranged to receive light emissions of the luminescent converter. - a luminescent solar concentrator with a luminescent converter (101, 201) comprising magic-sized clusters (110, 210), called MSCs, of luminescent material; - a photo cell (130, 230) that is arranged to receive light emissions of the luminescent converter.
A method comprising: milling a nose of a first shield of a blade to leave at least one strip (208a,b) of the first shield coupled to a blade body; subsequent to the milling, applying a cryogenic technique to the blade to weaken a bond between the first shield and the blade body; subsequent to the applying of the cryogenic technique, removing the at least one strip (208a,b) of the first shield from the blade body; and coupling a second shield to the blade body subsequent to the removal of the at least one strip (208a,b) from the blade body; characterised in that the method further comprises: applying a heat blanket to the second shield; and bonding the second shield to the blade body subsequent to the applying of the heat blanket. milling a nose of a first shield of a blade to leave at least one strip (208a,b) of the first shield coupled to a blade body; subsequent to the milling, applying a cryogenic technique to the blade to weaken a bond between the first shield and the blade body; subsequent to the applying of the cryogenic technique, removing the at least one strip (208a,b) of the first shield from the blade body; and coupling a second shield to the blade body subsequent to the removal of the at least one strip (208a,b) from the blade body; characterised in that the method further comprises: applying a heat blanket to the second shield; and bonding the second shield to the blade body subsequent to the applying of the heat blanket. applying a heat blanket to the second shield; and bonding the second shield to the blade body subsequent to the applying of the heat blanket.
A surface acoustic wave resonator comprising: a piezoelectric substrate; an interdigital transducer, IDT, electrode formed on said piezoelectric substrate, the IDT electrode having a plurality of first finger-electrodes, a plurality of second finger-electrodes and a plurality of strip-line electrodes, the first finger-electrodes and the second finger-electrodes not overlapping each other, but being acoustically coupled together by the strip-line electrodes, the strip-line electrodes overlapping with at least one of the first finger-electrodes and the second finger-electrodes, the IDT electrode further having a first bus-bar electrode coupled to the first finger-electrodes and a second bus-bar electrode coupled to the second finger-electrodes; a reflector electrode disposed adjacent to the IDT electrode, the IDT electrode and the reflector electrode forming at least two resonating units (20, 22) which are coupled in series via the strip-line electrodes; and a plurality of dummy electrodes (323, 326) respectively disposed between the first finger-electrodes and the second finger-electrodes such that each of the dummy electrodes (323, 326) faces a respective one of the strip-line electrodes, each of the dummy electrodes (323, 326) having a width greater than a width of each of the first finger-electrodes and a width of each of the second finger-electrodes. a piezoelectric substrate; an interdigital transducer, IDT, electrode formed on said piezoelectric substrate, the IDT electrode having a plurality of first finger-electrodes, a plurality of second finger-electrodes and a plurality of strip-line electrodes, the first finger-electrodes and the second finger-electrodes not overlapping each other, but being acoustically coupled together by the strip-line electrodes, the strip-line electrodes overlapping with at least one of the first finger-electrodes and the second finger-electrodes, the IDT electrode further having a first bus-bar electrode coupled to the first finger-electrodes and a second bus-bar electrode coupled to the second finger-electrodes; a reflector electrode disposed adjacent to the IDT electrode, the IDT electrode and the reflector electrode forming at least two resonating units (20, 22) which are coupled in series via the strip-line electrodes; and a plurality of dummy electrodes (323, 326) respectively disposed between the first finger-electrodes and the second finger-electrodes such that each of the dummy electrodes (323, 326) faces a respective one of the strip-line electrodes, each of the dummy electrodes (323, 326) having a width greater than a width of each of the first finger-electrodes and a width of each of the second finger-electrodes.
A super junction power metal oxide semiconductor field effect transistor (MOSFET) device having a first conductivity type channel that can be formed in a base region comprising a second conductivity type dopant, said device comprising: a first plurality of columns (106, 216) comprising a dopant of the second conductivity type that is different from a first conductivity type dopant, said first plurality of columns formed in a region comprising said first conductivity type dopant, each column in said first plurality of columns having substantially a same first width and each column in said first plurality of columns contacted to source metal; and a second plurality of columns (106, 226) comprising said second conductivity type dopant, said second plurality of columns formed in said region comprising said first conductivity type dopant, each column in said second plurality of columns having substantially a same second width and each column in said second plurality of columns contacted to said source metal; wherein said first width is different from said second width and wherein said first plurality of columns is arranged in a plurality of first rows, and wherein said second plurality of columns is arranged in a plurality of second rows, wherein said first rows are interleaved with said second rows, these rows have to be considered in a cross-section plane orthogonal to the axes of the columns. a first plurality of columns (106, 216) comprising a dopant of the second conductivity type that is different from a first conductivity type dopant, said first plurality of columns formed in a region comprising said first conductivity type dopant, each column in said first plurality of columns having substantially a same first width and each column in said first plurality of columns contacted to source metal; and a second plurality of columns (106, 226) comprising said second conductivity type dopant, said second plurality of columns formed in said region comprising said first conductivity type dopant, each column in said second plurality of columns having substantially a same second width and each column in said second plurality of columns contacted to said source metal; wherein said first width is different from said second width and wherein said first plurality of columns is arranged in a plurality of first rows, and wherein said second plurality of columns is arranged in a plurality of second rows, wherein said first rows are interleaved with said second rows, these rows have to be considered in a cross-section plane orthogonal to the axes of the columns.
A method for independently managing network applications implemented by a network traffic management system comprising one or more network traffic management apparatuses, client devices, or server devices, the method comprising: monitoring, by a network traffic management device, a plurality of applications, each communicating over a respective one of a plurality of direct memory access, DMA, channels established across a bus; determining, by the network traffic management device, when a malfunction associated with a first application of the plurality of applications communicating over a first DMA channel of the plurality of DMA channels has occurred based on the monitoring; disabling, by the network traffic management device, the first DMA channel while allowing other executing applications in the plurality of applications to continue to communicate over other DMA channels in the plurality of DMA channels, when the determining indicates that a malfunction associated with the first application has occurred; clearing, by the network traffic management device, a state of the first DMA channel independently from other DMA channels in the plurality of DMA channels comprising clearing one or more registers associated with the first DMA channel; and resuming, by the network traffic management device, communications for the first application over the first DMA channel. monitoring, by a network traffic management device, a plurality of applications, each communicating over a respective one of a plurality of direct memory access, DMA, channels established across a bus; determining, by the network traffic management device, when a malfunction associated with a first application of the plurality of applications communicating over a first DMA channel of the plurality of DMA channels has occurred based on the monitoring; disabling, by the network traffic management device, the first DMA channel while allowing other executing applications in the plurality of applications to continue to communicate over other DMA channels in the plurality of DMA channels, when the determining indicates that a malfunction associated with the first application has occurred; clearing, by the network traffic management device, a state of the first DMA channel independently from other DMA channels in the plurality of DMA channels comprising clearing one or more registers associated with the first DMA channel; and resuming, by the network traffic management device, communications for the first application over the first DMA channel.
A Data Storage Device, DSD,, comprising: at least one memory for storing data; and a controller configured to: receive data from a first sensing device and a second sensing device configured to detect an environmental condition; generate metadata for data received from the first sensing device based on data received from the second sensing device, wherein the generated metadata includes an indication of a priority level of the data received from the first sensing device based on the data received from the second sensing device; store the data received from the first sensing device and the generated metadata in the at least one memory; and manage retention in the at least one memory of the data received from the first sensing device based on the generated metadata when more space is needed in the at least one memory. at least one memory for storing data; and a controller configured to: receive data from a first sensing device and a second sensing device configured to detect an environmental condition; generate metadata for data received from the first sensing device based on data received from the second sensing device, wherein the generated metadata includes an indication of a priority level of the data received from the first sensing device based on the data received from the second sensing device; store the data received from the first sensing device and the generated metadata in the at least one memory; and manage retention in the at least one memory of the data received from the first sensing device based on the generated metadata when more space is needed in the at least one memory. receive data from a first sensing device and a second sensing device configured to detect an environmental condition; generate metadata for data received from the first sensing device based on data received from the second sensing device, wherein the generated metadata includes an indication of a priority level of the data received from the first sensing device based on the data received from the second sensing device; store the data received from the first sensing device and the generated metadata in the at least one memory; and manage retention in the at least one memory of the data received from the first sensing device based on the generated metadata when more space is needed in the at least one memory.