mhurhangee/patent-ind-claim-en huggingface dataset:
A method for supplying an optical security element in a value document with low technical effort, having: - supplying a foil stack having two consecutive transparent foils, - laminating the foil stack for supplying a card body, characterized in that a silver ink and at least one structure layer are incorporated at the two transparent foils such that in the interaction with the two transparent foils, the optical security element has a three-dimensional optical impression upon viewing , wherein the silver ink is incorporated into the structure layer. - supplying a foil stack having two consecutive transparent foils, - laminating the foil stack for supplying a card body, characterized in that a silver ink and at least one structure layer are incorporated at the two transparent foils such that in the interaction with the two transparent foils, the optical security element has a three-dimensional optical impression upon viewing , wherein the silver ink is incorporated into the structure layer.
A modified conjugated diene-based polymer, wherein the modified conjugated diene-based polymer comprises a nitrogen atom and a silicon atom, has a weight average molecular weight of 20 × 10 4 or more and 300 × 10 4 or less, has a molecular weight distribution Mw/Mn of 2.0 or more and 4.0 or less, has a shrinkage factor g', determined as described in "<Physical Property 12; Shrinkage Factor (g')>" in the description, of 0.64 or more and 1.00 or less, has a modification ratio of 30% by mass or more and 80% by mass or less with respect to a total amount of the conjugated diene-based polymer, and comprises 5% by mass or more and 50% by mass or less of a component having a molecular weight of 1,000,000 or more and 5,000,000 or less in GPC (gel permeation chromatography), wherein a modification ratio of the component having a molecular weight of 1,000,000 or more and 5,000,000 or less is 90% by mass or more and 100% by mass or less, and wherein a modification ratio of a molecular weight component having 1/2 of a molecular weight at a peak top, or a peak top of the largest molecular weight among molecular weights of a plurality of peaks, if present, in GPC is 1/2 or less of a modification ratio of the whole modified conjugated diene-based polymer.
A method for obtaining term amniotic fluid cells (TAF cells) from term amniotic fluid, comprising: from provided term amniotic fluid (TAF); removing particulate material from the TAF to obtain purified TAF cells; performing adherence selection on the purified TAF cells to obtain TAF adherence cells; passaging the TAF adherence cells to obtain a population of cells comprising the TAF cells; and selecting the TAF cells from the population as cells that express at least a surface marker that is CD248. from provided term amniotic fluid (TAF); removing particulate material from the TAF to obtain purified TAF cells; performing adherence selection on the purified TAF cells to obtain TAF adherence cells; passaging the TAF adherence cells to obtain a population of cells comprising the TAF cells; and selecting the TAF cells from the population as cells that express at least a surface marker that is CD248.
A trim piece for a refrigerator shelf , said trim piece having: a. a body extending in a longitudinal direction (X); b. a longitudinal cavity or channel extending in said longitudinal direction (X) and having a U-shaped cross section, wherein said longitudinal cavity or channel is defined by an upper wall and a lower wall formed along one of the longitudinal sides of the trim piece , said upper wall and lower wall protruding from said body in a transverse direction (Y) that is perpendicular to the longitudinal direction (X) and that defines with it a horizontal plane on which the trim piece lies; wherein said upper and lower walls are spaced apart from each other in a vertical direction (Z) perpendicular to said longitudinal direction (X) and said transverse direction (Y) so as to receive a front edge of a shelf and define a press fitting; wherein protruding portions in the form of tabs are formed on inner surfaces of either or both the upper and lower walls of the longitudinal cavity ; and wherein further tabs are formed on the inner surface of the upper wall at end portions of the body , said further tabs protruding towards the longitudinal cavity characterized in that the further tabs extend in the transverse direction (Y) on the inner surface of the upper wall and in that the wall of the longitudinal cavity opposite to the wall where the further tabs are formed is shorter than the latter in the longitudinal direction (X), such that the further tabs are fully visible from below. a. a body extending in a longitudinal direction (X); b. a longitudinal cavity or channel extending in said longitudinal direction (X) and having a U-shaped cross section, wherein said longitudinal cavity or channel is defined by an upper wall and a lower wall formed along one of the longitudinal sides of the trim piece , said upper wall and lower wall protruding from said body in a transverse direction (Y) that is perpendicular to the longitudinal direction (X) and that defines with it a horizontal plane on which the trim piece lies; wherein said upper and lower walls are spaced apart from each other in a vertical direction (Z) perpendicular to said longitudinal direction (X) and said transverse direction (Y) so as to receive a front edge of a shelf and define a press fitting; wherein protruding portions in the form of tabs are formed on inner surfaces of either or both the upper and lower walls of the longitudinal cavity ; and wherein further tabs are formed on the inner surface of the upper wall at end portions of the body , said further tabs protruding towards the longitudinal cavity characterized in that the further tabs extend in the transverse direction (Y) on the inner surface of the upper wall and in that the wall of the longitudinal cavity opposite to the wall where the further tabs are formed is shorter than the latter in the longitudinal direction (X), such that the further tabs are fully visible from below.
A continuous flow fluidic particle separation device for separating particles by size in a continuous fluid flow, comprising: a sample input; a carrier fluid input; a plurality of successively cascaded separation areas in fluid connection with the sample input and the carrier fluid input, adapted to separate particles having a size equal to or greater than a critical size from particles having a size less than the critical size in a fluid sample, wherein the critical size for each separation area is different so that each region has a successively smaller critical size, and wherein particles having a size less than the critical size and particles having at least the critical size in a separation area move in different directions; a sample output in fluid connection with the separation areas; wherein the particle separation device is configured to remove particles separated in each of the separation areas through a separate output of each particle separation area; a non-clogging pathway for each separation area being succeeded by a next one of the separation areas, to accept separated particles from the respective separation area and to lead the accepted separated particles to one of the separate outputs; wherein each of the non-clogging pathways represents a bypass for one or more of the separation areas and the fluidic resistance provided by the respective non-clogging pathway is substantially equal to the fluidic resistance provided by the separation areas which are bypassed by the respective non-clogging pathway. a sample input; a carrier fluid input; a plurality of successively cascaded separation areas in fluid connection with the sample input and the carrier fluid input, adapted to separate particles having a size equal to or greater than a critical size from particles having a size less than the critical size in a fluid sample, wherein the critical size for each separation area is different so that each region has a successively smaller critical size, and wherein particles having a size less than the critical size and particles having at least the critical size in a separation area move in different directions; a sample output in fluid connection with the separation areas; wherein the particle separation device is configured to remove particles separated in each of the separation areas through a separate output of each particle separation area; a non-clogging pathway for each separation area being succeeded by a next one of the separation areas, to accept separated particles from the respective separation area and to lead the accepted separated particles to one of the separate outputs; wherein each of the non-clogging pathways represents a bypass for one or more of the separation areas and the fluidic resistance provided by the respective non-clogging pathway is substantially equal to the fluidic resistance provided by the separation areas which are bypassed by the respective non-clogging pathway.
A blood glucose data acquiring device, comprising a portable host and a probe assembly ; wherein the probe assembly includes two glucolase micro electrode needles , and a first circuit board which is configured to process signals from the glucolase micro electrode needles ; a first electrode terminal is provided on the first circuit board ; the probe assembly includes a piston subassembly and an elastic element ; the piston subassembly is formed by assembling a piston upper shell with a piston lower shell , and the first circuit board is fixedly mounted on the piston subassembly between the piston upper shell and the piston lower shell ; one side of the elastic element is electrically connected to the first electrode terminal on the first circuit board , and the other side of the elastic element is located on a periphery of the piston subassembly ; wherein the host includes an outer shell, which includes an outer shell's upper shell and an outer shell's lower shell , and a second circuit board which is located in the outer shell, and a second electrode terminal is provided on the second circuit board ; the outer shell further includes a probe mounting position and a fixing structure for fixing the outer shell to a human body; the probe assembly is configured to be mounted into the probe mounting position in such a way that the glucolase micro electrode needles are projected out of a lower surface of the outer shell; when the probe assembly is mounted into the probe mounting position, the first electrode terminal on the first circuit board is electrically connected to the second electrode terminal on the second circuit board , the outer shell further defines a first through-hole running through the outer shell's upper shell and lower shell ; the piston subassembly is engaged into the first through-hole, and a diameter of the first through-hole matches with a diameter of the piston subassembly ; a contact elastic sheet is arranged in a position on the first through-hole corresponding to the elastic element of the probe assembly , and the elastic sheet is electrically connected to the second electrode terminal of the second circuit board .
A data transmission method, comprising: determining , by a network side device, a transmission time unit pattern corresponding to a slot set, wherein the transmission time unit pattern is used to indicate a symbol location at which a transmission time unit in a slot in the slot set is located, and a quantity of symbols comprised in the transmission time unit is less than a quantity of symbols comprised in the slot; and sending , by the network side device, a notification message to a terminal device, wherein the notification message comprises information about the slot set and information about the transmission time unit pattern, and wherein the notification message is used to instruct the terminal device to determine a transmission time unit in a slot in the slot set based on the information about the transmission time unit pattern and to transmit data in the transmission time unit. determining , by a network side device, a transmission time unit pattern corresponding to a slot set, wherein the transmission time unit pattern is used to indicate a symbol location at which a transmission time unit in a slot in the slot set is located, and a quantity of symbols comprised in the transmission time unit is less than a quantity of symbols comprised in the slot; and sending , by the network side device, a notification message to a terminal device, wherein the notification message comprises information about the slot set and information about the transmission time unit pattern, and wherein the notification message is used to instruct the terminal device to determine a transmission time unit in a slot in the slot set based on the information about the transmission time unit pattern and to transmit data in the transmission time unit.
A method performed by a terminal in a communication system, the method comprising: receiving, from a base station, downlink control information including transport block related information, and antenna port related information which is associated with a demodulation reference signal, DM-RS; identifying whether one transport block is enabled or two transport blocks are enabled, based on the transport block related information; and identifying at least one antenna port index for the DM-RS, based on the antenna port related information according to a result of the identification, wherein a number of bits for the antenna port related information included in the downlink control information is identical regardless of a number of enabled transport block, and wherein in case that a first value of bits for the antenna port related information is not a reserved value for both cases that the one transport block is enabled and the two transport blocks are enabled, the first value indicates a first antenna port index for the DM-RS in case that the one transport block is enabled, and the first antenna port for the DM-RS is included in antenna port indices for the DM-RS indicated by the first value in case that the two transport blocks are enabled. receiving, from a base station, downlink control information including transport block related information, and antenna port related information which is associated with a demodulation reference signal, DM-RS; identifying whether one transport block is enabled or two transport blocks are enabled, based on the transport block related information; and identifying at least one antenna port index for the DM-RS, based on the antenna port related information according to a result of the identification, wherein a number of bits for the antenna port related information included in the downlink control information is identical regardless of a number of enabled transport block, and wherein in case that a first value of bits for the antenna port related information is not a reserved value for both cases that the one transport block is enabled and the two transport blocks are enabled, the first value indicates a first antenna port index for the DM-RS in case that the one transport block is enabled, and the first antenna port for the DM-RS is included in antenna port indices for the DM-RS indicated by the first value in case that the two transport blocks are enabled.
A method for wireless communications by a network entity, comprising: determining time and frequency resources to use for transmitting demodulation reference signals, DMRS, based on a resource mapping and a cell identification, ID, wherein determining the time and frequency resources comprises: determining a base set of tones; determining a shift to apply to the base set of tones by applying a modulo function to the cell ID; and applying the shift to the base set of tones to determine at least the frequency resources to use for transmitting the DMRS; and transmitting a physical broadcast channel, PBCH, with the DMRS transmitted on the determined time and frequency resources, wherein the transmitted DMRS includes two or three bits of timing information indicating a synchronization signal, SS, block index associated with the PBCH. determining a base set of tones; determining a shift to apply to the base set of tones by applying a modulo function to the cell ID; and applying the shift to the base set of tones to determine at least the frequency resources to use for transmitting the DMRS; and transmitting a physical broadcast channel, PBCH, with the DMRS transmitted on the determined time and frequency resources, wherein the transmitted DMRS includes two or three bits of timing information indicating a synchronization signal, SS, block index associated with the PBCH.
A computer-implemented method comprising: for input nucleotide symbol strings representing input data to be encoded as nucleotides, converting the input nucleotide symbol strings to constrained nucleotide symbol strings completely representing the input nucleotide symbol strings and satisfying a coding constraint; after converting the input nucleotide symbol strings to the constrained nucleotide symbol strings, calculating a redundancy code for the constrained nucleotide symbol strings , wherein the redundancy code carries redundancy information for the constrained nucleotide symbol strings and comprises a plurality of redundancy code nucleotide symbols; and incorporating the redundancy code nucleotide symbols of the redundancy code and the constrained nucleotide symbol strings into result nucleotide symbol strings , wherein the result strings satisfy a relaxed version of the coding constraint, completely represent the input nucleotide symbol strings , and comprise the redundancy information for the constrained nucleotide symbol strings . for input nucleotide symbol strings representing input data to be encoded as nucleotides, converting the input nucleotide symbol strings to constrained nucleotide symbol strings completely representing the input nucleotide symbol strings and satisfying a coding constraint; after converting the input nucleotide symbol strings to the constrained nucleotide symbol strings, calculating a redundancy code for the constrained nucleotide symbol strings , wherein the redundancy code carries redundancy information for the constrained nucleotide symbol strings and comprises a plurality of redundancy code nucleotide symbols; and incorporating the redundancy code nucleotide symbols of the redundancy code and the constrained nucleotide symbol strings into result nucleotide symbol strings , wherein the result strings satisfy a relaxed version of the coding constraint, completely represent the input nucleotide symbol strings , and comprise the redundancy information for the constrained nucleotide symbol strings .
A handheld apparatus comprising: a camera ; a display ; means for causing presentation on the display of a three dimensional menu structure, wherein the three dimensional menu structure comprises a plurality of individually selectable items positioned at different locations defined by different relative heights, widths or depths within the three dimensional menu structure; means for detecting, using the camera , motion of a user input object ; and means for determining, for performance, a function corresponding to the detected motion of the user input object wherein the function comprises selection of an item of the three dimensional menu structure in response to a motion of the user input object towards the camera and wherein the function comprises navigation, in response to a sideways motion of the user input object , through a menu level of the menu structure by rotating the menu level to view, for selection, other items in the menu level , wherein the camera is positioned on an opposite side of the handheld apparatus the display . a camera ; a display ; means for causing presentation on the display of a three dimensional menu structure, wherein the three dimensional menu structure comprises a plurality of individually selectable items positioned at different locations defined by different relative heights, widths or depths within the three dimensional menu structure; means for detecting, using the camera , motion of a user input object ; and means for determining, for performance, a function corresponding to the detected motion of the user input object wherein the function comprises selection of an item of the three dimensional menu structure in response to a motion of the user input object towards the camera and wherein the function comprises navigation, in response to a sideways motion of the user input object , through a menu level of the menu structure by rotating the menu level to view, for selection, other items in the menu level , wherein the camera is positioned on an opposite side of the handheld apparatus the display .
A processor-implemented method for calibrating a vehicle cabin camera, said camera having: a pitch angle X around a transverse axis of a 3D vehicle coordinate space, a yaw angle Y around a vertical axis of said 3D vehicle coordinate space and a roll angle Z around a longitudinal axis of said 3D vehicle coordinate space; and a field of view capturing a plurality of vehicle cabin features which are symmetric about a vertical plane running longitudinally through the vehicle across a range of pitch, yaw and roll positions of said camera, the camera being located substantially on said vertical plane, the method comprising: selecting a set of points from within an image of the vehicle cabin acquired by said cabin camera, projecting each of said points onto a 3D unit circle in accordance with a camera projection model, for each of one or more rotations R YZ of a set of candidate yaw and roll rotations, rotating the projected points with the rotation R YZ ; flipping the rotated points about an X axis; counter-rotating the projected points with an inverse of the rotation R YZ ; and mapping the counter-rotated points back into an image plane to provide a set of transformed point locations; and selecting a candidate rotation which provides a best match between the set of transformed point locations and the locations of the selected set of points in the image plane as the YZ rotation of the camera. selecting a set of points from within an image of the vehicle cabin acquired by said cabin camera, projecting each of said points onto a 3D unit circle in accordance with a camera projection model, for each of one or more rotations R YZ of a set of candidate yaw and roll rotations, rotating the projected points with the rotation R YZ ; flipping the rotated points about an X axis; counter-rotating the projected points with an inverse of the rotation R YZ ; and mapping the counter-rotated points back into an image plane to provide a set of transformed point locations; and rotating the projected points with the rotation R YZ ; flipping the rotated points about an X axis; counter-rotating the projected points with an inverse of the rotation R YZ ; and mapping the counter-rotated points back into an image plane to provide a set of transformed point locations; and selecting a candidate rotation which provides a best match between the set of transformed point locations and the locations of the selected set of points in the image plane as the YZ rotation of the camera.