mhurhangee/ep-ind-claims huggingface dataset:
An animated poster system, comprising: a simulation panel comprising a poster portion, characterized in that the simulation panel is configured to secure to and form at least a part of a wall, wherein the poster portion comprises a cast resin in which a sheet configured to act as an illumination surface is positioned, wherein the cast resin comprises the texture and geometry of a simulated poster, and wherein the sheet is positioned in a position corresponding to the geometry of the simulated poster; a projector configured to project an image onto a first side of the simulation panel so as to illuminate the sheet such that the image is reproduced on the sheet; and an image server in communication with the projector and comprising a non-transitory, machine-readable medium storing data representative of the image, and the data is such that the image reproduced on the sheet contains animated image elements, thereby creating an appearance of an animated poster on the poster portion. a simulation panel comprising a poster portion, characterized in that the simulation panel is configured to secure to and form at least a part of a wall, wherein the poster portion comprises a cast resin in which a sheet configured to act as an illumination surface is positioned, wherein the cast resin comprises the texture and geometry of a simulated poster, and wherein the sheet is positioned in a position corresponding to the geometry of the simulated poster; a projector configured to project an image onto a first side of the simulation panel so as to illuminate the sheet such that the image is reproduced on the sheet; and an image server in communication with the projector and comprising a non-transitory, machine-readable medium storing data representative of the image, and the data is such that the image reproduced on the sheet contains animated image elements, thereby creating an appearance of an animated poster on the poster portion.
A system for displaying an image in units of a scene, the system comprising: a spatial light modulator (3, 920) configured to modulate input light based on a transparency value; a display (2, 912) and at least one processor configured to: acquire adjustment information comprising transparency of the spatial light modulator and light intensity of light emitted from the display (2, 912), from a plurality of pieces of view information corresponding to the scene, the adjustment information comprising a view matrix representing a light field of the scene; generate a weighted matrix based on barycentric coordinates of the view matrix; factorize the view matrix, on which anti-aliasing processing has been performed by using the weighted matrix, to a row vector and a column vector by a weighted rank-1 residue iteration, WRRI, method; and adjust an intensity value of the light emitted from the display based on the row vector and the transparency value of the spatial light modulator based on the column vector, wherein the plurality of pieces of view information are optical information of the scene approximating a light field of the scene, the optical information having been acquired at a plurality of viewpoints. a spatial light modulator (3, 920) configured to modulate input light based on a transparency value; a display (2, 912) and at least one processor configured to: acquire adjustment information comprising transparency of the spatial light modulator and light intensity of light emitted from the display (2, 912), from a plurality of pieces of view information corresponding to the scene, the adjustment information comprising a view matrix representing a light field of the scene; generate a weighted matrix based on barycentric coordinates of the view matrix; factorize the view matrix, on which anti-aliasing processing has been performed by using the weighted matrix, to a row vector and a column vector by a weighted rank-1 residue iteration, WRRI, method; and adjust an intensity value of the light emitted from the display based on the row vector and the transparency value of the spatial light modulator based on the column vector, acquire adjustment information comprising transparency of the spatial light modulator and light intensity of light emitted from the display (2, 912), from a plurality of pieces of view information corresponding to the scene, the adjustment information comprising a view matrix representing a light field of the scene; generate a weighted matrix based on barycentric coordinates of the view matrix; factorize the view matrix, on which anti-aliasing processing has been performed by using the weighted matrix, to a row vector and a column vector by a weighted rank-1 residue iteration, WRRI, method; and adjust an intensity value of the light emitted from the display based on the row vector and the transparency value of the spatial light modulator based on the column vector, wherein the plurality of pieces of view information are optical information of the scene approximating a light field of the scene, the optical information having been acquired at a plurality of viewpoints.
A method of receiving video data, the method comprising: receiving a first fragmentation unit comprising a subset of a first fragmented network abstraction layer unit; parsing a start bit of the first FU to determine if the first FU comprises a start of the first fragmented NAL unit; determining if the transmission mode for the first FU is a multi-session transmission mode using more than one real-time transport protocol session; in response to determining that the first FU comprises the start of the first fragmented NAL unit and the transmission mode for the first FU is a multi-session transmission mode, determining that a decoding order parameter is present in the first FU, parsing the decoding order number parameter to determine a decoding order for the first fragmented NAL unit, and decoding the first fragmented NAL unit based on the determined decoding order; in response to determining that the first FU does not comprise the start of the first fragmented NAL unit and/or that the transmission mode for the first FU is not a multi-session transmission mode, determining that a decoding order parameter is not present in the first FU and not parsing the decoding order number parameter to determine a decoding order for the first fragmented NAL unit. receiving a first fragmentation unit comprising a subset of a first fragmented network abstraction layer unit; parsing a start bit of the first FU to determine if the first FU comprises a start of the first fragmented NAL unit; determining if the transmission mode for the first FU is a multi-session transmission mode using more than one real-time transport protocol session; in response to determining that the first FU comprises the start of the first fragmented NAL unit and the transmission mode for the first FU is a multi-session transmission mode, determining that a decoding order parameter is present in the first FU, parsing the decoding order number parameter to determine a decoding order for the first fragmented NAL unit, and decoding the first fragmented NAL unit based on the determined decoding order; in response to determining that the first FU does not comprise the start of the first fragmented NAL unit and/or that the transmission mode for the first FU is not a multi-session transmission mode, determining that a decoding order parameter is not present in the first FU and not parsing the decoding order number parameter to determine a decoding order for the first fragmented NAL unit.
A method for classifying a potential compound object without segmentation of image data of the potential compound object, comprising: generating a first fidelity score for a projection of the potential compound object, where the first fidelity score represents a likelihood that the potential compound object comprises a comparator characteristic of a known object; if the first fidelity score meets a first threshold, generating a masked projection of the potential compound object by masking a portion of the projection of the potential compound object that comprises outliers to the comparator characteristic and that is likely representative of a first object of the potential compound object; and generating a second fidelity score for the masked projection of the potential compound object to determine if an unmasked portion of the masked projection is representative of a second object of the potential compound object. generating a first fidelity score for a projection of the potential compound object, where the first fidelity score represents a likelihood that the potential compound object comprises a comparator characteristic of a known object; if the first fidelity score meets a first threshold, generating a masked projection of the potential compound object by masking a portion of the projection of the potential compound object that comprises outliers to the comparator characteristic and that is likely representative of a first object of the potential compound object; and generating a second fidelity score for the masked projection of the potential compound object to determine if an unmasked portion of the masked projection is representative of a second object of the potential compound object.
A method of establishing a free space optical link comprising: creating a RF link between a first vehicle and a second vehicle; pointing a laser from the first vehicle to the second vehicle; steering the laser in a pattern; recording a time at the first vehicle of each incremental position of the laser in the pattern; detecting the laser at the second vehicle and recording the time of detection at the second vehicle; indicating, by the second vehicle to the first vehicle via the RF link, the time of laser detection at the second vehicle; and steering the laser to the positions that coincide with the detections times of the second vehicle to establish an optical link between the first and second vehicles. creating a RF link between a first vehicle and a second vehicle; pointing a laser from the first vehicle to the second vehicle; steering the laser in a pattern; recording a time at the first vehicle of each incremental position of the laser in the pattern; detecting the laser at the second vehicle and recording the time of detection at the second vehicle; indicating, by the second vehicle to the first vehicle via the RF link, the time of laser detection at the second vehicle; and steering the laser to the positions that coincide with the detections times of the second vehicle to establish an optical link between the first and second vehicles.
An electronics (100, 400) with cascaded adaptive filters for attenuating noise in a feedback path of a flow controller, wherein the electronics (100, 400) is comprised of: a signal processor (110, 410) configured to: receive a flow signal indicative of a flow rate of a pulsating flow from a flow sensor; generate, using the received flow signal, a noise reference signal (110b, 410b); and generate a flow rate signal (110a, 410a) using the generated noise reference signal (110b, 410b) and the flow signal; a controller communicatively coupled to the signal processor, the controller being configured to generate, using the flow rate signal (110a, 410a), a flow rate control signal; and a signal generator communicatively coupled to the controller, the signal generator being configured to: receive the flow rate control signal; generate, based on the flow rate control signal, a valve signal configured to control the flow rate of the pulsating flow; and provide the valve signal to a valve. a signal processor (110, 410) configured to: receive a flow signal indicative of a flow rate of a pulsating flow from a flow sensor; generate, using the received flow signal, a noise reference signal (110b, 410b); and generate a flow rate signal (110a, 410a) using the generated noise reference signal (110b, 410b) and the flow signal; receive a flow signal indicative of a flow rate of a pulsating flow from a flow sensor; generate, using the received flow signal, a noise reference signal (110b, 410b); and generate a flow rate signal (110a, 410a) using the generated noise reference signal (110b, 410b) and the flow signal; a controller communicatively coupled to the signal processor, the controller being configured to generate, using the flow rate signal (110a, 410a), a flow rate control signal; and a signal generator communicatively coupled to the controller, the signal generator being configured to: receive the flow rate control signal; generate, based on the flow rate control signal, a valve signal configured to control the flow rate of the pulsating flow; and provide the valve signal to a valve. receive the flow rate control signal; generate, based on the flow rate control signal, a valve signal configured to control the flow rate of the pulsating flow; and provide the valve signal to a valve.
A wire processing center with a plurality of processing modules (A, B, C, D), which are driven via a common control unit of the wire processing center and are configured to assemble wires with different cross-sections and/or to provide wire ends with contacts or the like, with a storage for the wire cross-sections to be processed and/or the assembled wires, and with a round table, on which the processing modules (A, B, C, D) are positioned and which is provided with a drive for aligning a processing module (A, B, C, D) in each case with respect to at least one processing station of the wire processing center arranged in the circumferential region of the round table, characterized in that the at least one processing station is configured to be movable along the circumference of the round table, so that the wires are fed to the processing modules (A, B, C, D) by the processing station during the individual processing steps.
A therapeutic agent that inhibits poly [ADP-ribose] polymerase ("anti-PARP therapy") for use in treating cancer in a human patient, wherein the agent is niraparib, or a pharmaceutically acceptable salt thereof, wherein the patient is characterized by previous treatment with a platinum-based therapy and an absence of a germline or a sporadic mutation in BRCA1 and/or BRCA2, wherein the niraparib, or a pharmaceutically acceptable salt thereof, is administered as a maintenance therapy following complete or partial response to at least one platinum-based therapy, and wherein the patient is further characterized by an absence of homologous recombination deficiency. wherein the patient is characterized by previous treatment with a platinum-based therapy and an absence of a germline or a sporadic mutation in BRCA1 and/or BRCA2, wherein the niraparib, or a pharmaceutically acceptable salt thereof, is administered as a maintenance therapy following complete or partial response to at least one platinum-based therapy, and wherein the patient is further characterized by an absence of homologous recombination deficiency.
An image processing device comprising: a quantization unit configured to quantize transform coefficient data of image data to generate quantized data using a current quantization matrix including a DC coefficient as a (0, 0) coefficient; a DPCM unit configured to set an initial difference coefficient that is a difference between a predetermined initial value and the DC coefficient, a replacement difference coefficient that is a difference between the DC coefficient and a (0, 0) coefficient of a quantization matrix, based on the current quantization matrix, whose size is limited to be not greater than a transmission size that is the maximum size allowed in transmission, and further difference coefficients each being a difference between two adjacent coefficients in a sequence of coefficients of the quantization matrix arranged in scan order; and an encoding unit configured to encode the quantized data to generate encoded data including the initial difference coefficient, the replacement difference coefficient, and the further difference coefficients. a quantization unit configured to quantize transform coefficient data of image data to generate quantized data using a current quantization matrix including a DC coefficient as a (0, 0) coefficient; a DPCM unit configured to set an initial difference coefficient that is a difference between a predetermined initial value and the DC coefficient, a replacement difference coefficient that is a difference between the DC coefficient and a (0, 0) coefficient of a quantization matrix, based on the current quantization matrix, whose size is limited to be not greater than a transmission size that is the maximum size allowed in transmission, and further difference coefficients each being a difference between two adjacent coefficients in a sequence of coefficients of the quantization matrix arranged in scan order; and an encoding unit configured to encode the quantized data to generate encoded data including the initial difference coefficient, the replacement difference coefficient, and the further difference coefficients.
An exhaust-carrying component of an exhaust system for an internal combustion engine, in particular in a motor vehicle, - having a pipe through which exhaust gas can flow from one longitudinal end to the other longitudinal end and which has a longitudinal section between its longitudinal ends (6, 7), the wall of said longitudinal section being provided with perforations, - having a housing which surrounds the pipe in the circumferential direction and to which the pipe is fixedly connected in one end area having the one longitudinal end and in another end area having the other longitudinal end, - wherein the perforations are formed by elongated holes whose longitudinal direction extends in the circumferential direction of the pipe, - wherein the perforations have multiple neighboring rows of holes in the longitudinal direction of the pipe, each having several elongated holes spaced a distance apart in the circumferential direction of the pipe, - wherein the elongated holes of one row of holes area arranged so they are offset in the circumferential direction of the pipe with respect to the elongated holes of a neighboring row of holes in the longitudinal direction of the pipe, characterized in - that each row of holes has four to eight elongated holes, - that neighboring rows of holes in the longitudinal direction of the pipe are spaced a distance apart from one another that is approximately as great as the width of a elongated hole measured in the longitudinal direction of the pipe. - having a pipe through which exhaust gas can flow from one longitudinal end to the other longitudinal end and which has a longitudinal section between its longitudinal ends (6, 7), the wall of said longitudinal section being provided with perforations, - having a housing which surrounds the pipe in the circumferential direction and to which the pipe is fixedly connected in one end area having the one longitudinal end and in another end area having the other longitudinal end, - wherein the perforations are formed by elongated holes whose longitudinal direction extends in the circumferential direction of the pipe, - wherein the perforations have multiple neighboring rows of holes in the longitudinal direction of the pipe, each having several elongated holes spaced a distance apart in the circumferential direction of the pipe, - wherein the elongated holes of one row of holes area arranged so they are offset in the circumferential direction of the pipe with respect to the elongated holes of a neighboring row of holes in the longitudinal direction of the pipe, - that each row of holes has four to eight elongated holes, - that neighboring rows of holes in the longitudinal direction of the pipe are spaced a distance apart from one another that is approximately as great as the width of a elongated hole measured in the longitudinal direction of the pipe.
Stand-up display, in particular stand-up display figure, made of paper, cardboard, paperboard or the like, consisting of at least one first blank and at least one second blank (14, 39), wherein the first blank can be folded to form a base element having two transverse sides, two longitudinal sides, a standing side and a receiving side and the second blank (14, 39) as plug-in element can be plugged onto the base element to stabilize the base element, wherein the plug-in element has three tabs (33, 34, 35), namely two outer tabs (33, 35) and one middle tab, between which recesses (36, 37) are formed, wherein the outer tabs (33, 35) have latching elements corresponding to openings in outer walls of the base element, and wherein the latching elements are in the form of webs in order to form a fixed connection between the base element and the plug-in element, and the tabs (33, 34, 35) and the recesses (36, 37) are formed such that the plug-in element can be plugged into the receiving side of the base element, and characterized in that the base element is in the form of a truncated pyramid.
A method for measuring noise of a machine, comprising: acquiring a first noise interference set, searching for noise interferences which are less than a preset noise interference threshold from the first noise interference set to obtain a second noise interference set, and then calculating an average value of the second noise interference set; determining whether a value of the second noise interference set is less than or equal to a set threshold, and if the value of the second noise interference set is less than or equal to the set threshold, current noise of the machine is equal to the average value of the second noise interference set; characterized in that the value of the second noise interference set used to determine if it is less than or equal to a set threshold is the average value of the second noise interference set, and in that the method further comprises: searching for a minimum noise interference from the first noise interference set, and setting a value which is integer times of the minimum noise interference as the preset noise interference threshold. acquiring a first noise interference set, searching for noise interferences which are less than a preset noise interference threshold from the first noise interference set to obtain a second noise interference set, and then calculating an average value of the second noise interference set; determining whether a value of the second noise interference set is less than or equal to a set threshold, and if the value of the second noise interference set is less than or equal to the set threshold, current noise of the machine is equal to the average value of the second noise interference set; characterized in that the value of the second noise interference set used to determine if it is less than or equal to a set threshold is the average value of the second noise interference set, and in that the method further comprises: searching for a minimum noise interference from the first noise interference set, and setting a value which is integer times of the minimum noise interference as the preset noise interference threshold.