mhurhangee/ep-ind-claims huggingface dataset:
Method for peak region encoding performed by a transform codec comprising a Vector Quantizer, the method comprising: operating a processor of the transform codec that executes computer readable instructions from a memory to perform, by the Vector Quantizer: - comparing an input target vector s with four centroids C 0, C 1, C 0, flip and C 1, flip, wherein centroid C 0, flip is a flipped version of centroid C 0 and centroid C 1, flip is a flipped version of centroid C 1, wherein elements of C i, flip are defined as C i,flip = [C i C i ( M -1)... C i], where C i ( m) are vector elements of the centroid C i, M is a length of the vector and i is an index of the centroid, each centroid representing a respective class of codevectors and being obtained as a result of execution of a clustering algorithm; - determining a starting point for a search related to the input target vector in the codebook, based on the result of the comparison, and - performing a search in the codebook, starting at the determined starting point, and identifying a codevector to represent the input target vector s, wherein a number of input target vectors per block or time segment is variable and a search space is dynamically adjusted such that the size of the search space depends on the number of input target vectors, said input target vectors representing a spectral peak region; wherein the codebook has been created such that the codevectors in the codebook are sorted according to a distortion measure reflecting the distance between each codevector and said centroids C 0 and C 1. - comparing an input target vector s with four centroids C 0, C 1, C 0, flip and C 1, flip, wherein centroid C 0, flip is a flipped version of centroid C 0 and centroid C 1, flip is a flipped version of centroid C 1, wherein elements of C i, flip are defined as C i,flip = [C i C i ( M -1)... C i], where C i ( m) are vector elements of the centroid C i, M is a length of the vector and i is an index of the centroid, each centroid representing a respective class of codevectors and being obtained as a result of execution of a clustering algorithm; - determining a starting point for a search related to the input target vector in the codebook, based on the result of the comparison, and - performing a search in the codebook, starting at the determined starting point, and identifying a codevector to represent the input target vector s, wherein a number of input target vectors per block or time segment is variable and a search space is dynamically adjusted such that the size of the search space depends on the number of input target vectors, said input target vectors representing a spectral peak region; wherein the codebook has been created such that the codevectors in the codebook are sorted according to a distortion measure reflecting the distance between each codevector and said centroids C 0 and C 1.
A method of making a semiconductor device, the method comprising: depositing a first layer over a substrate; patterning a resist material on the first layer for a first conductor and a second conductor; plating patterned portions of the first layer to form the first conductor and the second conductor; removing the resist material to form an air gap between the first conductor and the second conductor; applying a first self-supporting film over the first conductor and the second conductor to enclose the air gap, wherein the first self-supporting film is a graphene material or a silicene material; and reacting the first self-supporting film causing the first self-supporting film to be non-conductive. depositing a first layer over a substrate; patterning a resist material on the first layer for a first conductor and a second conductor; plating patterned portions of the first layer to form the first conductor and the second conductor; removing the resist material to form an air gap between the first conductor and the second conductor; applying a first self-supporting film over the first conductor and the second conductor to enclose the air gap, wherein the first self-supporting film is a graphene material or a silicene material; and reacting the first self-supporting film causing the first self-supporting film to be non-conductive.
A dividing chamber carrier for a dough dividing machine, comprising at least one dividing chamber (20a-f) that defines a dividing chamber volume, and in which a first metering piston that is drivable for dividing dough volume is guided, and at least one sleeve that is insertable into the dividing chamber (20a-f) and lockable in same, and that reduces the dividing chamber volume, and in which a second metering piston (52; 90) is guided, characterized in that the first metering piston and the sleeve with the second metering piston [sic; (52; 90)] guided therein are provided as separate components that are replaceable with one another.
Module for a motor vehicle for emitting at least one light beam with a cut-off profile along an optical axis, said module comprising at least one first light source and at least one second light source and at least one first optical collector (5; 5'; 5") and at least one second optical collector (6; 6'; 6") that are designed to collect light emitted by said at least one first light source and said at least one second light source respectively and to redirect said light towards a focal region corresponding to the focus F of a lens, at least one of said collectors (5; 6'; 5''; 6") extending in the direction of said focal region in order to reflect by external reflection a part of the light emitted by the other collector (6; 5') so as to define said cut-off profile and serve as cut-off element, making it possible to reflect this part of the rays towards an upper/lower end of the lens provided to project the beam, characterized in that the at least one first collector (5; 5'; 5") and the at least one second collector (6; 6'; 6") are separated by a medium having a refractive index lower than the refractive index of said collectors.
A teleconferencing system comprising a master communication device and a plurality of satellite communication devices (204, 206, 208), wherein the master communication device is arranged to communicate with a far-end communication device through a global communication channel and to communicate with the plurality of satellite communication devices (204, 206, 208) through a plurality of local communication channels (210, 212, 214), wherein the master communication device is further arranged to act as a portal between the far-end communication device and the satellite communication devices (204, 206, 208) by: - forwarding voice communications received from the far-end communication device to the satellite communication devices (204, 206, 208) through the local communication channels (210, 212, 214), - mixing voice communications received from the satellite communication devices (204, 206, 208) into a unified voice signal and sending said unified voice signal to the far-end communication device through the global communication channel, characterized in that the master communication device is further arranged to reestablish a particular local communication channel when it detects that the speech quality of voice communications received through said local communication channel falls below a predetermined threshold. - forwarding voice communications received from the far-end communication device to the satellite communication devices (204, 206, 208) through the local communication channels (210, 212, 214), - mixing voice communications received from the satellite communication devices (204, 206, 208) into a unified voice signal and sending said unified voice signal to the far-end communication device through the global communication channel,
A method for transmitting periodic uplink information/signal, comprising: receiving configuration signaling transmitted by an access network device, the configuration signaling containing a configuration parameter of periodic uplink information/signal; determining a target transmission unit according to the configuration parameter; characterized by transmitting or cancelling target periodic uplink information/signal according to the amount of an uplink symbol in the target transmission unit; wherein transmitting or cancelling the target periodic uplink information/signal according to the amount of the uplink symbol in the target transmission unit comprises: when the amount of the uplink symbol in the target transmission unit is larger than 0 and smaller than a second threshold, cancelling the target periodic uplink information/signal. receiving configuration signaling transmitted by an access network device, the configuration signaling containing a configuration parameter of periodic uplink information/signal; determining a target transmission unit according to the configuration parameter; characterized by transmitting or cancelling target periodic uplink information/signal according to the amount of an uplink symbol in the target transmission unit; wherein transmitting or cancelling the target periodic uplink information/signal according to the amount of the uplink symbol in the target transmission unit comprises: when the amount of the uplink symbol in the target transmission unit is larger than 0 and smaller than a second threshold, cancelling the target periodic uplink information/signal.
A method of wireless communication performed by a user equipment, UE, comprising: determining (350; 410) that a first physical downlink control channel, PDCCH, candidate and a second PDCCH candidate in a control resource set, CORESET, are aligned with each other, wherein the first PDCCH candidate is a common search space, CSS, candidate and the second PDCCH candidate is a UE-specific search space, UESS, candidate; and decoding (360; 420) downlink control information in accordance with a rule indicating whether the downlink control information is to be decoded in accordance with the CSS candidate or the UESS candidate, characterised in that the rule indicates that the downlink control information is to be decoded in accordance with the CSS candidate when the downlink control information, when decoded, is not distinguishable as associated with the CSS candidate or the UESS candidate and the CORESET is a CORESET #o. determining (350; 410) that a first physical downlink control channel, PDCCH, candidate and a second PDCCH candidate in a control resource set, CORESET, are aligned with each other, wherein the first PDCCH candidate is a common search space, CSS, candidate and the second PDCCH candidate is a UE-specific search space, UESS, candidate; and decoding (360; 420) downlink control information in accordance with a rule indicating whether the downlink control information is to be decoded in accordance with the CSS candidate or the UESS candidate, characterised in that the rule indicates that the downlink control information is to be decoded in accordance with the CSS candidate when the downlink control information, when decoded, is not distinguishable as associated with the CSS candidate or the UESS candidate and
A system for detecting a fire, comprising: a plurality of sensors (100, 102, 610, 612, 613, 616, 210, 212, 214, 604, 623, 625, 629, 640); a response system (680, 607, 607A, 617, 617A, 642, 730, 735); and a controller connected to the plurality of sensors, the controller implementing one or more signal filters to process signals from the plurality of sensors and apply a result to a classifier implemented on the controller, the classifier outputting a fire detection signal and a confidence level and applying the output to the response system, wherein the plurality of sensors includes an imaging device (210, 212, 214, 640) positioned in a duct (320; 627) configured to draw fumes from a recess of an exhaust hood and the response system includes a water sprayer (607A, 617A, 642, 730, 735) positioned in the duct (320; 627), and the imaging device applies an image to said one or more signal filters which are adapted to detect a gas-born ember. a plurality of sensors (100, 102, 610, 612, 613, 616, 210, 212, 214, 604, 623, 625, 629, 640); a response system (680, 607, 607A, 617, 617A, 642, 730, 735); and a controller connected to the plurality of sensors, the controller implementing one or more signal filters to process signals from the plurality of sensors and apply a result to a classifier implemented on the controller, the classifier outputting a fire detection signal and a confidence level and applying the output to the response system, wherein the plurality of sensors includes an imaging device (210, 212, 214, 640) positioned in a duct (320; 627) configured to draw fumes from a recess of an exhaust hood and the response system includes a water sprayer (607A, 617A, 642, 730, 735) positioned in the duct (320; 627), and the imaging device applies an image to said one or more signal filters which are adapted to detect a gas-born ember.
Process for obtaining insect larvae kept alive, whose maximum diameter, from 1 to 4 mm, notably about 2 mm, and whose maximum body lengths, from 4 to 12 mm, notably from 5 to 12 mm, notably from 4 to 8 mm, notably 9 mm, notably 6 mm, are maintained sensitively constant during at least 4 weeks, notably 6 weeks, said process comprising the following steps: 1) incubation of insect eggs in a culture medium comprising a mixture of water, cereals and/or oil cakes, and possibly a fermentation agent, said incubation being carried out until the hatching of eggs and obtaining of larvae, in order to obtain a composition comprising a culture medium, said medium comprising a mixture of water, cereals and/or oil cakes, and possibly a fermentation agent and insect eggs and/or larvae incubated in said culture medium. 2) dehydration of said composition until obtaining a water content below 15% (weight/weight), ideally 10% (weight/weight), 3) collection, from said composition, of living insect larvae, with a maximum body diameter from 1 to 4 mm, notably about 2 mm, and a maximum body length from 5 to 12, notably from 4 to 8 mm, notably 9 mm, notably 6 mm, and, 4) transfer of said collected living larvae in an environment without feed, where they are maintained alive, in the dark, during at least 4 weeks, notably 6 weeks, under a hygrometry rate from 60 to 80% and at a temperature from 12 to 18°C, notably 15°C. 1) incubation of insect eggs in a culture medium comprising a mixture of water, cereals and/or oil cakes, and possibly a fermentation agent, said incubation being carried out until the hatching of eggs and obtaining of larvae, in order to obtain a composition comprising a culture medium, said medium comprising a mixture of water, cereals and/or oil cakes, and possibly a fermentation agent and insect eggs and/or larvae incubated in said culture medium. 2) dehydration of said composition until obtaining a water content below 15% (weight/weight), ideally 10% (weight/weight), 3) collection, from said composition, of living insect larvae, with a maximum body diameter from 1 to 4 mm, notably about 2 mm, and a maximum body length from 5 to 12, notably from 4 to 8 mm, notably 9 mm, notably 6 mm, and, 4) transfer of said collected living larvae in an environment without feed, where they are maintained alive, in the dark, during at least 4 weeks, notably 6 weeks, under a hygrometry rate from 60 to 80% and at a temperature from 12 to 18°C, notably 15°C.
A light modulation assembly (40r, 40g, 40b) for a digital projection apparatus comprising: a solid-state light source (12r, 12g, 12b) that provides an illumination beam, a spatial light modulator disposed in the path of the illumination beam, the spatial light modulator having a plurality of tiltable micro-mirrors, each micro-mirror being actuable to tilt with respect to a tilt axis between a first tilt position that provides on-state light and a second tilt position that provides off-state light wherein the micro-mirrors deflect the illumination beam along an optical axis to provide the on-state light when they are at the first tilt position, and the micro-mirrors deflect the illumination beam away from the optical axis to provide the off-state light when they are at the second tilt position, and wherein the micro-mirrors deflect the illumination beam to trace out deflected beam paths in deflection planes as they are tilted between the first tilt position and the second tilt position; and a light baffle disposed alongside the optical axis and in the path of the off-state light from the micro-mirrors, the light baffle having a light-trapping surface adapted to absorb the off-state light from the micro-mirrors on the spatial light modulator, the light-trapping surface having a plurality of channels extending in lengthwise directions wherein each channel is defined by protruding fins that extend outward from the light-trapping surface at an oblique fin angle with respect to the light-trapping surface, the lengthwise direction of each channels being substantially comprised in a corresponding the deflection plane. a solid-state light source (12r, 12g, 12b) that provides an illumination beam, a spatial light modulator disposed in the path of the illumination beam, the spatial light modulator having a plurality of tiltable micro-mirrors, each micro-mirror being actuable to tilt with respect to a tilt axis between a first tilt position that provides on-state light and a second tilt position that provides off-state light wherein the micro-mirrors deflect the illumination beam along an optical axis to provide the on-state light when they are at the first tilt position, and the micro-mirrors deflect the illumination beam away from the optical axis to provide the off-state light when they are at the second tilt position, and wherein the micro-mirrors deflect the illumination beam to trace out deflected beam paths in deflection planes as they are tilted between the first tilt position and the second tilt position; and a light baffle disposed alongside the optical axis and in the path of the off-state light from the micro-mirrors, the light baffle having a light-trapping surface adapted to absorb the off-state light from the micro-mirrors on the spatial light modulator, the light-trapping surface having a plurality of channels extending in lengthwise directions wherein each channel is defined by protruding fins that extend outward from the light-trapping surface at an oblique fin angle with respect to the light-trapping surface, the lengthwise direction of each channels being substantially comprised in a corresponding the deflection plane.
An athletic garment, comprising: an upper body section; a lower body section adjacent the upper body section and comprising a front side, a rear side, a pelvic section, and two leg openings distal the upper body section; characterised in that: the upper body section comprises only two body openings, the two body openings comprising a head opening sized to receive a head of a wearer and fit around a neck of the wearer, and a back opening sized to receive a torso of the wearer; the upper body section being coupled to the lower body section proximate a pelvic section and comprising a halter strap comprising two front portions and a rear side portion, wherein the rear side portion is coupled to the athletic garment only by the two front portions, forming at least a portion of a loop of the head opening on the upper body section; the upper body section comprising a bodice section between the halter strap and the pelvic section and a chamois coupled to the lower body section at a base of the pelvic section. an upper body section; a lower body section adjacent the upper body section and comprising a front side, a rear side, a pelvic section, and two leg openings distal the upper body section; the upper body section comprises only two body openings, the two body openings comprising a head opening sized to receive a head of a wearer and fit around a neck of the wearer, and a back opening sized to receive a torso of the wearer; the upper body section being coupled to the lower body section proximate a pelvic section and comprising a halter strap comprising two front portions and a rear side portion, wherein the rear side portion is coupled to the athletic garment only by the two front portions, forming at least a portion of a loop of the head opening on the upper body section; the upper body section comprising a bodice section between the halter strap and the pelvic section and a chamois coupled to the lower body section at a base of the pelvic section.
An optical transmission device comprising: an optical signal generator adapted to generate and transmit an optical signal that transmits data; a detector (51a-51d), which is coupled to clients via client lines, adapted to detect a number of active clients out of the clients; and a transmission rate determination unit, which is coupled to the detector, adapted to apply transmission rate of the optical signal using the number of active clients detected by the detector and quality of the optical signal at an optical receiver. an optical signal generator adapted to generate and transmit an optical signal that transmits data; a detector (51a-51d), which is coupled to clients via client lines, adapted to detect a number of active clients out of the clients; and a transmission rate determination unit, which is coupled to the detector, adapted to apply transmission rate of the optical signal using the number of active clients detected by the detector and quality of the optical signal at an optical receiver.