mhurhangee/ep-ind-claims huggingface dataset:
A system for headphone virtualization, comprising: a filtering unit configured to convolve a pair of binaural room impulse responses, BRIRs, containing directionally controlled reflections that impart a desired perceptual cue with an audio input signal corresponding to a sound source location to produce a set of left-ear and right-ear intermediate signals; a stochastic echo generator configured to generate coefficients for the filtering unit; and a combining unit configured to receive the intermediate signals and combine them to form a binaural output signal, characterized in that the directionally controlled reflections have a directional pattern in which a direction of arrival changes as a function of time to provide the pair of BRIRs with an interaural cross-correlation, IACC, that varies as a function of time and frequency and in which the stochastic echo generator is adding a stochastic direction component. a filtering unit configured to convolve a pair of binaural room impulse responses, BRIRs, containing directionally controlled reflections that impart a desired perceptual cue with an audio input signal corresponding to a sound source location to produce a set of left-ear and right-ear intermediate signals; a stochastic echo generator configured to generate coefficients for the filtering unit; and a combining unit configured to receive the intermediate signals and combine them to form a binaural output signal, characterized in that the directionally controlled reflections have a directional pattern in which a direction of arrival changes as a function of time to provide the pair of BRIRs with an interaural cross-correlation, IACC, that varies as a function of time and frequency and in which the stochastic echo generator is adding a stochastic direction component.
A system for dispensing biopharmaceutical materials, the system comprising: a plurality of receiving containers; a pre-sterilized filter; a reservoir for holding biopharmaceutical materials connected to the pre-sterilized filter and a distribution manifold connected to the plurality of receiving containers, the filter located between said reservoir and said manifold; said manifold comprising a plurality of container conduits and a plurality of distribution conduits, said plurality of distribution conduits connected to each other to form a continuous shape in form of a loop or a modified-square shape such that interiors of said plurality of distribution conduits are in fluid communication with each other and are at about a same height relative to each other; said plurality of container conduits connected to said plurality of receiving containers and supporting said plurality of distribution conduits above said plurality of receiving containers to allow flow of the biopharmaceutical materials from said plurality of distribution conduits by gravity into said plurality of receiving containers; and said plurality of receiving containers and said manifold sealed relative to an ambient environment outside said manifold and said plurality of containers to inhibit contamination of the biopharmaceutical materials when the biopharmaceutical materials are inside at least one of said plurality of receiving containers and said manifold. a plurality of receiving containers; a pre-sterilized filter; a reservoir for holding biopharmaceutical materials connected to the pre-sterilized filter and a distribution manifold connected to the plurality of receiving containers, the filter located between said reservoir and said manifold; said manifold comprising a plurality of container conduits and a plurality of distribution conduits, said plurality of distribution conduits connected to each other to form a continuous shape in form of a loop or a modified-square shape such that interiors of said plurality of distribution conduits are in fluid communication with each other and are at about a same height relative to each other; said plurality of container conduits connected to said plurality of receiving containers and supporting said plurality of distribution conduits above said plurality of receiving containers to allow flow of the biopharmaceutical materials from said plurality of distribution conduits by gravity into said plurality of receiving containers; and said plurality of receiving containers and said manifold sealed relative to an ambient environment outside said manifold and said plurality of containers to inhibit contamination of the biopharmaceutical materials when the biopharmaceutical materials are inside at least one of said plurality of receiving containers and said manifold.
A copolycarbonate comprising first repeating units, second repeating units different from the first repeating units, and third repeating units different from the first and second repeating units; and wherein the first repeating units are phthalimidine carbonate units of the formula wherein R a and R b are each independently a C 1-12 alkyl, C 2-12 alkenyl, C 3-8 cycloalkyl, or C 1-12 alkoxy, each R 3 is independently a C 1-6 alkyl, R 4 is hydrogen, C 2-6 alkyl or phenyl optionally substituted with 1 to 5 C 1-6 alkyl groups, p, q, and j are each independently 0 to 4, the second repeating units are carbonate units of the formula or wherein R c and R d are each independently a C 1-12 alkyl, C 2-12 alkenyl, C 3-8 cycloalkyl, or C 1-12 alkoxy, each R 6 is independently C 1-3 alkyl or phenyl; X a is a C 6-12 polycyclic aryl, C 3-18 mono- or polycycloalkylene, C 3-18 mono- or polycycloalkylidene, -(Q 12) x -G-(Q 2) y - group wherein Q 1 and Q 2 are each independently a C 1-3 alkylene, G is a C 3-10 cycloalkylene, x is 0 or 1, and y is 1; and m and n are each independently 0 to 4; and the third repeating units are carbonate units of the formula wherein R e and R f are each independently C 1-12 alkyl, C 2-12 alkenyl, C 3-8 cycloalkyl, or C 1-12 alkoxy, a and b are each independently integers of 0 to 4, and X b is a single bond, -O-, -S-, -S -, -S 2 -, -C -, or C 1-32 bridging hydrocarbon group, provided that X b is not a phthalimidine group or X a. R a and R b are each independently a C 1-12 alkyl, C 2-12 alkenyl, C 3-8 cycloalkyl, or C 1-12 alkoxy, each R 3 is independently a C 1-6 alkyl, R 4 is hydrogen, C 2-6 alkyl or phenyl optionally substituted with 1 to 5 C 1-6 alkyl groups, p, q, and j are each independently 0 to 4, R c and R d are each independently a C 1-12 alkyl, C 2-12 alkenyl, C 3-8 cycloalkyl, or C 1-12 alkoxy, each R 6 is independently C 1-3 alkyl or phenyl; X a is a C 6-12 polycyclic aryl, C 3-18 mono- or polycycloalkylene, C 3-18 mono- or polycycloalkylidene, -(Q 12) x -G-(Q 2) y - group wherein Q 1 and Q 2 are each independently a C 1-3 alkylene, G is a C 3-10 cycloalkylene, x is 0 or 1, and y is 1; and m and n are each independently 0 to 4; and R e and R f are each independently C 1-12 alkyl, C 2-12 alkenyl, C 3-8 cycloalkyl, or C 1-12 alkoxy, a and b are each independently integers of 0 to 4, and X b is a single bond, -O-, -S-, -S -, -S 2 -, -C -, or C 1-32 bridging hydrocarbon group, provided that X b is not a phthalimidine group or X a.
A medical device, comprising: an expandable electrode assembly reciprocally movable between a first configuration and a second configuration, the expandable electrode assembly including: a first plurality of longitudinally extending legs (10, 11) formed in a first partially tubular member; a second plurality of longitudinally extending legs (12, 13) formed in a second partially tubular member; characterised by further comprising: a first endpiece formed by first ends (22, 23) of the first and second partially tubular members (204, 205); and a second endpiece formed by second ends (24, 25) of the first and second partially tubular members (204, 205), wherein a portion of the second partially tubular member is configured to be received in a portion of the first partially tubular member. a first plurality of longitudinally extending legs (10, 11) formed in a first partially tubular member; a second plurality of longitudinally extending legs (12, 13) formed in a second partially tubular member; characterised by further comprising: a first endpiece formed by first ends (22, 23) of the first and second partially tubular members (204, 205); and a second endpiece formed by second ends (24, 25) of the first and second partially tubular members (204, 205), wherein a portion of the second partially tubular member is configured to be received in a portion of the first partially tubular member. a first endpiece formed by first ends (22, 23) of the first and second partially tubular members (204, 205); and a second endpiece formed by second ends (24, 25) of the first and second partially tubular members (204, 205), wherein a portion of the second partially tubular member is configured to be received in a portion of the first partially tubular member.
Optoelectronic component comprising at least one optoelectronic semiconductor chip, comprising a leadframe section, and comprising a stiffening structure projecting away laterally from the leadframe section, wherein the semiconductor chip (18, 19, 20) is arranged on the leadframe section, and wherein the leadframe section, the stiffening structure and the semiconductor chip (18, 19, 20) are embedded in an electrically insulating housing, characterized in that the leadframe section is connected to a further leadframe section via the stiffening structure, in that a conduction element is arranged on a top side of the further leadframe section, and in that the further leadframe section and the conduction element are embedded in the housing.
An injection molding machine comprising: a mold clamping unit configured to clamp a mold unit; an injection unit configured to fill the mold unit clamped by the mold clamping unit with a molding material; and an ejector unit configured to eject a molding product from the mold unit after the molding material filled by the injection unit is cooled and solidified, characterized in that the injection molding machine is configured to be activated in a usual activation mode or in a restricted activation mode where a part of functions is restricted with respect to a case where the injection molding machine is activated in the usual activation mode, and the injection molding machine is configured to be activated in the restricted activation mode in a state in which a diagnosis function relating to diagnosis of the injection molding machine or a maintenance function relating to maintenance of the injection molding machine or a communication function with an outside of the injection molding machine are valid. a mold clamping unit configured to clamp a mold unit; an injection unit configured to fill the mold unit clamped by the mold clamping unit with a molding material; and an ejector unit configured to eject a molding product from the mold unit after the molding material filled by the injection unit is cooled and solidified, characterized in that the injection molding machine is configured to be activated in a usual activation mode or in a restricted activation mode where a part of functions is restricted with respect to a case where the injection molding machine is activated in the usual activation mode, and the injection molding machine is configured to be activated in the restricted activation mode in a state in which a diagnosis function relating to diagnosis of the injection molding machine or a maintenance function relating to maintenance of the injection molding machine or a communication function with an outside of the injection molding machine are valid.
A method of wireless communication executed by a user equipment, UE, comprising: receiving a configuration from a base station comprising a sequence of predetermined configuration parameters for discontinuous reception, DRX, operation based on predetermined changes of the location of the UE relative to the base station, wherein the DRX operation comprises a plurality of DRX cycles; and monitoring for communication from the base station based on the sequence of predetermined configuration parameters for the DRX operation, wherein the sequence of predetermined configuration parameters comprises time intervals between adjacent wake up signal, WUS, occasions or adjacent DRX ON durations comprised in the plurality of DRX cycles, wherein the time intervals are non-uniform or at least a subset of the time intervals are uniform. receiving a configuration from a base station comprising a sequence of predetermined configuration parameters for discontinuous reception, DRX, operation based on predetermined changes of the location of the UE relative to the base station, wherein the DRX operation comprises a plurality of DRX cycles; and monitoring for communication from the base station based on the sequence of predetermined configuration parameters for the DRX operation, wherein the sequence of predetermined configuration parameters comprises time intervals between adjacent wake up signal, WUS, occasions or adjacent DRX ON durations comprised in the plurality of DRX cycles, wherein the time intervals are non-uniform or at least a subset of the time intervals are uniform.
An image sensor device, comprising: a plurality of pixel cells (1150; 1600) arranged in a pixel array; a control circuit for controlling an exposure phase and a sampling phase of the image sensor device; and a switching circuit for coupling a pixel power supply line to a first voltage in an exposure phase and to a second voltage in a sampling phase, the first voltage being higher than the second voltage; wherein each of the plurality of pixel cells (1150; 1600) comprises: a photodiode (1114, PPD) in a semiconductor substrate, a first end of the photodiode (1114, PPD) coupled to a bias voltage (VAAS) through a shutter gate (1111, SGT) controlled by a global shutter signal; a ground contact for coupling a second end of the photodiode (1114, PPD) to an electrical ground through an electrical ground conductive line; a storage diode (1118, SD) in the semiconductor substrate and coupled to a second end of the photodiode (1114, PPD) through a first transfer gate (1112, TG1) controlled by a first transfer signal; and a floating diffusion region (1119, FD) in the semiconductor substrate and coupled to the storage diode (1118, PPD) through a second transfer gate (1113, TG2) controlled by a second transfer signal. a plurality of pixel cells (1150; 1600) arranged in a pixel array; a control circuit for controlling an exposure phase and a sampling phase of the image sensor device; and a switching circuit for coupling a pixel power supply line to a first voltage in an exposure phase and to a second voltage in a sampling phase, the first voltage being higher than the second voltage; wherein each of the plurality of pixel cells (1150; 1600) comprises: a photodiode (1114, PPD) in a semiconductor substrate, a first end of the photodiode (1114, PPD) coupled to a bias voltage (VAAS) through a shutter gate (1111, SGT) controlled by a global shutter signal; a ground contact for coupling a second end of the photodiode (1114, PPD) to an electrical ground through an electrical ground conductive line; a storage diode (1118, SD) in the semiconductor substrate and coupled to a second end of the photodiode (1114, PPD) through a first transfer gate (1112, TG1) controlled by a first transfer signal; and a floating diffusion region (1119, FD) in the semiconductor substrate and coupled to the storage diode (1118, PPD) through a second transfer gate (1113, TG2) controlled by a second transfer signal. a photodiode (1114, PPD) in a semiconductor substrate, a first end of the photodiode (1114, PPD) coupled to a bias voltage (VAAS) through a shutter gate (1111, SGT) controlled by a global shutter signal; a ground contact for coupling a second end of the photodiode (1114, PPD) to an electrical ground through an electrical ground conductive line; a storage diode (1118, SD) in the semiconductor substrate and coupled to a second end of the photodiode (1114, PPD) through a first transfer gate (1112, TG1) controlled by a first transfer signal; and a floating diffusion region (1119, FD) in the semiconductor substrate and coupled to the storage diode (1118, PPD) through a second transfer gate (1113, TG2) controlled by a second transfer signal.
A communication terminal for communicating with a base device by frequency and/or time division multiplexing, the terminal being configured to transmit and/or receive signals to and/or from the base device using any of a plurality of numerology types, the communication terminal being configured to: communicate with the base device using a primary numerology type and thereby receive a configuration word from the base device; determine in dependence on the primary numerology type and the configuration word a secondary numerology type; and subsequently communicate with the base device using the secondary numerology type when the secondary numerology type is activated; wherein each numerology type specifies a corresponding subcarrier spacing and a corresponding cyclic prefix length, and the plurality of numerology types are aligned at respective subframe boundaries by adjusting their cyclic prefix length; wherein the terminal is configured to store, for each of at least some of the numerology types, a mapping defining which of the plurality of numerology types are indicated by specific values of the configuration word, the terminal being configured to perform the step of determining the secondary numerology type by selecting the mapping corresponding to the primary numerology type and selecting as the secondary numerology type the numerology type indicated for the received configuration word in the mapping corresponding to the primary numerology type; wherein the number of bits in the configuration word is less than the number of bits in a binary representation of the number of the plurality of numerology types. communicate with the base device using a primary numerology type and thereby receive a configuration word from the base device; determine in dependence on the primary numerology type and the configuration word a secondary numerology type; and subsequently communicate with the base device using the secondary numerology type when the secondary numerology type is activated; wherein each numerology type specifies a corresponding subcarrier spacing and a corresponding cyclic prefix length, and the plurality of numerology types are aligned at respective subframe boundaries by adjusting their cyclic prefix length; wherein the terminal is configured to store, for each of at least some of the numerology types, a mapping defining which of the plurality of numerology types are indicated by specific values of the configuration word, the terminal being configured to perform the step of determining the secondary numerology type by selecting the mapping corresponding to the primary numerology type and selecting as the secondary numerology type the numerology type indicated for the received configuration word in the mapping corresponding to the primary numerology type; wherein the number of bits in the configuration word is less than the number of bits in a binary representation of the number of the plurality of numerology types.
Process for the regeneration of a catalyst comprising at least one metal from Group VIII and at least one metal from Group VIb which are deposited on a refractory oxide support, comprising: - at least one first stage of heat treatment of the catalyst in the presence of oxygen and at a temperature ranging from 350°C to 550°C; - at least one second stage of deposition, at the surface of the catalyst, of one or more additive(s) of formula: in which: - R 1 denotes a hydrogen atom or a saturated or unsaturated and linear or branched hydrocarbon group comprising from 1 to 30 carbon atoms; - R 2 denotes a saturated or unsaturated and linear or branched divalent hydrocarbon group comprising from 1 to 30 carbon atoms which can optionally comprise one or more heteroatom(s) chosen from oxygen and nitrogen atoms; - R 3 denotes a saturated or unsaturated and linear or branched hydrocarbon group comprising from 1 to 30 carbon atoms. - at least one first stage of heat treatment of the catalyst in the presence of oxygen and at a temperature ranging from 350°C to 550°C; - at least one second stage of deposition, at the surface of the catalyst, of one or more additive(s) of formula: in which: - R 1 denotes a hydrogen atom or a saturated or unsaturated and linear or branched hydrocarbon group comprising from 1 to 30 carbon atoms; - R 2 denotes a saturated or unsaturated and linear or branched divalent hydrocarbon group comprising from 1 to 30 carbon atoms which can optionally comprise one or more heteroatom(s) chosen from oxygen and nitrogen atoms; - R 3 denotes a saturated or unsaturated and linear or branched hydrocarbon group comprising from 1 to 30 carbon atoms. - R 1 denotes a hydrogen atom or a saturated or unsaturated and linear or branched hydrocarbon group comprising from 1 to 30 carbon atoms; - R 2 denotes a saturated or unsaturated and linear or branched divalent hydrocarbon group comprising from 1 to 30 carbon atoms which can optionally comprise one or more heteroatom(s) chosen from oxygen and nitrogen atoms; - R 3 denotes a saturated or unsaturated and linear or branched hydrocarbon group comprising from 1 to 30 carbon atoms.
Process for the manufacture of a multi-layer oxide ceramic body having at least two different layers differing in terms of chemical composition which body can be sintered without distortion, wherein the process comprises (a) providing at least a first oxide ceramic material and a second oxide ceramic material, wherein the first oxide ceramic material and the second oxide ceramic material differ in terms of a sintering behavior; and (b) adapting at least one of the oxide ceramic materials to align the sintering behavior of the first oxide ceramic material to the sintering behavior of the second oxide ceramic material, wherein the sintering behavior is the relative linear shrinkage upon sintering at a temperature in the range of 850 to 1350°C and wherein adapting at least one of the oxide ceramic materials comprises (i) incorporating a dopant into said oxide ceramic material by coating the oxide ceramic material with the dopant, and/or (ii) subjecting said oxide ceramic materials to different degrees of partial densification. (a) providing at least a first oxide ceramic material and a second oxide ceramic material, wherein the first oxide ceramic material and the second oxide ceramic material differ in terms of a sintering behavior; and (b) adapting at least one of the oxide ceramic materials to align the sintering behavior of the first oxide ceramic material to the sintering behavior of the second oxide ceramic material, (i) incorporating a dopant into said oxide ceramic material by coating the oxide ceramic material with the dopant, and/or (ii) subjecting said oxide ceramic materials to different degrees of partial densification.
A release sheet, comprising (i) a substrate sheet, (ii) a mat making layer having a glossiness of 1.5 to 8 % measured at an angle of 75° by using a gloss meter and which is provided on at least one surface of the substrate sheet, and (iii) a release layer on a surface of the mat making layer, wherein the mat making layer is a coated film layer containing resin and micro particles having an average particle size of 1 to 20 μm, the formulating amount of micro particles is 30 to 70 % by mass based on the total amount of the resin and the micro particles, the release layer is a coated film layer comprising a releasable resin and ultra micro particles having an average particle size of 0.01 to 0.05 μm, wherein the formulating amount of ultra microparticles is 20 to 50 % by mass based on the amount of the resin and the ultra microparticles, and the surface of the release layer has a glossiness of 1.5 to 2.5 % measured at an angle of 75° by using a gloss meter. (i) a substrate sheet, (ii) a mat making layer having a glossiness of 1.5 to 8 % measured at an angle of 75° by using a gloss meter and which is provided on at least one surface of the substrate sheet, and (iii) a release layer on a surface of the mat making layer,