mhurhangee/patent-ind-claim-en huggingface dataset:
A method for hierarchical communications in a wireless communications system , wherein a first hierarchical layer supports transmissions with a first subframe type and a second hierarchical layer supports transmissions with a second subframe type, comprising: concurrently transmitting , in the first hierarchical layer, subframes having the first subframe type using two or more separate carriers, the carriers having a first bandwidth; and transmitting , in the second hierarchical layer, a subframe of the second subframe type using a carrier having a second bandwidth, the second bandwidth being greater than the first bandwidth, wherein the radio frequency spectrum occupied by the transmission in the first hierarchical layer overlaps the radio frequency spectrum occupied by the transmission in the second hierarchical layer, and wherein the second bandwidth is scaled according to the aggregated bandwidth of the carriers associated with the first subframe type. concurrently transmitting , in the first hierarchical layer, subframes having the first subframe type using two or more separate carriers, the carriers having a first bandwidth; and transmitting , in the second hierarchical layer, a subframe of the second subframe type using a carrier having a second bandwidth, the second bandwidth being greater than the first bandwidth, wherein the radio frequency spectrum occupied by the transmission in the first hierarchical layer overlaps the radio frequency spectrum occupied by the transmission in the second hierarchical layer, and wherein the second bandwidth is scaled according to the aggregated bandwidth of the carriers associated with the first subframe type.
Reversibly detachable fluid-line coupling , at least having a coupling sleeve , a locking element and a coupling plug , wherein the coupling has at least two ring-like coupling parts , namely a coupling head and a coupling body , wherein coupling head and coupling body are formed from plastic and are connected in a fluid-tight and non-detachable manner to form a tubular coupling sleeve which is suitable for plugging-in of the coupling plug and which has a first opening , assigned to the coupling head , for plugging-in of the coupling plug and has a second opening, assigned to the coupling body , for connection of further lines , wherein the coupling head has circumferentially oriented slots and ring segment-like, radially outwardly pointing support webs , and the locking component is in the form of a flat, open spring-steel ring which has latching claws projecting radially into the interior of the spring-steel ring and distributed over the circumference of the spring-steel ring and which has axially oriented support tongues , wherein, in the region of the coupling head , the locking component resiliently surrounds the coupling head in such a way that the latching claws project into the interior of the coupling sleeve through the slots in the coupling head and the support tongues of the spring-steel ring correspond to the support webs of the coupling head in such a way that in each case one support tongue is assigned to one support web .
A 3-(5-fluoro-4-(4-methyl-2-(methylamino)thiazol-5-yl) pyrimidin-2-ylamino)-benzenesulfonamide tartrate having a structure as represented by Formula II:
A refrigerator comprising: a cabinet defining a storage compartment; a door configured to open and close the storage compartment; and a door opening device configured to open the door , wherein the door opening device includes a motor and a pushing member configured to be withdrawn out by the motor to thereby open the door; and a connection gear configured to transfer power to the pushing member, the connection gear being configured to contact a first rack and a second rack ; wherein the pushing member includes: said first rack configured to be driven by the motor , the first rack being configured to push one of the cabinet or the door , and said second rack configured to be driven by the motor and slidably coupled to the first rack , the second rack at least partially overlapping with the first rack , and wherein the first rack is configured to move relative to the second rack in a first direction to open the door to a first angle, and to move together with the second rack in the first direction to move the door to a second angle greater than the first angle; characterized in that the connection gear is configured, when the first rack moves relative to the second rack , to engagedly contact the first rack without engagedly contacting the second rack , and wherein the connection gear is configured, when the first rack moves together with the second rack , to engagedly contact both the first rack and the second rack . a cabinet defining a storage compartment; a door configured to open and close the storage compartment; and a door opening device configured to open the door , wherein the door opening device includes a motor and a pushing member configured to be withdrawn out by the motor to thereby open the door; and a connection gear configured to transfer power to the pushing member, the connection gear being configured to contact a first rack and a second rack ; wherein the pushing member includes: said first rack configured to be driven by the motor , the first rack being configured to push one of the cabinet or the door , and said second rack configured to be driven by the motor and slidably coupled to the first rack , the second rack at least partially overlapping with the first rack , and said first rack configured to be driven by the motor , the first rack being configured to push one of the cabinet or the door , and said second rack configured to be driven by the motor and slidably coupled to the first rack , the second rack at least partially overlapping with the first rack , and wherein the first rack is configured to move relative to the second rack in a first direction to open the door to a first angle, and to move together with the second rack in the first direction to move the door to a second angle greater than the first angle; characterized in that the connection gear is configured, when the first rack moves relative to the second rack , to engagedly contact the first rack without engagedly contacting the second rack , and wherein the connection gear is configured, when the first rack moves together with the second rack , to engagedly contact both the first rack and the second rack .
A method for sending radio link failure, RLF, report, performed by a terminal device, characterized in that the method comprises: sending (S210) an RLF report related to a conditional handover, CHO, wherein the RLF report related to the CHO comprises: a parameter corresponding to a configured handover execution condition, wherein the parameter comprises at least one of a frequency-specific offset, a cell-specific offset, an additional offset, a hysteresis, or a threshold.
A compound selected from the group consisting of: and wherein: R 1 is -COOH or -CH 2 COOH; and R 2 is an optionally substituted straight or branched alkyl or alkenyl group with 1 to 20 C atoms, and wherein the backbone of the alkyl or alkenyl group is optionally interrupted by one or more heteroatoms; or a pharmaceutically acceptable salt or solvate thereof for use in treating, preventing or ameliorating a seizure-related disorder. R 1 is -COOH or -CH 2 COOH; and R 2 is an optionally substituted straight or branched alkyl or alkenyl group with 1 to 20 C atoms, and wherein the backbone of the alkyl or alkenyl group is optionally interrupted by one or more heteroatoms; or a pharmaceutically acceptable salt or solvate thereof for use in treating, preventing or ameliorating a seizure-related disorder.
Process carried out by a processor in order to estimate the physical or variable characteristic parameters of a bundle of corpuscles which are intended to be emitted towards a body or an object and in order to determine the dose deposited by the bundle emitted, the corpuscles being arranged in a phase space register, comprising in combination at least the following steps: • collecting the corpuscles present in a bundle which has passed through a collector and a filter and which may or may not have interacted therewith, • determining a partition of a support Ω of each variable in the form of a set I of consecutive and contiguous ranges for classifying the corpuscles of the register PSF in terms of energy, position and direction, the reassembly of these ranges for each variable of the bundle constituting a multivariate channel, and characterised in that it comprises the following steps: • cutting the support Ω into a number Dmax of regular micro-channels having a given size δ and calculating the likelihood corresponding to the possible ranges by contiguous concatenation of the micro-channels, retaining the best partition I of Ω, • defining a link in each direction of phase space while maximising the probability of the construction of a variable in a range while introducing one "a priori" in order to obtain a regularised partition of the phase space, • estimating the probability distribution of the phase space for the regularised partition, • calculating the physical characteristics of the bundle of corpuscles, comparing them with proven data and determining the doses before emitting the bundle. • collecting the corpuscles present in a bundle which has passed through a collector and a filter and which may or may not have interacted therewith, • determining a partition of a support Ω of each variable in the form of a set I of consecutive and contiguous ranges for classifying the corpuscles of the register PSF in terms of energy, position and direction, the reassembly of these ranges for each variable of the bundle constituting a multivariate channel, and • cutting the support Ω into a number Dmax of regular micro-channels having a given size δ and calculating the likelihood corresponding to the possible ranges by contiguous concatenation of the micro-channels, retaining the best partition I of Ω, • defining a link in each direction of phase space while maximising the probability of the construction of a variable in a range while introducing one "a priori" in order to obtain a regularised partition of the phase space, • estimating the probability distribution of the phase space for the regularised partition, • calculating the physical characteristics of the bundle of corpuscles, comparing them with proven data and determining the doses before emitting the bundle.
A system for safety analysis of failure behavior of a computing unit comprising two or more components , wherein each component comprises at least one inport (I) for receiving incoming failure data and one outport (O) for transmitting outcoming failure data, wherein the system is configured for using a safety contract for the analysis of the failure data of the components and/or the computing unit , and wherein the system is configured for generating the safety contract from a model-based safety analysis model comprising separate modules which are related to the components of the computing unit respectively, and wherein the incoming failure data received at the inport (I) are modelled by using an inport failure mode and the outcoming failure data transmitted from the outport (O) are modelled by using an outport failure mode , wherein the inport failure mode and the outport failure mode are defined by the model-based safety analysis model, and wherein an internal failure behavior is defined for each component and/or the computing unit , and wherein the safety contract for the components and/or the computing unit is an interface contract or a component contract, and wherein the model-based safety analysis model is a component fault tree model. each component comprises at least one inport (I) for receiving incoming failure data and one outport (O) for transmitting outcoming failure data, wherein the system is configured for using a safety contract for the analysis of the failure data of the components and/or the computing unit , and wherein the system is configured for generating the safety contract from a model-based safety analysis model comprising separate modules which are related to the components of the computing unit respectively, and wherein the incoming failure data received at the inport (I) are modelled by using an inport failure mode and the outcoming failure data transmitted from the outport (O) are modelled by using an outport failure mode , wherein the inport failure mode and the outport failure mode are defined by the model-based safety analysis model, and wherein an internal failure behavior is defined for each component and/or the computing unit , and wherein the safety contract for the components and/or the computing unit is an interface contract or a component contract, and wherein the model-based safety analysis model is a component fault tree model.
A method of transmitting an uplink signal by a user equipment, UE, in a wireless communication system supporting an unlicensed band, the method comprising: transmitting a physical uplink shared channel, PUSCH, over at least one interlace among a plurality of interlaces in the unlicensed band, wherein one interlace among the plurality of interlaces is composed of a plurality of resource blocks, RBs, having an identical RB interval between consecutive RBs within the one interlace in a unit of a first frequency bandwidth, wherein the unit of the first frequency bandwidth is 20 MHz, characterized in that based on a configured subcarrier spacing being 15 kHz, wherein the identical RB interval is configured to 10 RBs, based on the configured subcarrier spacing being 30 kHz, wherein the identical RB interval is configured to 5 RBs, and, wherein, based on a transform precoding being enabled through a Radio Resource Control, RRC, signaling, the number of RBs through which the PUSCH is transmitted in the at least one interlace is a multiple of at least one of 2, 3, and 5 that is not greater than the number of RBs allocated to the at least one interlace. transmitting a physical uplink shared channel, PUSCH, over at least one interlace among a plurality of interlaces in the unlicensed band, wherein one interlace among the plurality of interlaces is composed of a plurality of resource blocks, RBs, having an identical RB interval between consecutive RBs within the one interlace in a unit of a first frequency bandwidth, wherein the unit of the first frequency bandwidth is 20 MHz, characterized in that based on a configured subcarrier spacing being 15 kHz, wherein the identical RB interval is configured to 10 RBs, based on the configured subcarrier spacing being 30 kHz, wherein the identical RB interval is configured to 5 RBs, and, wherein, based on a transform precoding being enabled through a Radio Resource Control, RRC, signaling, the number of RBs through which the PUSCH is transmitted in the at least one interlace is a multiple of at least one of 2, 3, and 5 that is not greater than the number of RBs allocated to the at least one interlace.
A network device, comprising: a receiving unit , configured to receive a transmission resource request sent by a first terminal device; a determining unit , configured to determine a quantity of transmission times in response to the transmission resource request received by the receiving unit ; an allocation unit , configured to allocate a resource set to the first terminal device according to the quantity of transmission times determined by the determining unit , wherein a quantity of resources comprised in the resource set is equal to the quantity of transmission times, and the resources are a set of one or more physical resource blocks used by the first terminal device to send a to-be-transmitted service data packet; and a sending unit , configured to send, to the first terminal device, time-frequency resource location information of each resource in the resource set allocated by the allocation unit . a receiving unit , configured to receive a transmission resource request sent by a first terminal device; a determining unit , configured to determine a quantity of transmission times in response to the transmission resource request received by the receiving unit ; an allocation unit , configured to allocate a resource set to the first terminal device according to the quantity of transmission times determined by the determining unit , wherein a quantity of resources comprised in the resource set is equal to the quantity of transmission times, and the resources are a set of one or more physical resource blocks used by the first terminal device to send a to-be-transmitted service data packet; and a sending unit , configured to send, to the first terminal device, time-frequency resource location information of each resource in the resource set allocated by the allocation unit .
A pixel suitable for a photo sensor, comprising: a photo diode , a floating diffusion point (FD), and a transistor (Tx) between the photo diode and the floating diffusion point, a gate of the transistor (Tx) applied with an intermediate voltage between a turn-off voltage of the transistor and a turn-on voltage of the transistor to transfer charge from the photo diode to the floating diffusion point responsive to an intensity of light incident on the photodiode during an exposure phase exceeding a threshold intensity, the gate of the transistor (Tx) applied with the turn-on voltage in a sensing phase subsequent to the exposure phase to transfer the charge from the photo diode to the floating diffusion point (FD), an amplifier (TS) having an input terminal connected to the floating diffusion point (FD) and an output terminal connected to a pixel level interconnect to output a signal voltage (V SIG ), and an analog-digital converter (ADC) having an input terminal connected to the pixel level connect , the ADC determining during the exposure phase a rate of increase or decrease of the signal voltage (V SIG ) at the pixel level interconnect when the intermediate voltage is applied to the gate of the transistor (Tx), the ADC determining during sensing phase the signal voltage (V SIG ) at the pixel level interconnect when the turn-on voltage is applied to the gate of the transistor (Tx). a photo diode , a floating diffusion point (FD), and a transistor (Tx) between the photo diode and the floating diffusion point, a gate of the transistor (Tx) applied with an intermediate voltage between a turn-off voltage of the transistor and a turn-on voltage of the transistor to transfer charge from the photo diode to the floating diffusion point responsive to an intensity of light incident on the photodiode during an exposure phase exceeding a threshold intensity, the gate of the transistor (Tx) applied with the turn-on voltage in a sensing phase subsequent to the exposure phase to transfer the charge from the photo diode to the floating diffusion point (FD), an amplifier (TS) having an input terminal connected to the floating diffusion point (FD) and an output terminal connected to a pixel level interconnect to output a signal voltage (V SIG ), and an analog-digital converter (ADC) having an input terminal connected to the pixel level connect , the ADC determining during the exposure phase a rate of increase or decrease of the signal voltage (V SIG ) at the pixel level interconnect when the intermediate voltage is applied to the gate of the transistor (Tx), the ADC determining during sensing phase the signal voltage (V SIG ) at the pixel level interconnect when the turn-on voltage is applied to the gate of the transistor (Tx).
An apparatus for the measurement of a turbid sample comprising: an illumination apparatus having a plurality of light sources configured to illuminate a target area of a turbid sample with planar non-structured light at a plurality of wavelengths, a projection system configured to illuminate said target area of turbid sample with spatially structured light at a plurality of wavelengths, wherein the wavelengths of the planar non-structured light are different from the wavelengths of the spatially structured light, a sensor configured to collect a plurality of wavelengths of planar non-structured light and a plurality of wavelengths of spatially structured light remitted from the target area of the turbid sample, and a processor configured to analyze data of the remitted planar non-structured light and the remitted spatially structured light collected by the sensor to determine the scattering and absorption coefficients of the turbid sample. an illumination apparatus having a plurality of light sources configured to illuminate a target area of a turbid sample with planar non-structured light at a plurality of wavelengths, a projection system configured to illuminate said target area of turbid sample with spatially structured light at a plurality of wavelengths, wherein the wavelengths of the planar non-structured light are different from the wavelengths of the spatially structured light, a sensor configured to collect a plurality of wavelengths of planar non-structured light and a plurality of wavelengths of spatially structured light remitted from the target area of the turbid sample, and a processor configured to analyze data of the remitted planar non-structured light and the remitted spatially structured light collected by the sensor to determine the scattering and absorption coefficients of the turbid sample.
A process for tanning hide comprising the following steps: a) a pickling step comprising immerging the hides in a bath with an acid and a salt, wherein the pH of the hide is reduced to values lower than 3, b) tanning step comprising immerging the hide in a bath containing the olation agent, and an electric field is produced, by placing the hide between the two electrically powered electrodes. c) a basification step comprising immerging the hide in a bath with a basic pH, wherein also in the step a), c) or both steps a) and c) an electric field is produced, by placing the hide between two electrically powered electrodes. a) a pickling step comprising immerging the hides in a bath with an acid and a salt, wherein the pH of the hide is reduced to values lower than 3, b) tanning step comprising immerging the hide in a bath containing the olation agent, and an electric field is produced, by placing the hide between the two electrically powered electrodes. c) a basification step comprising immerging the hide in a bath with a basic pH,
A method for detecting, at a master , an interrupt from a slave on a radio frequency front end, RFFE, bus , the method comprising the steps of: holding a clock line of the RFFE bus at a logical low when the RFFE bus is idle; detecting , while the RFFE bus is idle, with detection circuitry at the master associated with the RFFE bus, a logical high on the clock line; and initiating an interrupt inquiry from the master. holding a clock line of the RFFE bus at a logical low when the RFFE bus is idle; detecting , while the RFFE bus is idle, with detection circuitry at the master associated with the RFFE bus, a logical high on the clock line; and initiating an interrupt inquiry from the master.