mhurhangee/ep-ind-claims huggingface dataset:
A mobile station device comprising: a receiver configured to and/or programmed to: receive a system information block via a physical downlink shared channel, the system information block including first information which indicates a frame structure which includes one or more downlink subframes, one or more uplink subframes, one or more special subframes and one or more sets of continuous flexible subframes which are continuous in a time domain in a frame, and receive second information via a physical downlink control channel, the second information being used for scheduling of a transmission of a sounding reference signal; and a controller configured to and/or programmed to: control, on the basis of the second information, in which subframes uplink or downlink transmissions may take place in the frame, wherein each of flexible subframes within the set of continuous flexible subframes is configured as an uplink subframe or a downlink subframe on the basis of the second information, and within the set of continuous flexible subframes in the frame, every subframe preceding a flexible subframe configured as an uplink subframe is configured as an uplink subframe. a receiver configured to and/or programmed to: receive a system information block via a physical downlink shared channel, the system information block including first information which indicates a frame structure which includes one or more downlink subframes, one or more uplink subframes, one or more special subframes and one or more sets of continuous flexible subframes which are continuous in a time domain in a frame, and receive second information via a physical downlink control channel, the second information being used for scheduling of a transmission of a sounding reference signal; and receive a system information block via a physical downlink shared channel, the system information block including first information which indicates a frame structure which includes one or more downlink subframes, one or more uplink subframes, one or more special subframes and one or more sets of continuous flexible subframes which are continuous in a time domain in a frame, and receive second information via a physical downlink control channel, the second information being used for scheduling of a transmission of a sounding reference signal; and a controller configured to and/or programmed to: control, on the basis of the second information, in which subframes uplink or downlink transmissions may take place in the frame, wherein each of flexible subframes within the set of continuous flexible subframes is configured as an uplink subframe or a downlink subframe on the basis of the second information, and within the set of continuous flexible subframes in the frame, every subframe preceding a flexible subframe configured as an uplink subframe is configured as an uplink subframe.
An interaction method, the method is executed by a terminal device, the method comprising: during a multimedia conference, displaying a push stream confirmation control on the terminal device which user has permission to confirm push streams, being the user a host or a participant in the multimedia conference; and sending push stream confirmation information to a server in response to detection of a triggering operation for the push stream confirmation control, wherein the server sends a live stream generated based on a stream of the multimedia conference to a target push stream address specified by one of the hosts or participants in response to the push stream confirmation information, wherein a viewer, which terminal is able to receive content from a live broadcast application, views the live stream of the multimedia conference at the location indicated by the target push stream address, wherein the target push stream address indicates a live broadcast location provided by a push stream platform, wherein the server of the multimedia conference sends the live streams to the push stream platform which forwards the received live streams to the viewers of the said live broadcast application at the said location. during a multimedia conference, displaying a push stream confirmation control on the terminal device which user has permission to confirm push streams, being the user a host or a participant in the multimedia conference; and sending push stream confirmation information to a server in response to detection of a triggering operation for the push stream confirmation control, wherein the server sends a live stream generated based on a stream of the multimedia conference to a target push stream address specified by one of the hosts or participants in response to the push stream confirmation information, wherein a viewer, which terminal is able to receive content from a live broadcast application, views the live stream of the multimedia conference at the location indicated by the target push stream address, wherein the target push stream address indicates a live broadcast location provided by a push stream platform, wherein the server of the multimedia conference sends the live streams to the push stream platform which forwards the received live streams to the viewers of the said live broadcast application at the said location.
A method of predicting neutral detergent fiber digestibility (NDFD) properties of a feedstuff sample, the method comprising: collecting a near-infrared spectrum of the feedstuff sample to provide NIR data of the feedstuff sample; and predicting NDFD of the sample at an elapsed time, NDFD rate of the sample, and/or NDFD extent of the sample from the NIR data using a NIR/NDFD calibration model, wherein the NIR/NDFD calibration model comprises a NIR/NDFD extent calibration model and a NIR/NDFD rate calibration model. collecting a near-infrared spectrum of the feedstuff sample to provide NIR data of the feedstuff sample; and predicting NDFD of the sample at an elapsed time, NDFD rate of the sample, and/or NDFD extent of the sample from the NIR data using a NIR/NDFD calibration model, wherein the NIR/NDFD calibration model comprises a NIR/NDFD extent calibration model and a NIR/NDFD rate calibration model.
A method for a driving assistance system for a vehicle, the driving assistance system including a prediction subsystem, the method comprising the following steps: accepting an environment representation representing at least one entity detected by one or more sensors in an environment of the vehicle; calculating a confidence estimate related to the environment representation based on applying one or more plausibility rules on the environment representation, wherein each plausibility rule comprises a plausible relation between the at least one entity and at least one of another entity and a previous detection of the at least one entity; assigning a numerical value representing a confidence of the environment representation to the confidence estimate; characterized by deciding on whether or not the environment representation is used for a prediction of a future behavior by comparing the numerical value of the confidence estimate with a numerical value of at least one of a predefined threshold value and numerical values of one or more other confidence estimates. accepting an environment representation representing at least one entity detected by one or more sensors in an environment of the vehicle; calculating a confidence estimate related to the environment representation based on applying one or more plausibility rules on the environment representation, wherein each plausibility rule comprises a plausible relation between the at least one entity and at least one of another entity and a previous detection of the at least one entity; assigning a numerical value representing a confidence of the environment representation to the confidence estimate; characterized by deciding on whether or not the environment representation is used for a prediction of a future behavior by comparing the numerical value of the confidence estimate with a numerical value of at least one of a predefined threshold value and numerical values of one or more other confidence estimates.
A process for the preparation of halogenated aromatic amines of the formula wherein R 1, R 2, R 3 and R 4 independently represent H, Cl or Br, an alkyl group or an alkoxy group, R 5 and R 6 independently represent H or an alkyl group or together with the carbon atom to which they are bound form a cyclopentane ring or a cyclohexane ring, and X 1, X 2, X 3 and X 4 independently represent H, Cl or Br, wherein at least one of X 1, X 2, X 3 and X 4 is Cl or Br, or mixtures thereof, said process comprising: (a) providing an aromatic amine of the formula wherein R 1, R 2, R 3, R 4, R 5 and R 6 are as defined above, in the anilinium form in a mixture with sulfuric acid; and (b) treating the mixture of step (a) with chlorine (Cl 2) or bromine (Br 2), followed by treatment with a base to obtain the halogenated aromatic amine of the formula. (a) providing an aromatic amine of the formula wherein R 1, R 2, R 3, R 4, R 5 and R 6 are as defined above, in the anilinium form in a mixture with sulfuric acid; and (b) treating the mixture of step (a) with chlorine (Cl 2) or bromine (Br 2), followed by treatment with a base to obtain the halogenated aromatic amine of the formula.
An immunoglobulin heavy chain locus of a transgenic mouse comprising a long DH cassette encoding an antigen-binding HCDR3, which LDH cassette comprises a recombinant DH construct comprising at least two fused DH gene segments encoding an HCDR3 amino acid sequence with a length of at least 10 amino acids, wherein at least one of the DH gene segments is a heterologous DH gene segment, and a) said at least two fused DH gene segments are directly fused; or b) said at least two fused DH gene segments comprise separate DH gene segments, wherein at least one is a human DH gene segment, connected by an intergenic region that is heterologous to the human DH gene segment, which locus is functional in a transgenic mouse to express said HCDR3 amino acid sequence. a) said at least two fused DH gene segments are directly fused; or b) said at least two fused DH gene segments comprise separate DH gene segments, wherein at least one is a human DH gene segment, connected by an intergenic region that is heterologous to the human DH gene segment,
A spliced lithium strip formed by splicing two or more base lithium strips, wherein the base lithium strip has a thickness fluctuation of less than 5%; the spliced lithium strip has a spliced area and a non-spliced area alternately distributed along the splicing direction, and the spliced area has a maximum thickness H and the non-spliced area has a minimum thickness L, satisfying H − L L × 100 % ≤ 6 %; the spliced area comprises a body region and a transition region, and the transition region of each spliced area is adjacent to the non-spliced area, and each body region has a width of 0.1mm to 3.5mm; the spliced area comprises two protrusions opposite to each other along the thickness direction of the spliced lithium strip, and the two protrusions respectively protrude from the two surfaces of the non-spliced area in the thickness direction, and each of the protrusions in the thickness direction has a cross section in a trapezoidal or trapezoid-like shape, and each trapezoid or trapezoid shape has a lower bottom angle of 0.02 degree or less; the width of the base lithium strip is 170 mm or less; the thickness of the base lithium strip is 0.2 mm to 4 mm; the base lithium strip has a Mohs hardness of 0.6 to 2.5; and the spliced lithium strip is formed by splicing two or more base lithium strips in the width direction thereof, and the spliced area and the non-spliced area are alternately distributed in the width direction of the spliced lithium strip. the base lithium strip has a thickness fluctuation of less than 5%; the spliced lithium strip has a spliced area and a non-spliced area alternately distributed along the splicing direction, and the spliced area has a maximum thickness H and the non-spliced area has a minimum thickness L, satisfying H − L L × 100 % ≤ 6 %; the spliced area comprises a body region and a transition region, and the transition region of each spliced area is adjacent to the non-spliced area, and each body region has a width of 0.1mm to 3.5mm; the spliced area comprises two protrusions opposite to each other along the thickness direction of the spliced lithium strip, and the two protrusions respectively protrude from the two surfaces of the non-spliced area in the thickness direction, and each of the protrusions in the thickness direction has a cross section in a trapezoidal or trapezoid-like shape, and each trapezoid or trapezoid shape has a lower bottom angle of 0.02 degree or less; the width of the base lithium strip is 170 mm or less; the thickness of the base lithium strip is 0.2 mm to 4 mm; the base lithium strip has a Mohs hardness of 0.6 to 2.5; and the spliced lithium strip is formed by splicing two or more base lithium strips in the width direction thereof, and the spliced area and the non-spliced area are alternately distributed in the width direction of the spliced lithium strip.
A distribution system, including a transmission device and a reception device configured to be capable of communicating with each other, the transmission device being equipped with a content transmitting means for transmitting content data, which is one content coded with any one code rate of a plurality of code rates different from each other, to the reception device, and the reception device being equipped with a content reproducing means for, while receiving the content data transmitted by the transmission device, storing received data of the content data into a storage device and also reproducing the content based on the stored data, the distribution system, comprising a code rate determining means for determining the code rate based on a remaining time before reproduction start time set for the reception device as time at which the reception device starts reproduction of the content from a present moment and based on an available reproduction time, which is a time available for reproducing the content based on the content data stored in the storage device of the reception device, wherein: the content transmitting means is configured to change the code rate of the content data to be transmitted to the reception device to the determined code rate; and the content reproducing means is configured to start reproduction of the content at the set reproduction start time. the transmission device being equipped with a content transmitting means for transmitting content data, which is one content coded with any one code rate of a plurality of code rates different from each other, to the reception device, and the reception device being equipped with a content reproducing means for, while receiving the content data transmitted by the transmission device, storing received data of the content data into a storage device and also reproducing the content based on the stored data, the content transmitting means is configured to change the code rate of the content data to be transmitted to the reception device to the determined code rate; and the content reproducing means is configured to start reproduction of the content at the set reproduction start time.
Method for measuring breath alcohol concentration (BrAC) of a user, comprising the steps of: - receiving a flow of an expired breath sample from the user; - measuring the flow rate of the breath sample; - leading the breath sample into a fuel cell sensor; and - calculating the breath alcohol concentration (BrAC) based on an output signal ( FC out) of the fuel cell sensor; - calculating the volume ( V b) of the breath sample based on the measured flow rate; characterised by: - updating continually the calculated breath sample volume ( V b) and the calculated breath alcohol concentration (BrAC) by integrating the measured instantaneous flow rate and the fuel cell output signal ( FC out) over time, irrespective of the breath sample volume ( V b); and when the user stops blowing, performing the following step before calculating the final breath alcohol concentration (BrAC): - compensating the fuel cell output signal ( FC out) using a stored calibration volume ( V cal) to obtain a final compensated fuel cell output signal ( FC comp). - receiving a flow of an expired breath sample from the user; - measuring the flow rate of the breath sample; - leading the breath sample into a fuel cell sensor; and - calculating the breath alcohol concentration (BrAC) based on an output signal ( FC out) of the fuel cell sensor; - calculating the volume ( V b) of the breath sample based on the measured flow rate; - updating continually the calculated breath sample volume ( V b) and the calculated breath alcohol concentration (BrAC) by integrating the measured instantaneous flow rate and the fuel cell output signal ( FC out) over time, irrespective of the breath sample volume ( V b); and - compensating the fuel cell output signal ( FC out) using a stored calibration volume ( V cal) to obtain a final compensated fuel cell output signal ( FC comp).
A multifunction connector for non-invasive ventilation face masks, configured for connecting a non-invasive ventilation face mask to a ventilation system; comprising a substantially tubular base body extending along a longitudinal axis between two opposite open axial ends (3, 4) and having a lateral wall closed around the axis and delimiting an internal duct; the connector being provided with a plurality of functional connection elements projecting from the body and comprising: - an inlet connectable to a ventilation system and an outlet connectable to a ventilation mask, positioned at respective opposite axial ends (3, 4) of the body and comprising respective tubular connection portions (22, 24) of the body; the connection portion of the outlet being shaped so as to be joined to a joint of the ventilation mask by means of a conical coupling; - an oxygen inlet connectable to an oxygen supply pipe; - a flow reading outlet connectable to a flow measuring device; - an MDI inlet configured to receive and engage a metered-dose inhaler device. - an inlet connectable to a ventilation system and an outlet connectable to a ventilation mask, positioned at respective opposite axial ends (3, 4) of the body and comprising respective tubular connection portions (22, 24) of the body; the connection portion of the outlet being shaped so as to be joined to a joint of the ventilation mask by means of a conical coupling; - an oxygen inlet connectable to an oxygen supply pipe; - a flow reading outlet connectable to a flow measuring device; - an MDI inlet configured to receive and engage a metered-dose inhaler device.
A multi-channel parallel pretreatment device, comprising a magnetic separation and transfer device configured to perform separation and transfer of a magnetic particle reagent and a first drive device configured to drive the magnetic separation and transfer device to move, wherein the magnetic separation and transfer device comprises a second mounting bracket; a mounting plate provided with piston rods; and wherein the second mounting bracket is further provided thereon with a second drive device, which is configured to drive the mounting plate to linearly reciprocate in a vertical direction; characterized in that the second mounting bracket is provided therein with an injector chamber, the mounting plate is provided above a top of the injector chamber, the piston rods are connected to the injector chamber in a movable and sealing manner, the injector chamber is provided with loading heads, each of which is configured to load a tip head or a magnetic separation sleeve and has a hollow structure; and wherein free ends of the piston rods are fixedly connected to magnetic rods that are configured to adsorb magnetic beads in the magnetic particle reagent; and the second drive device is configured to drive the magnetic rods on the piston rods to pass through the loading heads. the second mounting bracket is provided therein with an injector chamber, the mounting plate is provided above a top of the injector chamber, the piston rods are connected to the injector chamber in a movable and sealing manner, the injector chamber is provided with loading heads, each of which is configured to load a tip head or a magnetic separation sleeve and has a hollow structure; and wherein free ends of the piston rods are fixedly connected to magnetic rods that are configured to adsorb magnetic beads in the magnetic particle reagent; and the second drive device is configured to drive the magnetic rods on the piston rods to pass through the loading heads.
An upholstery system for forming a curved surface, the system comprising: two surfaces (124, 126) that form a corner; first and second planar elements (178, 180), wherein each planar element (178, 180) is positioned on one of the two surfaces (124, 126); a plurality of contoured elements positioned between the first and second planar elements (178, 180) and along the corner, wherein each of the plurality of contoured elements comprises a curved surface; at least one piece of fabric, wherein the at least one piece of fabric comprises at least three sections (184a, 184b, 184c), and wherein the at least three sections (184a, 184b, 184c) are connected to each other in a series such that adjacent sections form a connected portion; and a plurality of clips positioned on each of the two surfaces (124, 126) so that at least one clip is disposed between the first planar element and the plurality of contoured elements and at least one clip is disposed between the second planar element and the plurality of contoured elements; wherein the at least three sections (184a, 184b, 184c) of the at least one piece of fabric are positioned over the planar elements (178, 180) and the plurality of contoured elements; and wherein the connected portion of adjacent sections of the at least one piece of fabric is connected to the plurality of clips. two surfaces (124, 126) that form a corner; first and second planar elements (178, 180), wherein each planar element (178, 180) is positioned on one of the two surfaces (124, 126); a plurality of contoured elements positioned between the first and second planar elements (178, 180) and along the corner, wherein each of the plurality of contoured elements comprises a curved surface; at least one piece of fabric, wherein the at least one piece of fabric comprises at least three sections (184a, 184b, 184c), and wherein the at least three sections (184a, 184b, 184c) are connected to each other in a series such that adjacent sections form a connected portion; and a plurality of clips positioned on each of the two surfaces (124, 126) so that at least one clip is disposed between the first planar element and the plurality of contoured elements and at least one clip is disposed between the second planar element and the plurality of contoured elements; wherein the at least three sections (184a, 184b, 184c) of the at least one piece of fabric are positioned over the planar elements (178, 180) and the plurality of contoured elements; and wherein the connected portion of adjacent sections of the at least one piece of fabric is connected to the plurality of clips.
An apparatus (10, 100, 1000) for brewing a beverage, the apparatus comprising at least one brew module configured to brew a single-cup portion of a beverage, and a nozzle, the at least one brew module comprising a chamber configured to receive ground material and configured to engage with the nozzle, wherein the nozzle is configured to direct liquid to an inner portion of the chamber during a brew cycle to agitate ground material during the brew cycle, characterized in that the nozzle is configured to be inclined with respect to a horizontal plane of the apparatus such that a face of the nozzle defines an angle between about 5° and 60° with respect to a horizontal plane of the apparatus.