mhurhangee/patent-ind-claim-en huggingface dataset:
A method for use in non-adaptive retransmission, the method comprising: receiving (S201) a cyclic shift indicator, CSI, in downlink control information, DCI, the CSI indicating the configuration of a demodulation reference signal, DM-RS, of a first layer for an initial transmission; deriving (S202) a configuration of a demodulation reference signal of remaining layer or layers for the initial transmission according to predetermined rules for the initial transmission based on the received CSI; configuring (S205) an uplink UL demodulation reference signal DM-RS for a retransmission of the initial transmission in response to a retransmission request (S204) requesting said retransmission, wherein said configuring comprises: configuring the demodulation reference signal DM-RS for the retransmission to be the same as a demodulation reference signal for the initial transmission; and deriving the configuration of the demodulation reference signal of the layer or layers for the retransmission according to the predetermined rules used for the initial transmission based on the received cyclic shift indicator CSI with respect to the number of layers for the retransmission. receiving (S201) a cyclic shift indicator, CSI, in downlink control information, DCI, the CSI indicating the configuration of a demodulation reference signal, DM-RS, of a first layer for an initial transmission; deriving (S202) a configuration of a demodulation reference signal of remaining layer or layers for the initial transmission according to predetermined rules for the initial transmission based on the received CSI; configuring (S205) an uplink UL demodulation reference signal DM-RS for a retransmission of the initial transmission in response to a retransmission request (S204) requesting said retransmission, wherein said configuring comprises: configuring the demodulation reference signal DM-RS for the retransmission to be the same as a demodulation reference signal for the initial transmission; and deriving the configuration of the demodulation reference signal of the layer or layers for the retransmission according to the predetermined rules used for the initial transmission based on the received cyclic shift indicator CSI with respect to the number of layers for the retransmission. configuring the demodulation reference signal DM-RS for the retransmission to be the same as a demodulation reference signal for the initial transmission; and deriving the configuration of the demodulation reference signal of the layer or layers for the retransmission according to the predetermined rules used for the initial transmission based on the received cyclic shift indicator CSI with respect to the number of layers for the retransmission.
A lighting apparatus for lighting a billiard table surface , the apparatus comprising: a frame configured to support one or more lights above the billiard table surface , the one or more lights comprising a light source or sources mounted in the frame in a configuration such that they provide substantially uniform illumination of the billiard table surface , or in a configuration around a periphery of the billiard table surface; a middle camera , mounted on the middle portion of the frame , to record images of the billiard table surface; a processing device in operative communication to receive the images recorded by the middle camera, characterized in that the processing device is configured to: determine whether balls on the billiard table surface are in motion or non-motion based on the images recorded by the middle camera , and automatically control a setting for the lighting apparatus based at least in part on the balls being either in motion or non-motion. a frame configured to support one or more lights above the billiard table surface , the one or more lights comprising a light source or sources mounted in the frame in a configuration such that they provide substantially uniform illumination of the billiard table surface , or in a configuration around a periphery of the billiard table surface; a middle camera , mounted on the middle portion of the frame , to record images of the billiard table surface; a processing device in operative communication to receive the images recorded by the middle camera, characterized in that the processing device is configured to: determine whether balls on the billiard table surface are in motion or non-motion based on the images recorded by the middle camera , and automatically control a setting for the lighting apparatus based at least in part on the balls being either in motion or non-motion. determine whether balls on the billiard table surface are in motion or non-motion based on the images recorded by the middle camera , and automatically control a setting for the lighting apparatus based at least in part on the balls being either in motion or non-motion.
A data transfer method performed by a first base station in a wireless communication system, the method comprising: transmitting (S1010), to a second base station, a message requesting information for data transfer; receiving (S1020), from the second base station, a response message for the message requesting the information for data transfer; transmitting, to the second base station, data forwarding address indication for the second base station; and receiving, from the second base station, data pending at the second base station based on the data forwarding address indication for the second base station, wherein the data pending at the second base station are destinated to a lightly connected user equipment, UE, and wherein the first base station informs, by the data forwarding address indication for the second base station, the second base station of resource contexts to which the data pending at the second base station can be transferred to the first base station. transmitting (S1010), to a second base station, a message requesting information for data transfer; receiving (S1020), from the second base station, a response message for the message requesting the information for data transfer; transmitting, to the second base station, data forwarding address indication for the second base station; and receiving, from the second base station, data pending at the second base station based on the data forwarding address indication for the second base station, wherein the data pending at the second base station are destinated to a lightly connected user equipment, UE, and wherein the first base station informs, by the data forwarding address indication for the second base station, the second base station of resource contexts to which the data pending at the second base station can be transferred to the first base station.
A thermosetting binder composition which is free from added formaldehyde and liberates less than 100ppm of formaldehyde as a result of drying and/or curing and comprising resorcinol dialdehyde resin from (i) resorcinol and (ii) one or more dialdehyde chosen from cyclohexane dicarboxaldehyde, glutaraldehyde, or their mixtures in aqueous systems with and without organic solvents, wherein the ratio of the number of hydroxyl equivalent groups of the resorcinol to the number of aldehyde equivalent groups of the one or more dialdehyde ranges from 1:1 to 4:1, and wherein the composition further comprises a hydrolysable epoxy functional silane in an amount from 0.1 to 2.5 wt%, based on total resin composition solids.
A compute apparatus adapted to perform machine learning operations, the apparatus comprising: a decode unit adapted to decode a single instruction into a decoded instruction that specifies multiple operands including an input value and a quantized weight value associated with a neural network , wherein the quantized weight value is quantized to a power of two; and an arithmetic logic unit including a barrel shifter , an adder , and an accumulator register , wherein to execute the decoded instruction, the barrel shifter is adapted to shift the input value by the quantized weight value to generate a shifted input value and the adder is adapted to add the shifted input value to a value stored in the accumulator register and update the value stored in the accumulator register . a decode unit adapted to decode a single instruction into a decoded instruction that specifies multiple operands including an input value and a quantized weight value associated with a neural network , wherein the quantized weight value is quantized to a power of two; and an arithmetic logic unit including a barrel shifter , an adder , and an accumulator register , wherein to execute the decoded instruction, the barrel shifter is adapted to shift the input value by the quantized weight value to generate a shifted input value and the adder is adapted to add the shifted input value to a value stored in the accumulator register and update the value stored in the accumulator register .
Balance base for a rowing machine which is suitable as a stand for the rowing machine and on which the rowing machine can be fixedly positioned, wherein the balance base has an upper frame , a lower frame , and at least one spring element , wherein the spring element is arranged between the upper frame and the lower frame , wherein a form-fitting or force-fitting fixation is provided for the upper frame to the rowing machine , and wherein the at least one spring element is made of an elastic or viscoelastic material, wherein the tilting rigidity of the spring element is both lower than the tensile-compressive rigidity and lower than the shear stiffness, and wherein the balance base can be positioned under the rowing machine in such a way that the at least one spring element is arranged in the vertical plane which includes the central longitudinal axis of the rowing machine so that, by placing the rowing machine on the balance base , no additional movements of the rowing machine, other than the lateral tilting movement about the longitudinal axis of the rowing machine, are possible.
Separation apparatus for separating a mixture of oil and water, the apparatus comprising a separation chamber , an inlet into the chamber for a mixture to be separated, a plurality of separation vessels located in the chamber , each separation vessel having an upper part providing a weir to permit material to pass thereover, a connection from the chamber inlet to inlets in a lower part of each separation vessel to enable the mixture to be urged into each vessel , the chamber having an outlet for water below the weirs for water having passed thereover, the chamber having an outlet for oil and/or gas at an upper part thereof.
Conveying device for the positioning and the provision of laboratory vessels (12; 12a, 12b, 12c) for nutrient media, samples, microorganisms, cell cultures, or the like for analysis, sample preparation, and/or sample manipulation at an associated apparatus , having at least one first conveying unit for conveying said laboratory vessels backward and forward between an initial region and a provision region , which first conveying unit vertically conveys said laboratory vessel from said initial region to a predetermined height region and vice versa; and in which a second conveying unit is provided that horizontally conveys said laboratory vessel from said height region to said provision region and vice versa, said conveying units each only performing a translational movement of said laboratory vessel along an axis (A), characterized in that said second conveying unit horizontally conveys said laboratory vessel from said height region to said provision region and vice versa, said laboratory vessel is retained in said provision region for the intended analysis or preparation, a centering device is provided that acts to center said laboratory vessel relative to said axis (A) of said first conveying unit , said first conveying unit comprises a horizontally aligned support for said laboratory vessel , and in that said axis (A) of said first conveying unit extends orthogonally with respect to the support surface, and that said centering device comprises a rotational drive for said support and a lateral ring guide for said laboratory vessel , which ring guide tapers conically in one direction, so that for centering said laboratory vessel the latter is rotated on the support about said axis (A) of said first conveying unit, said support is moved in the direction of the conical taper, in which process said laboratory vessel is guided by said lateral ring guide , thus centering the laboratory vessel on the support relative to said axis (A).
A pixel structure comprising a plurality of repeating units, wherein: each of the repeating units comprises a first portion, a second portion, a third portion, and a fourth portion, and the first portion, the second portion, the third portion, and the fourth portion are arranged in a shape of a matrix of two rows by two columns; and each of the first through fourth portions comprises four rows by four columns of sub-pixels, and comprises, in each of the rows, the columns, and diagonals thereof, one first sub-pixel, one second sub-pixel, one third sub-pixel, and one fourth sub-pixel which are different in color from one another, characterized in that : two sub-pixels, which have the same color, and are in the same one of the four rows in any left-right adjacent two of the first through fourth portions, are in an odd-numbered column of one of the two portions and an even-numbered column of the other of the two portions, respectively; and two sub-pixels, which have the same color, and are in the same one of the four columns in any up-down adjacent two of the first through fourth portions, are in an odd-numbered row of one of the two portions and an even-numbered row of the other of the two portions, respectively. each of the repeating units comprises a first portion, a second portion, a third portion, and a fourth portion, and the first portion, the second portion, the third portion, and the fourth portion are arranged in a shape of a matrix of two rows by two columns; and each of the first through fourth portions comprises four rows by four columns of sub-pixels, and comprises, in each of the rows, the columns, and diagonals thereof, one first sub-pixel, one second sub-pixel, one third sub-pixel, and one fourth sub-pixel which are different in color from one another, characterized in that : two sub-pixels, which have the same color, and are in the same one of the four rows in any left-right adjacent two of the first through fourth portions, are in an odd-numbered column of one of the two portions and an even-numbered column of the other of the two portions, respectively; and two sub-pixels, which have the same color, and are in the same one of the four columns in any up-down adjacent two of the first through fourth portions, are in an odd-numbered row of one of the two portions and an even-numbered row of the other of the two portions, respectively.
A bolt with a head configured as a force applying member and a shaft portion , on which a thread is formed, wherein said bolt is configured as an injection-moulded part, especially a plastic injection-moulded part, and has a coil in the region of its leading end, which has a radially outer profile that is configured for tapping a thread, wherein said coil is encapsulated by the material of the shaft of said bolt in such a way that the radially outer profile protrudes at least in some portions radially beyond said shaft portion and is disposed on an imaginary periodical continuation of said thread . wherein said bolt is configured as an injection-moulded part, especially a plastic injection-moulded part, and has a coil in the region of its leading end, which has a radially outer profile that is configured for tapping a thread, wherein said coil is encapsulated by the material of the shaft of said bolt in such a way that the radially outer profile protrudes at least in some portions radially beyond said shaft portion and is disposed on an imaginary periodical continuation of said thread .
A medical device for creating or expanding a cavity within bone of a patient, the medical device comprising: a housing ; a first shaft that is threadably coupled to the housing, the first shaft comprising exterior threads that threadably engage threads of the housing; a second shaft that is threadably coupled to the first shaft, the second shaft comprising exterior threads that threadably engage with interior threads of the first shaft; a third shaft that is coupled to the first shaft such that a proximal portion of the third shaft moves axially with the first shaft; and a fourth shaft that is coupled to the second shaft such that a proximal portion of the fourth shaft moves axially with the second shaft; wherein a proximal portion of the fourth shaft is longitudinally displaceable relative to the third shaft; wherein the fourth shaft is attached to the third shaft at a position that is adjacent a distal end of the third shaft; wherein the exterior threads of the first shaft have a pitch that is greater than a pitch of the exterior threads of the second shaft; and wherein the medical device is configured such that rotation of the first shaft relative to the housing in a first direction results in simultaneous displacement of a distal tip of the medical device in a distal direction relative to the housing and displacement of the distal tip of the medical device in a direction that is lateral to a longitudinal axis of the medical device. a housing ; a first shaft that is threadably coupled to the housing, the first shaft comprising exterior threads that threadably engage threads of the housing; a second shaft that is threadably coupled to the first shaft, the second shaft comprising exterior threads that threadably engage with interior threads of the first shaft; a third shaft that is coupled to the first shaft such that a proximal portion of the third shaft moves axially with the first shaft; and a fourth shaft that is coupled to the second shaft such that a proximal portion of the fourth shaft moves axially with the second shaft; wherein a proximal portion of the fourth shaft is longitudinally displaceable relative to the third shaft; wherein the fourth shaft is attached to the third shaft at a position that is adjacent a distal end of the third shaft; wherein the exterior threads of the first shaft have a pitch that is greater than a pitch of the exterior threads of the second shaft; and wherein the medical device is configured such that rotation of the first shaft relative to the housing in a first direction results in simultaneous displacement of a distal tip of the medical device in a distal direction relative to the housing and displacement of the distal tip of the medical device in a direction that is lateral to a longitudinal axis of the medical device.
A method for determining a location of a mobile device, comprising: receiving position location data from a plurality of different sources including a first source and a second source, wherein the first source comprises at least one base station and the second source comprises a satellite positioning system; comparing the received position location data from the first source and the second source to determine whether the position location data received from the second source are consistent with the position location data received from the first source; and determining the location of the mobile terminal based on the position location data received from the first source while discarding or de-weighting the position location data received from the second source if it is determined that the position location data received from the second source are inconsistent with the position location data received from the first source. receiving position location data from a plurality of different sources including a first source and a second source, wherein the first source comprises at least one base station and the second source comprises a satellite positioning system; comparing the received position location data from the first source and the second source to determine whether the position location data received from the second source are consistent with the position location data received from the first source; and determining the location of the mobile terminal based on the position location data received from the first source while discarding or de-weighting the position location data received from the second source if it is determined that the position location data received from the second source are inconsistent with the position location data received from the first source.
A bumper reinforcement extending along a lateral direction of a vehicle at the front of the vehicle, the bumper reinforcement comprising: a front wall ; a rear wall disposed behind the front wall ; at least one horizontal wall connecting the front wall and the rear wall ; a cutout in the at least one horizontal wall , the cutout extending laterally inward from a lateral end of the at least one horizontal wall , wherein the cutout divides a lateral end portion of the bumper reinforcement between a front end portion located in front of the cutout and a rear end portion located behind the cutout , and the front end portion comprises a protruded portion bent rearward to be tilted with respect to the rear wall characterized in that the protruded portion is protruding laterally outward (L1) further than a lateral end of the rear end portion . a front wall ; a rear wall disposed behind the front wall ; at least one horizontal wall connecting the front wall and the rear wall ; a cutout in the at least one horizontal wall , the cutout extending laterally inward from a lateral end of the at least one horizontal wall , wherein the cutout divides a lateral end portion of the bumper reinforcement between a front end portion located in front of the cutout and a rear end portion located behind the cutout , and the front end portion comprises a protruded portion bent rearward to be tilted with respect to the rear wall characterized in that the protruded portion is protruding laterally outward (L1) further than a lateral end of the rear end portion .