mhurhangee/patent-ind-claim-en huggingface dataset:
A method for transmitting channel state information, CSI, for a downlink transmission from a base station at a user equipment, UE, through an uplink in a wireless communication system, the method comprising: receiving (S3410) a downlink signal through a downlink channel; generating (S3420) the CSI for the downlink channel; and transmitting (S3430) the CSI through an uplink channel, wherein the CSI includes at least one of a first type CSI that is determined based on a first rank and a second type CSI that is determined based on a reference rank, wherein the first type CSI includes at least one of a rank indicator, RI, a precoding matrix indicator, PMI, and a channel quality indicator, CQI, generated based on the first rank, wherein the second type CSI includes at least one of an RI, an PMI, and a CQI generated based on the reference rank, wherein the reference rank is a rank 1 or a rank 2, wherein the first rank is determined by the UE based on the downlink signal, wherein the first type CSI or the second type CSI is transmitted based on downlink control information, DCI, including a CSI report request field, and wherein the CSI includes the first type CSI, if information on scheduling uplink multiple transport blocks is included in the DCI or information on the reference rank is not included in the DCI, and the CSI includes the second type CSI, if information on scheduling uplink single transport block is included in the DCI or information on the reference rank is included in the DCI. receiving (S3410) a downlink signal through a downlink channel; generating (S3420) the CSI for the downlink channel; and transmitting (S3430) the CSI through an uplink channel, wherein the CSI includes at least one of a first type CSI that is determined based on a first rank and a second type CSI that is determined based on a reference rank, wherein the first type CSI includes at least one of a rank indicator, RI, a precoding matrix indicator, PMI, and a channel quality indicator, CQI, generated based on the first rank, wherein the second type CSI includes at least one of an RI, an PMI, and a CQI generated based on the reference rank, wherein the reference rank is a rank 1 or a rank 2, wherein the first rank is determined by the UE based on the downlink signal, wherein the first type CSI or the second type CSI is transmitted based on downlink control information, DCI, including a CSI report request field, and wherein the CSI includes the first type CSI, if information on scheduling uplink multiple transport blocks is included in the DCI or information on the reference rank is not included in the DCI, and the CSI includes the second type CSI, if information on scheduling uplink single transport block is included in the DCI or information on the reference rank is included in the DCI.
A method for producing an object by additive manufacturing, the method comprising the steps of: a) supplying building material; and b) fusing the building material using a light beam ; wherein steps a) and b) are carried out so as to progressively produce the object out of the fused building material; wherein in step b), the beam is projected onto the building material so as to produce a primary spot on the building material, the beam being repetitively scanned in two dimensions in accordance with a first scanning pattern so as to establish an effective spot on the building material, said effective spot having a two-dimensional energy distribution, and wherein said effective spot is displaced in relation to the object being produced to progressively produce the object by fusing the building material; and wherein the two-dimensional energy distribution of the effective spot is dynamically adapted during displacement of the effective spot in relation to the object being produced. a) supplying building material; and b) fusing the building material using a light beam ; wherein steps a) and b) are carried out so as to progressively produce the object out of the fused building material; wherein in step b), the beam is projected onto the building material so as to produce a primary spot on the building material, the beam being repetitively scanned in two dimensions in accordance with a first scanning pattern so as to establish an effective spot on the building material, said effective spot having a two-dimensional energy distribution, and wherein said effective spot is displaced in relation to the object being produced to progressively produce the object by fusing the building material; and wherein the two-dimensional energy distribution of the effective spot is dynamically adapted during displacement of the effective spot in relation to the object being produced.
An ice-making device, comprising: a bracket , provided with a plurality of ice-making boxes ; an operating member , mounted on the bracket ; and a connector , connected between the operating member and the plurality of ice-making boxes to enable the operating member to drive the plurality of ice-making boxes to act; characterized in that , the connector is provided with a plurality of releasing holes and limiting holes being in one-to-one correspondence with the operating member and the plurality of ice-making boxes and communicating with each other; the connector is switched between a releasing position at which the operating member and the plurality of ice-making boxes are respectively connected to the releasing holes and are disassembled from the releasing holes , and a limiting position at which the operating member and the plurality of ice-making boxes are respectively connected to the limiting holes . a bracket , provided with a plurality of ice-making boxes ; an operating member , mounted on the bracket ; and a connector , connected between the operating member and the plurality of ice-making boxes to enable the operating member to drive the plurality of ice-making boxes to act; characterized in that , the connector is provided with a plurality of releasing holes and limiting holes being in one-to-one correspondence with the operating member and the plurality of ice-making boxes and communicating with each other; the connector is switched between a releasing position at which the operating member and the plurality of ice-making boxes are respectively connected to the releasing holes and are disassembled from the releasing holes , and a limiting position at which the operating member and the plurality of ice-making boxes are respectively connected to the limiting holes .
Method for producing polyoxymethylene dimethyl ether (OME) comprising a first method step, in which a reaction mixture (RG-1) is formed from a feed (FD) containing methanol (ME) in the presence of a first catalyst (K-l) in a first reactor (R-1), wherein the reaction mixture (RG-1) comprises dimethoxymethane (OME 1) and formaldehyde (FA) in a molar ratio (mol/mol) between dimethoxymethane (OME 1) and formaldehyde (FA) in a range from 0.1 to 2.0, and a second method step, in which the reaction mixture (RG-1) is introduced into a second reactor (R-2) and converted into polyoxymethylene dimethyl ether (OME) in the presence of a second catalyst (K-2).
An operation device for operating a household appliance, comprising: a display unit (4; 304; 504) which displays a power setting value for defining an operation power of the household appliance, and a time setting value for defining an operation time of the household appliance on an orthogonal coordinate system; an operation unit (301; 501, 502) which simultaneously accepts an input of the power setting value and an input of the time setting value to be displayed on the display unit (4; 304; 504) by an operation of letting a predetermined object touch the display unit (4; 304; 504); wherein one of a vertical axis and a horizontal axis on the orthogonal coordinate system represents the power setting value, and the other of the vertical axis and the horizontal axis represents the time setting value, and the operation unit (301; 501, 502) simultaneously accepts an input of the power setting value and an input of the time setting value by an operation of dragging an intersection point between the power setting value and the time setting value on the orthogonal coordinate system; wherein the operation unit (305; 505) is configured to simultaneously accept an input of the power setting value and an input of the time setting value by an operation of touching an arbitrary position on the orthogonal coordinate system, and the display unit (4; 304; 504) is configured to display the power setting value and the time setting value in such a manner that a touch position to be input by the operation unit coincides with an intersection point between the power setting value and the time setting value. a display unit (4; 304; 504) which displays a power setting value for defining an operation power of the household appliance, and a time setting value for defining an operation time of the household appliance on an orthogonal coordinate system; an operation unit (301; 501, 502) which simultaneously accepts an input of the power setting value and an input of the time setting value to be displayed on the display unit (4; 304; 504) by an operation of letting a predetermined object touch the display unit (4; 304; 504); wherein one of a vertical axis and a horizontal axis on the orthogonal coordinate system represents the power setting value, and the other of the vertical axis and the horizontal axis represents the time setting value, and the operation unit (301; 501, 502) simultaneously accepts an input of the power setting value and an input of the time setting value by an operation of dragging an intersection point between the power setting value and the time setting value on the orthogonal coordinate system; wherein the operation unit (305; 505) is configured to simultaneously accept an input of the power setting value and an input of the time setting value by an operation of touching an arbitrary position on the orthogonal coordinate system, and the display unit (4; 304; 504) is configured to display the power setting value and the time setting value in such a manner that a touch position to be input by the operation unit coincides with an intersection point between the power setting value and the time setting value.
A range profile digitization circuit for converting a repeating analog input signal into a time series of digital amplitude values, the repeating analog input signal comprising multiple pulses, the circuit comprising: a signal quantizer arranged to receive the analog input signal and a threshold input and arranged to output a binary value quantized output signal based on a comparison of the input signal with the threshold signal ; a plurality of samplers arranged to receive the binary value quantized output signal , and each arranged to sample and hold its input signal upon receipt of a trigger signal; for each sampler : a plurality of decoders and a demultiplexer arranged to receive an output from the sampler and pass it to a selected one of said decoders based on a selector input ; and a controller arranged to generate the selector inputs for the demultiplexers , the controller being arranged to change the selector input of each demultiplexer every time the corresponding sampler is triggered; and wherein the controller is arranged such that once all decoders have been used, the controller will reset the demultiplexer selector inputs such that for the next pulse a new range profile measurement begins again at a first decoder of each sampler so that the same range profile is processed along with the previous corresponding sample, but with a new threshold level. a signal quantizer arranged to receive the analog input signal and a threshold input and arranged to output a binary value quantized output signal based on a comparison of the input signal with the threshold signal ; a plurality of samplers arranged to receive the binary value quantized output signal , and each arranged to sample and hold its input signal upon receipt of a trigger signal; for each sampler : a plurality of decoders and a demultiplexer arranged to receive an output from the sampler and pass it to a selected one of said decoders based on a selector input ; and a controller arranged to generate the selector inputs for the demultiplexers , the controller being arranged to change the selector input of each demultiplexer every time the corresponding sampler is triggered; and wherein the controller is arranged such that once all decoders have been used, the controller will reset the demultiplexer selector inputs such that for the next pulse a new range profile measurement begins again at a first decoder of each sampler so that the same range profile is processed along with the previous corresponding sample, but with a new threshold level.
A method for providing real time encoding for a column of an in-memory database while the system is processing incoming queries, the method comprising: selecting a column from a set of columns of the in-memory database; determining two or more candidate encodings for the selected column; gathering, for each operation type of a set of operation types, query workload statistics based on query operations of said each operation type in a query workload, wherein said each operation type of the set of operation types represents a type of query operations in said query workload; computing, based on the gathered query workload statistics, for the selected column, a cost for each candidate encoding of the two or more candidate encodings, wherein the cost for said each candidate encoding of the two or more candidate encodings is based on a cost of said each operation type of the set of operation types that is computed from the query workload statistics; and selecting, among the two of more candidate encodings, an encoding for the selected column, wherein the encoding has a lowest cost; and encoding the selected column with the selected encoding. selecting a column from a set of columns of the in-memory database; determining two or more candidate encodings for the selected column; gathering, for each operation type of a set of operation types, query workload statistics based on query operations of said each operation type in a query workload, wherein said each operation type of the set of operation types represents a type of query operations in said query workload; computing, based on the gathered query workload statistics, for the selected column, a cost for each candidate encoding of the two or more candidate encodings, wherein the cost for said each candidate encoding of the two or more candidate encodings is based on a cost of said each operation type of the set of operation types that is computed from the query workload statistics; and selecting, among the two of more candidate encodings, an encoding for the selected column, wherein the encoding has a lowest cost; and encoding the selected column with the selected encoding.
An optical receiving circuit comprising: a photodiode ; and a transimpedance amplifier configured to supply an electrical power to the photodiode; wherein a characteristic impedance of a wiring between an anode of the photodiode and the transimpedance amplifier is higher than a characteristic impedance of a wiring between a cathode of the photodiode and the transimpedance amplifier , characterized in that a ground is placed in a lower layer of the wiring between the cathode of the photodiode and the transimpedance amplifier , and no ground is placed in a lower layer of the wiring between the anode of the photodiode and the transimpedance amplifier , wherein the photodiode and the transimpedance amplifier are formed on an SOI substrate , wherein the SOI substrate comprises an Si02 layer interposed between an Si substrate and a surface Si layer, wherein the ground placed in the lower layer of the wiring between the cathode of the photodiode and the transimpedance amplifier is formed by an SOI layer , wherein a part of the SOI layer corresponding to the wiring between the cathode of the photodiode and the transimpedance amplifier is ion implanted in order to create the ground. a photodiode ; and a transimpedance amplifier configured to supply an electrical power to the photodiode; wherein a characteristic impedance of a wiring between an anode of the photodiode and the transimpedance amplifier is higher than a characteristic impedance of a wiring between a cathode of the photodiode and the transimpedance amplifier , characterized in that a ground is placed in a lower layer of the wiring between the cathode of the photodiode and the transimpedance amplifier , and no ground is placed in a lower layer of the wiring between the anode of the photodiode and the transimpedance amplifier , wherein the photodiode and the transimpedance amplifier are formed on an SOI substrate , wherein the SOI substrate comprises an Si02 layer interposed between an Si substrate and a surface Si layer, wherein the ground placed in the lower layer of the wiring between the cathode of the photodiode and the transimpedance amplifier is formed by an SOI layer , wherein a part of the SOI layer corresponding to the wiring between the cathode of the photodiode and the transimpedance amplifier is ion implanted in order to create the ground.
A reciprocating mechanism for a fishing reel for evenly winding a fishing line onto a spool mounted on a reel body , comprising: a worm shaft having a shaft portion with intersecting spiral grooves formed on an outer surface thereof, a first shaft supporting portion supporting the shaft portion with respect to the reel body at a first end of the shaft portion and having a spherical portion at a distal end formed in a convex spherical shape, and a second shaft supporting portion supporting the shaft portion with respect to the reel body at a second end of the shaft portion ; a first supporting member with a bottomed tubular shape, having a first bottom portion abutting the spherical portion of the first shaft supporting portion of the worm shaft , and being disposed on the reel body to support the first shaft supporting portion of the worm shaft ; a second supporting member with a bottomed tubular shape, having a second bottom portion abutting the second shaft supporting portion of the worm shaft , and being disposed on the reel body to support the second shaft supporting portion of the worm shaft ; and, a biasing member biasing at least one of the first supporting member and the second supporting member in an axial direction. a worm shaft having a shaft portion with intersecting spiral grooves formed on an outer surface thereof, a first shaft supporting portion supporting the shaft portion with respect to the reel body at a first end of the shaft portion and having a spherical portion at a distal end formed in a convex spherical shape, and a second shaft supporting portion supporting the shaft portion with respect to the reel body at a second end of the shaft portion ; a first supporting member with a bottomed tubular shape, having a first bottom portion abutting the spherical portion of the first shaft supporting portion of the worm shaft , and being disposed on the reel body to support the first shaft supporting portion of the worm shaft ; a second supporting member with a bottomed tubular shape, having a second bottom portion abutting the second shaft supporting portion of the worm shaft , and being disposed on the reel body to support the second shaft supporting portion of the worm shaft ; and, a biasing member biasing at least one of the first supporting member and the second supporting member in an axial direction.
A computer-implemented method comprising: accessing a predictive function configured to: receive a partial or complete bond string and position, BSP, representation of a molecule of a reactant ionic liquid, wherein the partial or complete BSP representation identifies relative positions of atoms connected by a bond in the molecule; predict a reaction-characteristic value that characterizes a reaction between the reactant ionic liquid and a particular polymer based on the received partial or complete BSP representation; wherein the predictive function was generated at least in part using training data corresponding to a set of molecules that were selected using Bayesian optimization, one or more previous versions of the predictive function, and experimentally derived reaction-characteristic values characterizing reactions between the molecules selected using Bayesian optimization and the particular polymer; identifying at least one particular ionic liquid as a prospect for depolymerizing the particular polymer based on the predictive function; and outputting an identification of the at least one particular ionic liquid. receive a partial or complete bond string and position, BSP, representation of a molecule of a reactant ionic liquid, wherein the partial or complete BSP representation identifies relative positions of atoms connected by a bond in the molecule; predict a reaction-characteristic value that characterizes a reaction between the reactant ionic liquid and a particular polymer based on the received partial or complete BSP representation; wherein the predictive function was generated at least in part using training data corresponding to a set of molecules that were selected using Bayesian optimization, one or more previous versions of the predictive function, and experimentally derived reaction-characteristic values characterizing reactions between the molecules selected using Bayesian optimization and the particular polymer; identifying at least one particular ionic liquid as a prospect for depolymerizing the particular polymer based on the predictive function; and outputting an identification of the at least one particular ionic liquid.
A cutting tool holder , comprising: a holder body having a longitudinal axis (A1), and comprising: opposing first and second side surfaces and a top surface extending therebetween; an insert mounting portion located at a front end of the holder body adjacent to the top surface ; a weight aperture comprising an aperture inner surface , and an aperture axis (A2) extending transversely to the longitudinal axis (A1); and a weight assembly located within the weight aperture , characterized by the weight assembly further comprising: a first weight portion ; a second weight portion ; a damping ring located along the aperture inner surface ; and an actuating member interfacing and urging the first and second weight portions away from one another, such that each weight portion presses against the damping ring within the weight aperture , and with the weight aperture opening out to the first and second side surfaces . a holder body having a longitudinal axis (A1), and comprising: opposing first and second side surfaces and a top surface extending therebetween; an insert mounting portion located at a front end of the holder body adjacent to the top surface ; a weight aperture comprising an aperture inner surface , and an aperture axis (A2) extending transversely to the longitudinal axis (A1); and opposing first and second side surfaces and a top surface extending therebetween; an insert mounting portion located at a front end of the holder body adjacent to the top surface ; a weight aperture comprising an aperture inner surface , and an aperture axis (A2) extending transversely to the longitudinal axis (A1); and a weight assembly located within the weight aperture , characterized by the weight assembly further comprising: a first weight portion ; a second weight portion ; a damping ring located along the aperture inner surface ; and an actuating member interfacing and urging the first and second weight portions away from one another, such that each weight portion presses against the damping ring within the weight aperture , and with the weight aperture opening out to the first and second side surfaces . a first weight portion ; a second weight portion ; a damping ring located along the aperture inner surface ; and an actuating member interfacing and urging the first and second weight portions away from one another, such that each weight portion presses against the damping ring within the weight aperture , and with the weight aperture opening out to the first and second side surfaces .