mhurhangee/patent-ind-claim-en huggingface dataset:
A camera usable while a plurality of accessory apparatuses are connected to the camera , the camera comprising a camera controller configured to control a communication with the plurality of accessory apparatuses using a signal transmission channel used for signal transmission between the camera and the plurality of accessory apparatuses , and a data communication channel used for a data communication between the camera and the plurality of accessory apparatuses , characterized in that the camera controller is configured to provide, using the data communication channel, a first communication for performing a data communication with the plurality of accessory apparatuses , and a second communication for performing a data communication individually with a specific accessory apparatus designated as a communication counterpart by the first communication, outputs to the signal transmission channel a signal for instructing switching from the first communication to the second communication, performs the first communication at a first communication rate commonly usable for the camera and the plurality of accessory apparatuses , performs the second communication at a second communication rate commonly usable for the camera and the specific accessory apparatus and equal to or higher than the first communication rate, performs the first communication at an initial communication rate determined between the camera and the plurality of accessory apparatuses and acquires usable communication rate information indicating a usable communication rate from each of the plurality of accessory apparatuses , and sets the first communication rate and the second communication rate corresponding to each of the plurality of accessory apparatuses , using the usable communication rate information. is configured to provide, using the data communication channel, a first communication for performing a data communication with the plurality of accessory apparatuses , and a second communication for performing a data communication individually with a specific accessory apparatus designated as a communication counterpart by the first communication, outputs to the signal transmission channel a signal for instructing switching from the first communication to the second communication, performs the first communication at a first communication rate commonly usable for the camera and the plurality of accessory apparatuses , performs the second communication at a second communication rate commonly usable for the camera and the specific accessory apparatus and equal to or higher than the first communication rate, performs the first communication at an initial communication rate determined between the camera and the plurality of accessory apparatuses and acquires usable communication rate information indicating a usable communication rate from each of the plurality of accessory apparatuses , and sets the first communication rate and the second communication rate corresponding to each of the plurality of accessory apparatuses , using the usable communication rate information.
A display panel comprising: a pattern having a plurality of pixels uniformly provided in a horizontal and vertical direction, each of the pixels having a same shape, wherein each individual pixel includes a row of subpixels in an order of one red, R, subpixel, followed by one green, G, subpixel, followed by one blue, B, subpixel, the G subpixel being located between the R subpixel and the B subpixel in the row of subpixels within each individual pixel, and sizes of the R subpixel and the B subpixel being less than the size of the G subpixel; and a plurality of placement spaces provided between the plurality of pixels , wherein the plurality of pixels are uniformly provided in the display panel based on a pattern corresponding to the plurality of placement spaces , and wherein the pattern comprises a plurality of units of four pixels in a 2 × 2 pixel structure forming a gap within a center of the 2 × 2 pixel structure by using the reduced size of the R subpixels and the B subpixels of said four pixels for locating the plurality of placement spaces, thereby achieving that a frequency corresponding to a repetition interval of the pattern is outside of a cognitive frequency band that is visible to a user. a pattern having a plurality of pixels uniformly provided in a horizontal and vertical direction, each of the pixels having a same shape, wherein each individual pixel includes a row of subpixels in an order of one red, R, subpixel, followed by one green, G, subpixel, followed by one blue, B, subpixel, the G subpixel being located between the R subpixel and the B subpixel in the row of subpixels within each individual pixel, and sizes of the R subpixel and the B subpixel being less than the size of the G subpixel; and a plurality of placement spaces provided between the plurality of pixels , wherein the plurality of pixels are uniformly provided in the display panel based on a pattern corresponding to the plurality of placement spaces , and wherein the pattern comprises a plurality of units of four pixels in a 2 × 2 pixel structure forming a gap within a center of the 2 × 2 pixel structure by using the reduced size of the R subpixels and the B subpixels of said four pixels for locating the plurality of placement spaces, thereby achieving that a frequency corresponding to a repetition interval of the pattern is outside of a cognitive frequency band that is visible to a user.
An optimized method for laser-cutting a workpiece of a material by a cutting system including: - a laser source for producing a laser beam with a power, and - a cutting head including an end nozzle for the passage of the cutting laser beam , the method being characterized in that it includes a step (S5) of determining a cutting power Pd such that: pd = Max Popt λe where Max is the mathematical operator of the maximum, Popt is an optimal power of the laser beam of the cutting system , determined depending on the workpiece to be cut, and/or the cutting parameters, and/or the type of system , to minimize the linear mass defect (Mp) of the workpiece during a cutting of the workpiece where the linear mass defect (Mp) is defined as the mass defect of the workpiece, after cutting, per unit of cut length, expressed in g/m; and where Mp is obtained by weighing difference before (Mi) and after (Mf) the cutting of length L, such that Mp=(Mf-Mi)/L; λ is a leading coefficient representing the number of kW required for cutting the workpiece per mm of workpiece thickness, and e is the thickness of the workpiece, in mm. - a laser source for producing a laser beam with a power, and - a cutting head including an end nozzle for the passage of the cutting laser beam , Max is the mathematical operator of the maximum, Popt is an optimal power of the laser beam of the cutting system , determined depending on the workpiece to be cut, and/or the cutting parameters, and/or the type of system , to minimize the linear mass defect (Mp) of the workpiece during a cutting of the workpiece where the linear mass defect (Mp) is defined as the mass defect of the workpiece, after cutting, per unit of cut length, expressed in g/m; and where Mp is obtained by weighing difference before (Mi) and after (Mf) the cutting of length L, such that Mp=(Mf-Mi)/L; λ is a leading coefficient representing the number of kW required for cutting the workpiece per mm of workpiece thickness, and e is the thickness of the workpiece, in mm.
A method, performed by a user equipment, UE, for determining a Listen Before Talk, LBT, type for a Physical Uplink Shared Channel, PUSCH, transmission, which is scheduled by an uplink, UL, grant Downlink Control Information, DCI, comprising: obtaining a first indication about the LBT type; obtaining a second indication about a starting location T cot_s_1 of a first Base Station Channel Occupancy Time, BS COT, and an ending location T_cot_e_1 of the first BS COT; characterized by obtaining a third indication about a starting location T_pusch_s of a scheduled PUSCH resource and an ending location T_pusch_e of the scheduled PUSCH resource; determining the LBT type for the PUSCH transmission, based on the first, second and third indications, comprising: when the scheduled PUSCH resource is fully inside the first BS COT: T cot_s_1 ≤ T_pusch_s and T_cot_e_1 ≥ T_pusch_e, the LBT type for the PUSCH transmission is the LBT type indicated by the first indication; when the scheduled PUSCH resource is fully outside the first BS COT: T_cot_e_1 ≤ T_pusch_s, the LBT type for the PUSCH transmission is a second LBT type; when the scheduled PUSCH resource is partially outside the first BS COT: T cot_s_1 ≤ T_pusch_s, and T_cot_e_1 < T_pusch_e, the LBT type for the PUSCH transmission is the second LBT type. obtaining a first indication about the LBT type; obtaining a second indication about a starting location T cot_s_1 of a first Base Station Channel Occupancy Time, BS COT, and an ending location T_cot_e_1 of the first BS COT; characterized by obtaining a third indication about a starting location T_pusch_s of a scheduled PUSCH resource and an ending location T_pusch_e of the scheduled PUSCH resource; determining the LBT type for the PUSCH transmission, based on the first, second and third indications, comprising: when the scheduled PUSCH resource is fully inside the first BS COT: T cot_s_1 ≤ T_pusch_s and T_cot_e_1 ≥ T_pusch_e, the LBT type for the PUSCH transmission is the LBT type indicated by the first indication; when the scheduled PUSCH resource is fully outside the first BS COT: T_cot_e_1 ≤ T_pusch_s, the LBT type for the PUSCH transmission is a second LBT type; when the scheduled PUSCH resource is partially outside the first BS COT: T cot_s_1 ≤ T_pusch_s, and T_cot_e_1 < T_pusch_e, the LBT type for the PUSCH transmission is the second LBT type. when the scheduled PUSCH resource is fully inside the first BS COT: T cot_s_1 ≤ T_pusch_s and T_cot_e_1 ≥ T_pusch_e, the LBT type for the PUSCH transmission is the LBT type indicated by the first indication; when the scheduled PUSCH resource is fully outside the first BS COT: T_cot_e_1 ≤ T_pusch_s, the LBT type for the PUSCH transmission is a second LBT type; when the scheduled PUSCH resource is partially outside the first BS COT: T cot_s_1 ≤ T_pusch_s, and T_cot_e_1 < T_pusch_e, the LBT type for the PUSCH transmission is the second LBT type.
A method comprising: determining a number of frequency blocks to be allocated to a mobile station , a frequency block including one resource block or a plurality of resource blocks that are consecutive on a frequency axis; determining an allocation resolution for the mobile station that is a unit of resource block allocation, depending on the number of frequency blocks allocated to the mobile station , with a higher allocation resolution determined for a mobile station having a larger number of allocated frequency blocks; allocating, to the mobile station , one or more resource blocks based on the determined number of frequency blocks and the determined allocation resolution; and transmitting, to the mobile station , downlink control information that includes information of the one or more allocated frequency blocks. determining a number of frequency blocks to be allocated to a mobile station , a frequency block including one resource block or a plurality of resource blocks that are consecutive on a frequency axis; determining an allocation resolution for the mobile station that is a unit of resource block allocation, depending on the number of frequency blocks allocated to the mobile station , with a higher allocation resolution determined for a mobile station having a larger number of allocated frequency blocks; allocating, to the mobile station , one or more resource blocks based on the determined number of frequency blocks and the determined allocation resolution; and transmitting, to the mobile station , downlink control information that includes information of the one or more allocated frequency blocks.
A method for transmitting a signal carrying data from a network equipment (eNB) to a user equipment (UE) in a multiple-input multiple-output (MIMO) communication system, said method comprising applying a double-layer coordinated beamforming of said data prior to their transmission to said user equipment; said double-layer coordinated beamforming (V) comprising: - receiving a first layer precoding matrix (F) obtained at least from long-term channel state information between said user equipment and said network equipment, and - determining a second layer precoding matrix (W) obtained from said first layer precoding matrix and from real-time channel state information (H i ) between said user equipment and said network equipment, - obtaining said double-layer coordinated beamforming (V) by combining said first layer precoding matrix (F) and said second layer precoding matrix (W), characterized in that said second layer precoding matrix (W) is optimized by using, in combination with the first layer precoding matrix, a predetermined signal-to-interference-plus-noise ratio (SINR) of said signal, and/or a predetermined power constraint value (Pant) of a single antenna of said user equipment (UE), as optimization parameters. - receiving a first layer precoding matrix (F) obtained at least from long-term channel state information between said user equipment and said network equipment, and - determining a second layer precoding matrix (W) obtained from said first layer precoding matrix and from real-time channel state information (H i ) between said user equipment and said network equipment, - obtaining said double-layer coordinated beamforming (V) by combining said first layer precoding matrix (F) and said second layer precoding matrix (W), characterized in that said second layer precoding matrix (W) is optimized by using, in combination with the first layer precoding matrix, a predetermined signal-to-interference-plus-noise ratio (SINR) of said signal, and/or a predetermined power constraint value (Pant) of a single antenna of said user equipment (UE), as optimization parameters.
A method for cross-channel scheduling of high efficiency, HE, multi-user, MU, frame transmission, the method comprising: obtaining channel information and client station information for data transmission; configuring an MU frame containing a data field of a first type and two data fields of a second type to carry scheduling information relating to which channel from one or more channels is to be used for the MU frame transmission, wherein a first data field of the two data fields of the second type covers a first set of channels from the one or more channels, and a second data field of the two data fields of the second type covers a second set of channels from the one or more channels; determining that a current scheduling setting of the two data fields of the second type leads to unbalanced payload between the one or more channels; adjusting the two data fields of the second type by remapping channels from the first data field to the second data field for a balanced channel mapping; adjusting the data field of the first type to reflect the balanced channel mapping by designating a plurality of bits in the data field of the first type to represent a changing pattern from the current scheduling setting; and transmitting , via the one or more channels, data based on the adjusted data field of the first type and the adjusted two data fields of the second type. obtaining channel information and client station information for data transmission; configuring an MU frame containing a data field of a first type and two data fields of a second type to carry scheduling information relating to which channel from one or more channels is to be used for the MU frame transmission, wherein a first data field of the two data fields of the second type covers a first set of channels from the one or more channels, and a second data field of the two data fields of the second type covers a second set of channels from the one or more channels; determining that a current scheduling setting of the two data fields of the second type leads to unbalanced payload between the one or more channels; adjusting the two data fields of the second type by remapping channels from the first data field to the second data field for a balanced channel mapping; adjusting the data field of the first type to reflect the balanced channel mapping by designating a plurality of bits in the data field of the first type to represent a changing pattern from the current scheduling setting; and transmitting , via the one or more channels, data based on the adjusted data field of the first type and the adjusted two data fields of the second type.
Method for producing a multilayer body, having the following steps: a) providing a carrier ply on which at least one LED is arranged; b) providing a decorative ply; c) overmoulding a plastic ply onto the carrier ply and/or the decorative ply in an injection moulding tool; and that a conductor track layer for contacting the at least one illuminant is applied to the carrier ply, wherein the conductor track layer is generated by vapour deposition, sputtering, galvanic deposition or lamination of a metal and/or by applying conductive pigments, nanoparticles, ITO, ATO, conductive organic polymers, carbon nanotubes, graphene or carbon black with a layer thickness from 10nm to 50μm, and wherein the conductor track layer comprises at least one coupling surface, wherein, seen perpendicularly to the carrier ply, a complementary coupling surface is applied to the side of the carrier ply facing away from the at least one illuminant, and/or wherein the conductor track layer comprises at least one coil and/or antenna structure, wherein, seen perpendicularly to the carrier ply, a complementary coil and/or antenna structure is applied to the side of the carrier ply facing away from the at least one illuminant, and/or wherein at least one electric contact element is applied to the carrier ply, said contact element electrically contacting the conductor track layer and being at most partially enclosed by the plastic mass when injection moulding the plastic ply, and/or wherein at least one partial region of the conductor track layer is not enclosed by the plastic mass when injection moulding the plastic ply and/or a partial region of the carrier ply, on which at least one partial region of the conductor track layer is arranged, is detached from the plastic ply after injection moulding the plastic ply, and at least one optical auxiliary layer is applied to the decorative ply and/or the carrier ply and/or the overmoulded plastic ply, and recesses are provided in the decorative ply, which also penetrate the optical auxiliary layer. a) providing a carrier ply on which at least one LED is arranged; b) providing a decorative ply; c) overmoulding a plastic ply onto the carrier ply and/or the decorative ply in an injection moulding tool;
A gas turbine engine component comprising: an airfoil including a trailing edge feed cavity ; and a baffle located in the trailing edge feed cavity including a plurality of pressure side cooling openings in fluid communication with a corresponding one of a plurality of pressure side cooling passages and a plurality of suction side cooling openings in fluid communication with a corresponding one of a plurality of suction side cooling passages , wherein said one of a plurality of pressure side cooling passages is defined by a pressure side of the baffle , a pressure sidewall of the trailing edge cavity and ribs extending from the pressure sidewall , wherein the plurality of suction side cooling passages are at least partially defined by the baffle , a suction sidewall of the airfoil , and at least one rib extending from the suction sidewall of the airfoil , characterised in that the at least one rib extending from the suction sidewall of the airfoil extends in a radial direction perpendicular to an engine central longitudinal axis (A). an airfoil including a trailing edge feed cavity ; and a baffle located in the trailing edge feed cavity including a plurality of pressure side cooling openings in fluid communication with a corresponding one of a plurality of pressure side cooling passages and a plurality of suction side cooling openings in fluid communication with a corresponding one of a plurality of suction side cooling passages , wherein said one of a plurality of pressure side cooling passages is defined by a pressure side of the baffle , a pressure sidewall of the trailing edge cavity and ribs extending from the pressure sidewall , wherein the plurality of suction side cooling passages are at least partially defined by the baffle , a suction sidewall of the airfoil , and at least one rib extending from the suction sidewall of the airfoil , characterised in that the at least one rib extending from the suction sidewall of the airfoil extends in a radial direction perpendicular to an engine central longitudinal axis (A).
An oil-in-water silicone emulsion composition, comprising: (A) 100 parts by mass of a polyorganosiloxane having a viscosity at 25°C of 100,000 to 20,000,000 mPa-s; (B) 45 to 120 parts by mass of colloidal silica (based on solid content); (C1) 1 to 100 parts by mass of an ionic emulsifier; (C2) 0.1 to 50 parts by mass of a polyoxyethylene-polyoxypropylene copolymerized nonionic emulsifier; (D) 0 to 500 parts by mass of water (excluding water content in the colloidal silica); and wherein component (A) is (a) a polyorganosiloxane having at least two hydroxyl groups or hydrolyzable groups bonded to a silicon atom in one molecule serving as a precursor of component (A), or (b) a polyorganosiloxane obtained by emulsion polymerizing an organic silicon compound containing an aminoxy group having an average of two aminoxy groups bonded to a silicon atom in one molecule, in the presence of the aforementioned component (C1) and component (C2). (A) 100 parts by mass of a polyorganosiloxane having a viscosity at 25°C of 100,000 to 20,000,000 mPa-s; (B) 45 to 120 parts by mass of colloidal silica (based on solid content); (C1) 1 to 100 parts by mass of an ionic emulsifier; (C2) 0.1 to 50 parts by mass of a polyoxyethylene-polyoxypropylene copolymerized nonionic emulsifier; (D) 0 to 500 parts by mass of water (excluding water content in the colloidal silica); and wherein component (A) is (a) a polyorganosiloxane having at least two hydroxyl groups or hydrolyzable groups bonded to a silicon atom in one molecule serving as a precursor of component (A), or (b) a polyorganosiloxane obtained by emulsion polymerizing an organic silicon compound containing an aminoxy group having an average of two aminoxy groups bonded to a silicon atom in one molecule, in the presence of the aforementioned component (C1) and component (C2).
A method for restoring at least one portion of a paint body of a valuable historic vehicle comprising the following successive steps: a) paint stripping said paint body portion; b) performing a corundum blasting operation on said body portion, so as to make it rougher and prepared for the subsequent deposition; and c) depositing, after step b), a metal layer by hurling metal particles against said body portion so that they remain embedded therein. a) paint stripping said paint body portion; b) performing a corundum blasting operation on said body portion, so as to make it rougher and prepared for the subsequent deposition; and c) depositing, after step b), a metal layer by hurling metal particles against said body portion so that they remain embedded therein.