mhurhangee/ep-ind-claims huggingface dataset:
A steel sheet heating method that heats a steel sheet to be pressed before hot press molding, the steel sheet heating method comprising: bringing the steel sheet into a heating furnace including a heater on an inside surface of the heating furnace in a state where the steel sheet is fixedly supported in a vertical direction at two places of both ends of the steel sheet by a support member, while an unnecessary portion of the steel sheet that becomes unnecessary after molding is fixedly supported by the support member; and performing heating at a prescribed temperature in the heating furnace, then taking the steel sheet out of the heating furnace, and after that removing the unnecessary portion, wherein tension is applied to the steel sheet fixedly supported. bringing the steel sheet into a heating furnace including a heater on an inside surface of the heating furnace in a state where the steel sheet is fixedly supported in a vertical direction at two places of both ends of the steel sheet by a support member, while an unnecessary portion of the steel sheet that becomes unnecessary after molding is fixedly supported by the support member; and performing heating at a prescribed temperature in the heating furnace, then taking the steel sheet out of the heating furnace, and after that removing the unnecessary portion, wherein tension is applied to the steel sheet fixedly supported.
A toner comprising: a toner particle that contains a binder resin; and an external additive, wherein the external additive comprises an organosilicon polymer fine particle; the binder resin comprises an amorphous resin and a crystalline polyester resin; the content of the crystalline polyester resin in the binder resin is from 5 mass% to 30 mass%; and the crystalline polyester resin contains from 5 to 25 mass% of a component having a molecular weight, measured as indicated in the description, of not more than 2,500; the crystalline polyester resin comprises a condensate of at least one monomer selected from the group consisting of α,ω-linear chain aliphatic diols having from 2 to 12 carbons, with at least one monomer selected from the group consisting of α,ω-linear chain aliphatic dicarboxylic acids having from 2 to 12 carbons; and the organosilicon polymer fine particle has a structure of alternately binding silicon atoms and oxygen atoms; a portion of the organosilicon polymer has a T3 unit structure represented by R a SiO 3/2; R a represents an alkyl group having 1 to 6 carbons or phenyl group; and in 29 Si-NMR measurement of the organosilicon polymer fine particle, the ratio of the area of the peak derived from silicon having the T3 unit structure relative to the total area of peaks derived from all silicon elements contained in the organosilicon polymer fine particle, determined as indicated in the description, is from 0.90 to 1.00. a toner particle that contains a binder resin; and an external additive, wherein the external additive comprises an organosilicon polymer fine particle; the binder resin comprises an amorphous resin and a crystalline polyester resin; the content of the crystalline polyester resin in the binder resin is from 5 mass% to 30 mass%; and the crystalline polyester resin contains from 5 to 25 mass% of a component having a molecular weight, measured as indicated in the description, of not more than 2,500; the crystalline polyester resin comprises a condensate of at least one monomer selected from the group consisting of α,ω-linear chain aliphatic diols having from 2 to 12 carbons, with at least one monomer selected from the group consisting of α,ω-linear chain aliphatic dicarboxylic acids having from 2 to 12 carbons; and the organosilicon polymer fine particle has a structure of alternately binding silicon atoms and oxygen atoms; a portion of the organosilicon polymer has a T3 unit structure represented by R a SiO 3/2; R a represents an alkyl group having 1 to 6 carbons or phenyl group; and in 29 Si-NMR measurement of the organosilicon polymer fine particle, the ratio of the area of the peak derived from silicon having the T3 unit structure relative to the total area of peaks derived from all silicon elements contained in the organosilicon polymer fine particle, determined as indicated in the description, is from 0.90 to 1.00.
A staple cartridge assembly, comprising: a staple cartridge body, comprising: a deck; and staple cavities defined in said deck; staples (3230; 3630) removable stored in said staple cavities, wherein each said staple comprises: abase (3231; 3631); a leg (3232, 3233; 3632, 3633) extending from said base; and a platform (3238; 3638) extending laterally from said base; and an implantable layer positioned over said deck, wherein said platforms of said staples are configured to abut said layer when said staples are implanted into the tissue of a patient, wherein each said staple is stamped from a sheet of material, wherein said base defines a base plane, and wherein said platform is folded out of said base plane. a staple cartridge body, comprising: a deck; and staple cavities defined in said deck; a deck; and staple cavities defined in said deck; staples (3230; 3630) removable stored in said staple cavities, wherein each said staple comprises: abase (3231; 3631); a leg (3232, 3233; 3632, 3633) extending from said base; and a platform (3238; 3638) extending laterally from said base; and abase (3231; 3631); a leg (3232, 3233; 3632, 3633) extending from said base; and a platform (3238; 3638) extending laterally from said base; and an implantable layer positioned over said deck, wherein said platforms of said staples are configured to abut said layer when said staples are implanted into the tissue of a patient, wherein each said staple is stamped from a sheet of material, wherein said base defines a base plane, and wherein said platform is folded out of said base plane.
Method for matching the signal transmission between two electronic devices (1, 2) which are connected to one another by means of a physical interface and each have a transmitter (8a, 8b) and a receiver (7a, 7b), wherein signals are transmitted from the transmitter (8a, 8b) of one device (1, 2) along a transmission link (9a, 9b) to the receiver (7a, 7b) of the other device (1, 2) and wherein the transmission link (9a, 9b) has at least two signal lines (+, -) for differential transmission of the signals, comprising the following steps: A) Detection of signal values on the receiver (7a, 7b) of the first device (1, 2) separately for each of the two signal lines (+, -), B) Evaluation of an asymmetry between the signals from the two signal lines (+, -) on the receiver (7a, 7b) of the first device (1, 2) on the basis of the detected signal values, characterized by: C) Changing of one or more parameters of the transmitter (8a, 8b) in the second device (1, 2) separately and individually with regard to the individual signal lines (+, -), wherein at least steps A) and C) are performed iteratively until a predetermined termination criterion is satisfied. A) Detection of signal values on the receiver (7a, 7b) of the first device (1, 2) separately for each of the two signal lines (+, -), B) Evaluation of an asymmetry between the signals from the two signal lines (+, -) on the receiver (7a, 7b) of the first device (1, 2) on the basis of the detected signal values, characterized by: C) Changing of one or more parameters of the transmitter (8a, 8b) in the second device (1, 2) separately and individually with regard to the individual signal lines (+, -),
A turbine assembly comprising a basically hollow aerofoil, an impingement tube, and an impingement tube sleeve, the impingement tube sleeve comprising at least one impingement tube sleeve segment, the hollow aerofoil having at its interior surface longitudinal ribs extending from a leading edge towards a trailing edge of the hollow aerofoil, wherein the impingement tube is inserted into the hollow aerofoil such that the at least one impingement tube sleeve segment is arranged between the interior surface of the hollow aerofoil and an exterior surface of the impingement tube, characterised in that a first impingement tube sleeve segment of the at least one impingement tube sleeve segment provides a slotted flow blocker at a surface of the first impingement tube sleeve segment, the first impingement tube sleeve segment being inserted into the hollow aerofoil such that the ribs of the hollow aerofoil engage with corresponding slots of the slotted flow blocker and such that the surface of the first impingement tube sleeve segment rests on the ribs. a basically hollow aerofoil, an impingement tube, and an impingement tube sleeve, the impingement tube sleeve comprising at least one impingement tube sleeve segment, the hollow aerofoil having at its interior surface longitudinal ribs extending from a leading edge towards a trailing edge of the hollow aerofoil, wherein the impingement tube is inserted into the hollow aerofoil such that the at least one impingement tube sleeve segment is arranged between the interior surface of the hollow aerofoil and an exterior surface of the impingement tube, characterised in that a first impingement tube sleeve segment of the at least one impingement tube sleeve segment provides a slotted flow blocker at a surface of the first impingement tube sleeve segment, the first impingement tube sleeve segment being inserted into the hollow aerofoil such that the ribs of the hollow aerofoil engage with corresponding slots of the slotted flow blocker and such that the surface of the first impingement tube sleeve segment rests on the ribs.
A volume hologram transfer foil, comprising: a substrate, a volume hologram layer carrying a recorded volume hologram that is formed on the substrate, a heat seal layer containing a thermoplastic resin that is formed on the volume hologram layer, an ultraviolet ray-absorbing layer absorbing ultraviolet ray that is formed between the substrate and the volume hologram layer or between the volume hologram layer and the heat seal layer, and a fluorescent-image forming layer carrying an image formed with a fluorescent material emitting fluorescence by ultraviolet irradiation that is formed in a pattern on the heat seal layer and is an outermost layer opposite to the substrate, wherein a wavelength of the ultraviolet ray absorbed by the ultraviolet ray-absorbing layer is different from a wavelength of the ultraviolet ray absorbed by the fluorescent material. a substrate, a volume hologram layer carrying a recorded volume hologram that is formed on the substrate, a heat seal layer containing a thermoplastic resin that is formed on the volume hologram layer, an ultraviolet ray-absorbing layer absorbing ultraviolet ray that is formed between the substrate and the volume hologram layer or between the volume hologram layer and the heat seal layer, and a fluorescent-image forming layer carrying an image formed with a fluorescent material emitting fluorescence by ultraviolet irradiation that is formed in a pattern on the heat seal layer and is an outermost layer opposite to the substrate, wherein a wavelength of the ultraviolet ray absorbed by the ultraviolet ray-absorbing layer is different from a wavelength of the ultraviolet ray absorbed by the fluorescent material.
A lighting control console for controlling a lighting system, digital adjusting commands being generated in the lighting control console, which commands can be transmitted to the lighting devices of the lighting system via data links, and said lighting control console comprising at least one digital processor and at least one digital memory for generating, managing and storing the adjusting commands, and said digital processor and said digital memory being arranged in a console housing, and a control panel having at least one control element, in particular a key button and/or at least one slide control and/or at least one rotary control, being provided at the upper side of the console housing, which control panel allows users to enter control commands, and said lighting control console comprising at least one screen, and said screen being arranged in a screen housing, characterised in that the screen housing is mounted, with the aid of a double pivot bearing, at the console housing so as to be adjustable, wherein said double pivot bearing is linked to the console housing, being rotationally adjustable about a first pivot axis, and wherein said double pivot bearing is linked to the screen housing, being rotationally adjustable about a second pivot axis, and wherein at least one torque brake, which counteracts the adjusting movements of the screen housing in relation to the console housing in a decelerating fashion, is provided at the double pivot bearing, and wherein the torque brake is embodied in the manner of a disc brake (33, 34), and wherein the brake discs (35, 36) of the disc brake (33, 34) are driven via a transmission gearing (38, 39) by adjusting the screen housing and/or by adjusting the pivot arms (10, 11) in relation to the console housing.
A method performed by a first terminal device transmitting data, characterized by: determining, by the first terminal device, that there are first data to be transmitted; transmitting, by the first terminal device, identification information of the first terminal device and a resource change request on a second resource, wherein the identification information of the first terminal device indicates that the first terminal device has data to be transmitted on a first resource which is a grant-free resource dedicated to transmitting data of a plurality of terminal devices including the first terminal device, the resource change request is used for requesting the network device to adjust the second resource in a next scheduling unit, the second resource is used for transmitting identification information of each of at least one terminal device including the first terminal device, and the second resource does not overlap with the first resource; transmitting, by the first terminal device, the first data on the first resource, wherein, when the second resource is a contention resource, the resource change request is used for requesting the network device to configure the second resource as a resource dedicated to the first terminal device in the next scheduling unit. determining, by the first terminal device, that there are first data to be transmitted; transmitting, by the first terminal device, identification information of the first terminal device and a resource change request on a second resource, wherein the identification information of the first terminal device indicates that the first terminal device has data to be transmitted on a first resource which is a grant-free resource dedicated to transmitting data of a plurality of terminal devices including the first terminal device, the resource change request is used for requesting the network device to adjust the second resource in a next scheduling unit, the second resource is used for transmitting identification information of each of at least one terminal device including the first terminal device, and the second resource does not overlap with the first resource; transmitting, by the first terminal device, the first data on the first resource, wherein, when the second resource is a contention resource, the resource change request is used for requesting the network device to configure the second resource as a resource dedicated to the first terminal device in the next scheduling unit.
A method for mitigating interference in wireless communications, comprising: detecting interference from one or more devices communicating with one or more access points; the method further comprises: increasing a downlink transmit power according to a boosting pattern over time to cause interference at the one or more devices from which the interference was detected and to cause the one or more devices from which the interference was detected to switch frequency. detecting interference from one or more devices communicating with one or more access points; the method further comprises: increasing a downlink transmit power according to a boosting pattern over time to cause interference at the one or more devices from which the interference was detected and to cause the one or more devices from which the interference was detected to switch frequency.
A method for authenticating a user comprising the steps in the following order: receiving a claimant target, wherein either the claimant target comprises a user ID or the method comprises determining the user ID from the claimant target; retrieving a record associated with the user ID; sending a prompt over a communication channel, wherein the prompt comprises a hybrid prompt including a random word or phrase and one of a plurality of original prompts, each of the plurality of original prompts having a biometric template of the user associated therewith, wherein the record associates the original prompts and the biometric templates with the user ID; receiving a biometric response to the prompt over the communication channel; and determining a match between the biometric response and a biometric template associated with the prompt, including applying voice recognition to determine whether the random word or phrase added to the original prompt was spoken in the biometric response; wherein the original prompt is a prompt that the user selected during enrollment. receiving a claimant target, wherein either the claimant target comprises a user ID or the method comprises determining the user ID from the claimant target; retrieving a record associated with the user ID; sending a prompt over a communication channel, wherein the prompt comprises a hybrid prompt including a random word or phrase and one of a plurality of original prompts, each of the plurality of original prompts having a biometric template of the user associated therewith, wherein the record associates the original prompts and the biometric templates with the user ID; receiving a biometric response to the prompt over the communication channel; and determining a match between the biometric response and a biometric template associated with the prompt, including applying voice recognition to determine whether the random word or phrase added to the original prompt was spoken in the biometric response; wherein the original prompt is a prompt that the user selected during enrollment.
A method for realizing space division multiplexing, characterized in that the method comprises steps as follows: A. acquiring space information of users, and calculating space division isolation between the users based on the acquired space information wherein said calculating of space division isolation is based on a capability of interference suppression, and wherein said space division isolation refers to a degree of spatial differentiation of two users, and the space information comprises a space covariance matrix comprising an uplink space covariance matrix R ̅ xx k and a downlink space covariance matrix R _ xx k; B. generating a set of user groups for the space division multiplexing based on the space division isolation between users calculated in step A; C. selecting a user group from the set of user groups for the space division multiplexing generated in step B and allocating a same physical resource to two users among the selected user group when conducting the space division multiplexing. A. acquiring space information of users, and calculating space division isolation between the users based on the acquired space information wherein said calculating of space division isolation is based on a capability of interference suppression, and wherein said space division isolation refers to a degree of spatial differentiation of two users, and the space information comprises a space covariance matrix comprising an uplink space covariance matrix R ̅ xx k and a downlink space covariance matrix R _ xx k; B. generating a set of user groups for the space division multiplexing based on the space division isolation between users calculated in step A; C. selecting a user group from the set of user groups for the space division multiplexing generated in step B and allocating a same physical resource to two users among the selected user group when conducting the space division multiplexing.
A computing device for processing wind noise signals and acoustic signals, the computing device comprising: a communication interface configured to receive pressure pulse data from a plurality of microphones; a memory device configured to store the received pressure pulse data; and a processor, characterized in that the processor is configured to: fit the pressure pulse data from each microphone to a parametric model that includes a term representing pressure pulses due to wind noise signals and a term representing pressure pulses due to acoustic signals by fitting a set of pressure pulse data from each microphone of the plurality of microphones to a respective instance of the parametric model; and estimate, based on the fitting of the pressure pulse data, a pressure and a velocity of at least one wind noise signal in the pressure pulse data and a pressure and a velocity of at least one acoustic signal in the pressure pulse data by performing several statistical methods and selecting a statistical method that results in an optimal model comparison measure. a communication interface configured to receive pressure pulse data from a plurality of microphones; a memory device configured to store the received pressure pulse data; and a processor, characterized in that the processor is configured to: fit the pressure pulse data from each microphone to a parametric model that includes a term representing pressure pulses due to wind noise signals and a term representing pressure pulses due to acoustic signals by fitting a set of pressure pulse data from each microphone of the plurality of microphones to a respective instance of the parametric model; and estimate, based on the fitting of the pressure pulse data, a pressure and a velocity of at least one wind noise signal in the pressure pulse data and a pressure and a velocity of at least one acoustic signal in the pressure pulse data by performing several statistical methods and selecting a statistical method that results in an optimal model comparison measure. fit the pressure pulse data from each microphone to a parametric model that includes a term representing pressure pulses due to wind noise signals and a term representing pressure pulses due to acoustic signals by fitting a set of pressure pulse data from each microphone of the plurality of microphones to a respective instance of the parametric model; and estimate, based on the fitting of the pressure pulse data, a pressure and a velocity of at least one wind noise signal in the pressure pulse data and a pressure and a velocity of at least one acoustic signal in the pressure pulse data by performing several statistical methods and selecting a statistical method that results in an optimal model comparison measure.