mhurhangee/patent-ind-claim-en huggingface dataset:
A cooling apparatus configured for cooling a peripheral circuit board , comprising: a cooling frame ; at least one cooling device mounted onto the cooling frame ; a plurality of cooling hoses connected to the at least one cooling device ; a hinge attached to one side of the cooling frame ; a cushion frame rotatably attached on one side to the hinge ; a cushion arrangement attached to the cushion frame ; and, a locking arrangement configured to lock the cooling frame to the cushion frame in a closed position thereby housing the peripheral circuit board in between the cooling frame and the cushion frame . a cooling frame ; at least one cooling device mounted onto the cooling frame ; a plurality of cooling hoses connected to the at least one cooling device ; a hinge attached to one side of the cooling frame ; a cushion frame rotatably attached on one side to the hinge ; a cushion arrangement attached to the cushion frame ; and, a locking arrangement configured to lock the cooling frame to the cushion frame in a closed position thereby housing the peripheral circuit board in between the cooling frame and the cushion frame .
A rigid-flex assembly for high-speed data transfer, the assembly comprising: a flexible wiring section (18; 44; 58) having a first end (20; 60) and a second end , the first end (20; 60) electrically couplable to an electrical component (12; 42; 52) for transferring data gathered by a sensor (14; 38), the flexible wiring section (18; 44; 58) comprising a first flexible strip and a second flexible strip arranged in a stack; a controlled separation gap defined by a distance between the first flexible strip and the second flexible strip to provide a low thermal conductive path while maintaining signal integrity, wherein the first flexible strip has a first set of electrical wires and the second flexible strip has a second set of electrical wires, wherein the sets of electrical wires oppose each other to form the controlled separation gap ; a first rigid substrate electrically coupled to the first flexible strip at the second end (24; 64) of the flexible wiring section (18; 44; 58) and a second rigid substrate electrically coupled to the second flexible strip at the second end (24; 64) of the flexible wiring section (18; 44; 58) such that the first and second rigid substrates are spatially separated from each other and form a stack; and a connector (22; 48) electrically coupled to the rigid substrates and attachable to a computer system for processing the data. a flexible wiring section (18; 44; 58) having a first end (20; 60) and a second end , the first end (20; 60) electrically couplable to an electrical component (12; 42; 52) for transferring data gathered by a sensor (14; 38), the flexible wiring section (18; 44; 58) comprising a first flexible strip and a second flexible strip arranged in a stack; a controlled separation gap defined by a distance between the first flexible strip and the second flexible strip to provide a low thermal conductive path while maintaining signal integrity, wherein the first flexible strip has a first set of electrical wires and the second flexible strip has a second set of electrical wires, wherein the sets of electrical wires oppose each other to form the controlled separation gap ; a first rigid substrate electrically coupled to the first flexible strip at the second end (24; 64) of the flexible wiring section (18; 44; 58) and a second rigid substrate electrically coupled to the second flexible strip at the second end (24; 64) of the flexible wiring section (18; 44; 58) such that the first and second rigid substrates are spatially separated from each other and form a stack; and a connector (22; 48) electrically coupled to the rigid substrates and attachable to a computer system for processing the data.
A piezoelectric composite comprising: a piezoelectric filler which is a particulate having an average particle size of 1 to 3 micrometers ; and a polymer resin, wherein the composite exhibits a piezoelectric coefficient d 33 of greater than 30 pC/N when measured according to the Berlincourt Method using a d 33 piezometer, the composite is oriented at a poling voltage lower than 60 kV/mm, the composite exhibits an elastic modulus of less than 30 GPa when tested according to ASTM D3039, and the composite exhibits a density of less than 5 g/cm 3 according to the Archimedes method. a piezoelectric filler which is a particulate having an average particle size of 1 to 3 micrometers ; and a polymer resin, wherein the composite exhibits a piezoelectric coefficient d 33 of greater than 30 pC/N when measured according to the Berlincourt Method using a d 33 piezometer, the composite is oriented at a poling voltage lower than 60 kV/mm, the composite exhibits an elastic modulus of less than 30 GPa when tested according to ASTM D3039, and the composite exhibits a density of less than 5 g/cm 3 according to the Archimedes method. the composite exhibits a piezoelectric coefficient d 33 of greater than 30 pC/N when measured according to the Berlincourt Method using a d 33 piezometer, the composite is oriented at a poling voltage lower than 60 kV/mm, the composite exhibits an elastic modulus of less than 30 GPa when tested according to ASTM D3039, and the composite exhibits a density of less than 5 g/cm 3 according to the Archimedes method.
System for post-operative compression treatment of a body extremity consisting of a compression textile and an external fixer having a plurality of bone pins which are attachable from the outside in a bone of the body extremity, wherein the compression textile comprises: - a compression section extending along a longitudinal direction (L) made of a compression knitted fabric, having a first and a second lateral edge section , - a first group of attachment straps having several attachment straps made of an elastic textile material which are arranged on the first lateral edge section of the compression section and have respectively first attachment means , via which the respective attachment strap is attachable to the opposite edge section of the compression section and/or to opposite attachment straps of a second group of attachment straps if the compression textile is wrapped around the body extremity. - wherein adjoining attachment straps of the first group of attachment straps are separated from one another respectively by indentations . - a compression section extending along a longitudinal direction (L) made of a compression knitted fabric, having a first and a second lateral edge section , - a first group of attachment straps having several attachment straps made of an elastic textile material which are arranged on the first lateral edge section of the compression section and have respectively first attachment means , via which the respective attachment strap is attachable to the opposite edge section of the compression section and/or to opposite attachment straps of a second group of attachment straps if the compression textile is wrapped around the body extremity. - wherein adjoining attachment straps of the first group of attachment straps are separated from one another respectively by indentations .
An apparatus comprising: a system-on-chip, SoC ; one or more communication pins (CC1, CC2) configured to be coupled to a charger external to the apparatus; a first power supply rail configured to be coupled to the charger when the charger is connected to the apparatus; a charger circuitry ; a second power supply rail coupled to the charger circuitry; a power delivery controller configured to detect connection of the charger to the apparatus via a pull-up or a pull-down termination impedance on the one or more communication pins, wherein the power delivery controller is configured to close a switch (SW) to couple the first power supply rail with the second power supply rail in response to the detection of connection of the charger; and an embedded controller coupled to the power delivery controller; wherein the power delivery controller is configured to issue an interrupt to the embedded controller in response to closing the switch, and wherein the interrupt, embedded controller and power delivery controller are configured to trigger the SoC to lower its power state during power contract establishment between the apparatus and the charger. a system-on-chip, SoC ; one or more communication pins (CC1, CC2) configured to be coupled to a charger external to the apparatus; a first power supply rail configured to be coupled to the charger when the charger is connected to the apparatus; a charger circuitry ; a second power supply rail coupled to the charger circuitry; a power delivery controller configured to detect connection of the charger to the apparatus via a pull-up or a pull-down termination impedance on the one or more communication pins, wherein the power delivery controller is configured to close a switch (SW) to couple the first power supply rail with the second power supply rail in response to the detection of connection of the charger; and an embedded controller coupled to the power delivery controller; wherein the power delivery controller is configured to issue an interrupt to the embedded controller in response to closing the switch, and wherein the interrupt, embedded controller and power delivery controller are configured to trigger the SoC to lower its power state during power contract establishment between the apparatus and the charger.
A method for measuring a roll angle of an element , said method comprising: providing a frequency tunable laser beam ; directing the laser beam through a spiral phase plate resonator, SPPR, device , said SPPR device including opposing reflective surfaces that reflect the laser beam back and forth in the device, wherein one of the reflective surfaces includes a spiral step index that causes multiple reflected amplitudes having different phases to be combined and generate an optical vortex intensity pattern defined by the phases of the multiple amplitudes, where the intensity pattern includes a singularity centroid and radial light peaks; retro-reflecting laser beam off of the element after it has propagated through the SPPR device so that the laser beam is directed onto a first camera that generates images of the optical vortex intensity pattern; determining a location of the centroid in the images generated by the first camera ; determining integrated counts along a radial direction from the centroid in the images generated by the first camera as a function of beam roll angle determining a location of the radial light peaks in the images generated by the first camera using the integrated counts changing the frequency of the laser beam to rotate the radial light peaks in the optical vortex intensity pattern in the images generated by the first camera ; and estimating the roll angle of the element from the change in frequency that rotated the optical vortex intensity pattern. providing a frequency tunable laser beam ; directing the laser beam through a spiral phase plate resonator, SPPR, device , said SPPR device including opposing reflective surfaces that reflect the laser beam back and forth in the device, wherein one of the reflective surfaces includes a spiral step index that causes multiple reflected amplitudes having different phases to be combined and generate an optical vortex intensity pattern defined by the phases of the multiple amplitudes, where the intensity pattern includes a singularity centroid and radial light peaks; retro-reflecting laser beam off of the element after it has propagated through the SPPR device so that the laser beam is directed onto a first camera that generates images of the optical vortex intensity pattern; determining a location of the centroid in the images generated by the first camera ; determining integrated counts along a radial direction from the centroid in the images generated by the first camera as a function of beam roll angle determining a location of the radial light peaks in the images generated by the first camera using the integrated counts changing the frequency of the laser beam to rotate the radial light peaks in the optical vortex intensity pattern in the images generated by the first camera ; and estimating the roll angle of the element from the change in frequency that rotated the optical vortex intensity pattern.
An image forming apparatus, comprising: a sheet conveyance unit configured to transport a print medium along a conveyance path; an antenna configured to emit radio waves towards a predetermined portion of the conveyance path; and characterized by : a controller configured to control the antenna to emit the radio waves towards the predetermined portion with a polarization direction set according to a type of the print medium being transported by the sheet conveyance unit. a sheet conveyance unit configured to transport a print medium along a conveyance path; an antenna configured to emit radio waves towards a predetermined portion of the conveyance path; and characterized by : a controller configured to control the antenna to emit the radio waves towards the predetermined portion with a polarization direction set according to a type of the print medium being transported by the sheet conveyance unit.
A method for predicting a subject's potential or predisposition to be protected from or vulnerable to an adverse event following an immunotherapy comprising: a) performing sequencing of target immune receptor nucleic acid template molecules derived from a biological sample from a subject candidate for an immunotherapy, wherein the target immune receptor nucleic acid template molecules comprise FR1, CDR1, FR2, CDR2, FR3, and CDR3 coding regions of the target immune receptor and wherein the sequencing is by next generation sequencing; b) determining the sequence of the target immune receptor repertoire of the sample based on the sequencing; c) identifying the immune receptor haplotype of the subject from the determined sequences; and d) predicting a subject's potential or predisposition to be protected from or vulnerable to an adverse event following an immunotherapy by comparing the identified immune receptor haplotype of the subject to a reference set of immune receptor haplotypes of individuals with annotated adverse events following immunotherapy treatments. a) performing sequencing of target immune receptor nucleic acid template molecules derived from a biological sample from a subject candidate for an immunotherapy, wherein the target immune receptor nucleic acid template molecules comprise FR1, CDR1, FR2, CDR2, FR3, and CDR3 coding regions of the target immune receptor and wherein the sequencing is by next generation sequencing; b) determining the sequence of the target immune receptor repertoire of the sample based on the sequencing; c) identifying the immune receptor haplotype of the subject from the determined sequences; and d) predicting a subject's potential or predisposition to be protected from or vulnerable to an adverse event following an immunotherapy by comparing the identified immune receptor haplotype of the subject to a reference set of immune receptor haplotypes of individuals with annotated adverse events following immunotherapy treatments.
A filter plate frame assembly for a horizontal filter press, such as a tower press, comprising: a rigid filter plate frame having a first frame flank and an opposing second frame flank parallel to the first frame flank , and a first frame end and an opposing second frame end parallel with the first frame end , wherein the frame flanks and frame ends of the filter frame define a closed periphery, and a subframe nested within and laterally delimited by the filter plate frame, characterized in that , the subframe has a central opening having a closed area defining a lateral boundary of an associated filter chamber, when in use wherein either or both of the first frame end and the second frame end is an openable frame end, and wherein the subframe is receivable into, and respectively, removable out from the filter plate frame via the openable frame end , and wherein the subframe is secured within the filter plate frame when the openable frame end is closed. a rigid filter plate frame having a first frame flank and an opposing second frame flank parallel to the first frame flank , and a first frame end and an opposing second frame end parallel with the first frame end , wherein the frame flanks and frame ends of the filter frame define a closed periphery, and a subframe nested within and laterally delimited by the filter plate frame, characterized in that , the subframe has a central opening having a closed area defining a lateral boundary of an associated filter chamber, when in use wherein either or both of the first frame end and the second frame end is an openable frame end, and wherein the subframe is receivable into, and respectively, removable out from the filter plate frame via the openable frame end , and wherein the subframe is secured within the filter plate frame when the openable frame end is closed.
Method for detecting the presence of a device for cloning a smart card in an automatic payment and/or withdrawal terminal , the method comprising the steps of: a) detecting that a smart card has not been at least partially inserted inside a reader of the automatic payment or withdrawal terminal ; b) simulating the presence of a smart card inside the reader; c) measuring a current value generated by said simulation; d) comparing the measured current value with respect to a defined threshold value; e) detecting the presence of the cloning device if, according to said comparison, it results that the measured current value is greater than or equal to the threshold value; f) in case of detecting the presence of the cloning device, blocking the operation of the automatic payment and/or withdrawal terminal; characterized in that step b) comprises: - transmitting from a control unit of the automatic payment and/or withdrawal terminal to the reader a power-up message or an electric signal indicative of a power-up request of a smart card; - receiving at the reader said power-up request and generating therefrom an electric reset signal indicative of a power-up request of a smart card; - receiving the power-up electric signal at the cloning device and supplying the cloning device, so as to generate said current value, wherein said measured current value is the value of current generated by the reader and correlated with said power-up request. a) detecting that a smart card has not been at least partially inserted inside a reader of the automatic payment or withdrawal terminal ; b) simulating the presence of a smart card inside the reader; c) measuring a current value generated by said simulation; d) comparing the measured current value with respect to a defined threshold value; e) detecting the presence of the cloning device if, according to said comparison, it results that the measured current value is greater than or equal to the threshold value; f) in case of detecting the presence of the cloning device, blocking the operation of the automatic payment and/or withdrawal terminal; - transmitting from a control unit of the automatic payment and/or withdrawal terminal to the reader a power-up message or an electric signal indicative of a power-up request of a smart card; - receiving at the reader said power-up request and generating therefrom an electric reset signal indicative of a power-up request of a smart card; - receiving the power-up electric signal at the cloning device and supplying the cloning device, so as to generate said current value,
A method for wireless communications by a user equipment, comprising: transmitting a capability message that indicates a capability of the user equipment to monitor a defined number of resources across a plurality of component carriers within a transmission time interval; receiving a monitoring configuration that indicates a plurality of resources for the user equipment to monitor in one or more component carriers within the transmission time interval based at least in part on the capability message; and monitoring , within the transmission time interval, the plurality of resources indicated in the monitoring configuration. transmitting a capability message that indicates a capability of the user equipment to monitor a defined number of resources across a plurality of component carriers within a transmission time interval; receiving a monitoring configuration that indicates a plurality of resources for the user equipment to monitor in one or more component carriers within the transmission time interval based at least in part on the capability message; and monitoring , within the transmission time interval, the plurality of resources indicated in the monitoring configuration.
A system, comprising: a computer memory; and a processor, configured to: while simulating an application of an electric current to simulated tissue, control an amplitude of the electric current such that a maximum subsurface temperature of the simulated tissue increases toward a predefined threshold without exceeding the predefined threshold, derive a function of time from values of the amplitude over the simulated application, and store the function of time in the computer memory for subsequent use in an ablation procedure. a computer memory; and a processor, configured to: while simulating an application of an electric current to simulated tissue, control an amplitude of the electric current such that a maximum subsurface temperature of the simulated tissue increases toward a predefined threshold without exceeding the predefined threshold, derive a function of time from values of the amplitude over the simulated application, and store the function of time in the computer memory for subsequent use in an ablation procedure. while simulating an application of an electric current to simulated tissue, control an amplitude of the electric current such that a maximum subsurface temperature of the simulated tissue increases toward a predefined threshold without exceeding the predefined threshold, derive a function of time from values of the amplitude over the simulated application, and store the function of time in the computer memory for subsequent use in an ablation procedure.
A gas leak position estimation device comprising: a specifying unit that is configured to specify a gas region image indicating a region in which gas hangs within an image obtained by photographing a monitoring region; and a first determination unit that is configured to determine a pixel indicating a gas leak estimated position estimated as a position of gas leak from among a plurality of pixels constituting an outline of the gas region image, wherein the first determination unit is further configured to determine a pixel indicating a feature point of the gas region image from among a plurality of pixels constituting the outline of the gas region image, the gas leak position estimation device characterised in that the first determination unit is configured to determine the feature point by intersecting a regression curve with the outline of the gas region image and to determine the pixel indicating the gas leak estimated position from among the feature points. a specifying unit that is configured to specify a gas region image indicating a region in which gas hangs within an image obtained by photographing a monitoring region; and a first determination unit that is configured to determine a pixel indicating a gas leak estimated position estimated as a position of gas leak from among a plurality of pixels constituting an outline of the gas region image, wherein the first determination unit is further configured to determine a pixel indicating a feature point of the gas region image from among a plurality of pixels constituting the outline of the gas region image, the gas leak position estimation device characterised in that the first determination unit is configured to determine the feature point by intersecting a regression curve with the outline of the gas region image and to determine the pixel indicating the gas leak estimated position from among the feature points.