mhurhangee/patent-ind-claim-en huggingface dataset:
Refrigeration appliance, in particular household refrigeration appliance, with an evaporator chamber , an evaporator accommodated in the evaporator chamber and at least one resilient buffer arranged between a flank of the evaporator and a wall of the evaporator chamber , characterised in that the buffer is a preform made of a softer material than that of an evaporator housing that delimits the evaporator chamber and is plug-connected to the evaporator housing via at least one first protrusion and a recess accommodating the first protrusion , and surfaces of the first protrusion and the recess that touch each other can be moved in relation to one another in a longitudinal direction of the first protrusion .
A system for post-processing including cleaning and post-exposure of a body manufactured by means of an additive manufacturing method from a substance curable by radiation, the system comprising: a cleaning tank (13; 14) for cleaning the body with a cleaning fluid ; an exposure chamber for post-exposure of the body ; a transport device having a drive for lowering a build platform into to the cleaning tank or into the exposure chamber, a processing unit configured to control the drive and output process parameters, characterized in that the transport device comprises a force sensor , wherein the force sensor is configured to capture, during and/or after cleaning and/or post-exposure, a force acting on the build platform being generated due the drive , the gravity of the body , and the buoyancy due to the cleaning fluid displaced during the cleaning, and to provide a force signal, wherein the processing unit is further configured to determine a weight of the body based on the force signal and to calculate an expected weight of the body based on a model in which the expected weight is calculated from a density of the said substance and the filled volume of the body , and to draw conclusions on a progress of the post-processing from a difference between the determined weight of the body and the expected weight of the body , wherein the processing unit is further configured to control the drive and output process parameters based on the force signal. a cleaning tank (13; 14) for cleaning the body with a cleaning fluid ; an exposure chamber for post-exposure of the body ; a transport device having a drive for lowering a build platform into to the cleaning tank or into the exposure chamber, a processing unit configured to control the drive and output process parameters, characterized in that the transport device comprises a force sensor , wherein the force sensor is configured to capture, during and/or after cleaning and/or post-exposure, a force acting on the build platform being generated due the drive , the gravity of the body , and the buoyancy due to the cleaning fluid displaced during the cleaning, and to provide a force signal, wherein the processing unit is further configured to determine a weight of the body based on the force signal and to calculate an expected weight of the body based on a model in which the expected weight is calculated from a density of the said substance and the filled volume of the body , and to draw conclusions on a progress of the post-processing from a difference between the determined weight of the body and the expected weight of the body , wherein the processing unit is further configured to control the drive and output process parameters based on the force signal.
A biometric information spoofing detection method, the method comprising: receiving, from a sensor , first feature information including a static feature associated with biometric information of a user and a dynamic feature obtained based on images associated with the biometric information, as well as the images , wherein the static feature includes a physical measure obtainable directly from the sensor and the dynamic feature is calculated based on a difference between image features extracted respectively from the images, the method further comprising calculating a first score by applying the first feature information to a first neural network (231 410, 915), extracting second feature information from the images and calculating a second score based on the extracted second feature information by implementing a second neural network ; determining whether the first score is in a first threshold range for an early decision that the biometric information is spoofed; in response to determining that the first score falls outside of the first threshold range: determining whether to fuse the first score with the second score ; in response to determining to fuse the first score with the second score ; determining a final score by fusing the first score with the second score and determining that the biometric information is spoofed based on the final score. receiving, from a sensor , first feature information including a static feature associated with biometric information of a user and a dynamic feature obtained based on images associated with the biometric information, as well as the images , wherein the static feature includes a physical measure obtainable directly from the sensor and the dynamic feature is calculated based on a difference between image features extracted respectively from the images, the method further comprising calculating a first score by applying the first feature information to a first neural network (231 410, 915), extracting second feature information from the images and calculating a second score based on the extracted second feature information by implementing a second neural network ; determining whether the first score is in a first threshold range for an early decision that the biometric information is spoofed; in response to determining that the first score falls outside of the first threshold range: determining whether to fuse the first score with the second score ; in response to determining to fuse the first score with the second score ; determining a final score by fusing the first score with the second score and determining that the biometric information is spoofed based on the final score. determining whether to fuse the first score with the second score ; in response to determining to fuse the first score with the second score ; determining a final score by fusing the first score with the second score and determining that the biometric information is spoofed based on the final score. determining a final score by fusing the first score with the second score and determining that the biometric information is spoofed based on the final score.
A cryo-stimulation treatment device, comprising: a needle having a proximal end and a distal end and a length therebetween, the needle configured to produce a cold zone for focused cold therapy, the needle having a cooling center along the length of the needle that is associated with a center of the cold zone produced by the needle ; an electrically insulated coating disposed about the length of the needle ; wherein the needle is electrically conductive and wherein the proximal end of the needle is configured to couple with an electrical nerve stimulation generator that generates an electrical field about the distal end of the needle for electrically stimulating and locating the target nerve; wherein the cooling center of the needle is uninsulated such that an intensity of the electrical field is co-incident with the center of the cold zone produced by the needle ; and wherein the electrically insulated coating is disposed along the proximal end and the distal end of the needle , and wherein the uninsulated cooling center is dispo sed between the proximal end and the distal end of the needle . a needle having a proximal end and a distal end and a length therebetween, the needle configured to produce a cold zone for focused cold therapy, the needle having a cooling center along the length of the needle that is associated with a center of the cold zone produced by the needle ; an electrically insulated coating disposed about the length of the needle ; wherein the needle is electrically conductive and wherein the proximal end of the needle is configured to couple with an electrical nerve stimulation generator that generates an electrical field about the distal end of the needle for electrically stimulating and locating the target nerve; wherein the cooling center of the needle is uninsulated such that an intensity of the electrical field is co-incident with the center of the cold zone produced by the needle ; and wherein the electrically insulated coating is disposed along the proximal end and the distal end of the needle , and wherein the uninsulated cooling center is dispo sed between the proximal end and the distal end of the needle .
A field hockey stick , comprising: a shaft ; a head , comprising: - a front surface comprising a flat portion; and - a back surface opposite the front surface , wherein the back surface comprises a flat portion , and wherein a lifting angle between the flat portion of the back surface and the flat portion of the front surface is between 20 and 80 degrees. a shaft ; a head , comprising: - a front surface comprising a flat portion; and - a back surface opposite the front surface , wherein the back surface comprises a flat portion , and wherein a lifting angle between the flat portion of the back surface and the flat portion of the front surface is between 20 and 80 degrees. - a front surface comprising a flat portion; and - a back surface opposite the front surface , wherein the back surface comprises a flat portion , and wherein a lifting angle between the flat portion of the back surface and the flat portion of the front surface is between 20 and 80 degrees.
A measuring method for a nucleic acid sample, which simultaneously performs a digital PCR and a quantitative real-time PCR to detect the nucleic acid sample with a high-concentration nucleic acid target and a low-concentration nucleic acid target at one time, wherein a copy number of the high-concentration nucleic acid target in the nucleic acid sample is greater than 10000, and a copy number of the low-concentration nucleic acid target in the nucleic acid sample is 10000 or less, the measuring method for the nucleic acid sample being characterized in comprising: providing a testing plate having a plurality of reaction wells to perform a digital and quantitative real-time PCR on the nucleic acid sample; and directly quantifying the copy number of the low-concentration nucleic acid target by the digital PCR, and after a Cq value of the high-concentration nucleic acid target is detected by the quantitative real-time PCR, a converting step is performed to obtain the copy number of the high-concentration nucleic acid target in the nucleic acid sample. providing a testing plate having a plurality of reaction wells to perform a digital and quantitative real-time PCR on the nucleic acid sample; and directly quantifying the copy number of the low-concentration nucleic acid target by the digital PCR, and after a Cq value of the high-concentration nucleic acid target is detected by the quantitative real-time PCR, a converting step is performed to obtain the copy number of the high-concentration nucleic acid target in the nucleic acid sample.
A temperature sensor substrate for exhaust gas sensors comprising: an insulating substrate comprising a plurality of inorganic particles formed of an insulator in contact with each other, and glass ; and a wiring conductor disposed on the insulating substrate , characterized in that the plurality of inorganic particles and the glass are in contact with the wiring conductor , and the glass is disposed at a position between the plurality of inorganic particles and the wiring conductor , and a contact portion between the plurality of inorganic particles and the wiring conductor is larger than a contact portion between the glass and the wiring conductor in a longitudinal sectional view. an insulating substrate comprising a plurality of inorganic particles formed of an insulator in contact with each other, and glass ; and a wiring conductor disposed on the insulating substrate , characterized in that the plurality of inorganic particles and the glass are in contact with the wiring conductor , and the glass is disposed at a position between the plurality of inorganic particles and the wiring conductor , and a contact portion between the plurality of inorganic particles and the wiring conductor is larger than a contact portion between the glass and the wiring conductor in a longitudinal sectional view.
A volumetric water content (VWC) sensor (100; 100a, 100b) comprising: a support to enable installation of the VWC sensor (100; 100a, 100b) in a target soil ; radiofrequency (RF) electrodes (124, 124a, 124b; 124c, 124d; 124-1, 124-2, 124-3); at least one VWC probe (120, 120a, 120b; 120c, 120d) positioned at a predefined longitudinal location along the support; and at least one electronics unit coupled to the RF electrodes to transmit and receive RF signals from the RF electrodes; characterized in that the at least one VWC probe comprises: a helical blade secured along its inner lateral side to an outer surface of the support, and in that at least one of the radiofrequency (RF) electrodes (124, 124a, 124b; 124c, 124d; 124-1, 124-2, 124-3) is secured to the helical blade at a predefined radial distance from the support. a support to enable installation of the VWC sensor (100; 100a, 100b) in a target soil ; radiofrequency (RF) electrodes (124, 124a, 124b; 124c, 124d; 124-1, 124-2, 124-3); at least one VWC probe (120, 120a, 120b; 120c, 120d) positioned at a predefined longitudinal location along the support; and at least one electronics unit coupled to the RF electrodes to transmit and receive RF signals from the RF electrodes; a helical blade secured along its inner lateral side to an outer surface of the support, and in that at least one of the radiofrequency (RF) electrodes (124, 124a, 124b; 124c, 124d; 124-1, 124-2, 124-3) is secured to the helical blade at a predefined radial distance from the support.
A method of wireless communication performed by a user equipment, UE, comprising: receiving a paging grant that includes a short paging message and a notification of a reason that the short paging message was triggered; determining that the paging grant includes the short paging message; and obtaining the notification of the reason that the short paging message was triggered based at least in part on determining that the paging grant includes the short paging message; and wherein the notification indicates that the UE is to obtain a separate paging message to obtain additional information regarding the reason of the short paging message; and the paging grant further includes scheduling information for obtaining the separate paging message that includes the additional information. receiving a paging grant that includes a short paging message and a notification of a reason that the short paging message was triggered; determining that the paging grant includes the short paging message; and obtaining the notification of the reason that the short paging message was triggered based at least in part on determining that the paging grant includes the short paging message; and wherein the notification indicates that the UE is to obtain a separate paging message to obtain additional information regarding the reason of the short paging message; and the paging grant further includes scheduling information for obtaining the separate paging message that includes the additional information.
A movable device for inspecting a production line intended to be partially submerged in a body of water , including: - an inspection support bearing at least one sensor capable of being positioned facing the production line ; - an attaching and moving assembly for attaching to and moving on the production line , connected to the inspection support , said attaching and moving assembly including at least two clamps that can be selectively actuated to grip onto the production line , each clamp delimiting a central passage of longitudinal axis (B-B'), capable of receiving the production line , the clamps being longitudinally movable relative to one another along the production line , the attaching and moving assembly comprising an active mechanism for moving the clamps longitudinally relative to one another, characterized in that the attaching and moving assembly includes a mechanism for tilting the clamps relative to one another, between a position parallel to one another and a position tilted relative to one another the tilting mechanism comprising a flexion bar able to go from a straight configuration, in the parallel position of the clamps to a curved configuration in the tilted position of the clamps , and in that the tilting mechanism comprises a jacket movable jointly with a first clamp from among the clamps , the flexion bar being movable jointly with a second clamp from among the clamps , the flexion bar being mounted translatable in the jacket , between a position inserted in the jacket and a position removed from the jacket . - an inspection support bearing at least one sensor capable of being positioned facing the production line ; - an attaching and moving assembly for attaching to and moving on the production line , connected to the inspection support ,
A unit for a distributed antenna system, DAS , wherein the unit is a host unit or a master remote antenna unit , the unit comprising: one or more processing devices configured to: group power samples of a downlink portion of the TDD signal into blocks corresponding to a respective time period; compare power samples of the blocks to a power threshold; assign the blocks as ON or OFF based on a number of power samples in a respective block that are above the power threshold; identify a start of a downlink burst in the TDD signal as an ON block preceded by at least a minimum number of consecutive OFF blocks; and send timing information for when to switch RF circuitry to one or more remote antenna units of the DAS based on the start of the downlink burst. one or more processing devices configured to: group power samples of a downlink portion of the TDD signal into blocks corresponding to a respective time period; compare power samples of the blocks to a power threshold; assign the blocks as ON or OFF based on a number of power samples in a respective block that are above the power threshold; identify a start of a downlink burst in the TDD signal as an ON block preceded by at least a minimum number of consecutive OFF blocks; and send timing information for when to switch RF circuitry to one or more remote antenna units of the DAS based on the start of the downlink burst.
A self-retracting lifeline, comprising: a drum including a base to which a lifeline is operatively connected and first and second sides operatively connected to opposing sides of the base; a rotor including at least one receiving portion and operatively connected to the drum ; at least one biasing member ; at least one pawl being pivotally operatively connected to the rotor proximate the at least one receiving portion , the at least one pawl having a generally rectangular base , a circular portion , and a protrusion member , the circular portion extending outwardly from a first corner of the generally rectangular base, the protrusion member extending outwardly from a first side of the generally rectangular base proximate the circular portion, the at least one biasing member being positioned between the rotor and the protrusion member of the at least one pawl to place a biasing force upon the at least one pawl, the at least one pawl having a disengaged position and an engaged position; and a bracket member including a cavity and a stop member extending into the cavity, the cavity configured and arranged to receive the drum , the lifeline , the rotor , the at least one pawl , and the at least one biasing member , the drum being rotatably operatively connected to the bracket member and the at least one pawl being positioned proximate the stop member , the at least one pawl and the at least one biasing member being held in place by the first side of the base, the rotor, and the bracket member. a drum including a base to which a lifeline is operatively connected and first and second sides operatively connected to opposing sides of the base; a rotor including at least one receiving portion and operatively connected to the drum ; at least one biasing member ; at least one pawl being pivotally operatively connected to the rotor proximate the at least one receiving portion , the at least one pawl having a generally rectangular base , a circular portion , and a protrusion member , the circular portion extending outwardly from a first corner of the generally rectangular base, the protrusion member extending outwardly from a first side of the generally rectangular base proximate the circular portion, the at least one biasing member being positioned between the rotor and the protrusion member of the at least one pawl to place a biasing force upon the at least one pawl, the at least one pawl having a disengaged position and an engaged position; and a bracket member including a cavity and a stop member extending into the cavity, the cavity configured and arranged to receive the drum , the lifeline , the rotor , the at least one pawl , and the at least one biasing member , the drum being rotatably operatively connected to the bracket member and the at least one pawl being positioned proximate the stop member , the at least one pawl and the at least one biasing member being held in place by the first side of the base, the rotor, and the bracket member.