mhurhangee/patent-ind-claim-en huggingface dataset:
A linear drive mechanism for a compact lightweight tool with a linear actuated working implement (350; 380; 400; 410; 500), comprising: a. a tool housing ; b. a roller screw disposed inside said tool housing and configured to convert rotary motion from an electric motor to linear movement; c. a working implement (350; 380; 400; 410; 500) linked to said linear movement of said roller screw; d. a primary motor with a pinion gear ; e. a multiple speed, self-adjusting gearbox disposed between said primary motor and said roller screw, said multiple speed gearbox includes a carrier ring coaxially aligned with said pinion, said carrier ring includes three inner planet gears that mesh with said pinion gear, said gearbox also includes an outer ring gear that meshes with said inner planetary gears; f. a secondary motor coupled to said outer ring gear that causes said outer ring gear to rotate in a direction opposite said planet gears; g. a torque sensor coupled to said secondary motor arranged to cause activation of said secondary motor when excessive load is exerted on said working implement; and, h. an electricity source connected to said primary motor and said secondary motor. a. a tool housing ; b. a roller screw disposed inside said tool housing and configured to convert rotary motion from an electric motor to linear movement; c. a working implement (350; 380; 400; 410; 500) linked to said linear movement of said roller screw; d. a primary motor with a pinion gear ; e. a multiple speed, self-adjusting gearbox disposed between said primary motor and said roller screw, said multiple speed gearbox includes a carrier ring coaxially aligned with said pinion, said carrier ring includes three inner planet gears that mesh with said pinion gear, said gearbox also includes an outer ring gear that meshes with said inner planetary gears; f. a secondary motor coupled to said outer ring gear that causes said outer ring gear to rotate in a direction opposite said planet gears; g. a torque sensor coupled to said secondary motor arranged to cause activation of said secondary motor when excessive load is exerted on said working implement; and, h. an electricity source connected to said primary motor and said secondary motor.
An apparatus for sensing a fingerprint, the apparatus comprising: a fingerprint sensor ; a memory ; and at least one processor operatively coupled to the memory , configured to: receive, via the fingerprint sensor, a first sound wave signal reflected at a first point in an object and a second sound wave signal reflected at a second point in the object; detect a first echo signal in the first sound wave signal and a second echo signal in the second sound wave signal; detect a first additional echo signal and a second additional echo signal by comparing a reference signal with the detected first and second echo signals; in response to detecting the first and second additional echo signals based on the comparing, identify a first reception time period of the first additional echo signal and a second reception time period of the second additional echo signal; determine a type of the object based on a comparison of the identified first and second reception time periods, the determined type being a real finger or a fake finger. a fingerprint sensor ; a memory ; and at least one processor operatively coupled to the memory , configured to: receive, via the fingerprint sensor, a first sound wave signal reflected at a first point in an object and a second sound wave signal reflected at a second point in the object; detect a first echo signal in the first sound wave signal and a second echo signal in the second sound wave signal; detect a first additional echo signal and a second additional echo signal by comparing a reference signal with the detected first and second echo signals; in response to detecting the first and second additional echo signals based on the comparing, identify a first reception time period of the first additional echo signal and a second reception time period of the second additional echo signal; determine a type of the object based on a comparison of the identified first and second reception time periods, the determined type being a real finger or a fake finger. receive, via the fingerprint sensor, a first sound wave signal reflected at a first point in an object and a second sound wave signal reflected at a second point in the object; detect a first echo signal in the first sound wave signal and a second echo signal in the second sound wave signal; detect a first additional echo signal and a second additional echo signal by comparing a reference signal with the detected first and second echo signals; in response to detecting the first and second additional echo signals based on the comparing, identify a first reception time period of the first additional echo signal and a second reception time period of the second additional echo signal; determine a type of the object based on a comparison of the identified first and second reception time periods, the determined type being a real finger or a fake finger.
A method of analyzing nucleic acids obtained from a formalin-fixed paraffin embedded (FFPE) tissue sample while retaining spatial context, comprising: a) partitioning the nucleic acids obtained from the FFPE tissue sample into a plurality of wells; wherein nucleic acids in spatial proximity to each other in the FFPE tissue sample are introduced into the same well; b) barcoding partitioned nucleic acids to form a plurality of barcoded nucleic acids, wherein barcoded nucleic acids within a given discrete well each comprise a common partition-specific barcode sequence, such that the barcode sequences identify nucleic acids from a given well; c) obtaining sequence information from the plurality of barcoded nucleic acids, wherein the sequence information from the plurality of barcoded nucleic acids comprises sequence information of the partition-specific barcode sequence; and d) attributing the plurality of barcoded nucleic acids to a region of spatial proximity, wherein barcoded nucleic acids derived from a region of spatial proximity in the FFPE tissue sample comprise the same partition-specific barcode sequence. a) partitioning the nucleic acids obtained from the FFPE tissue sample into a plurality of wells; wherein nucleic acids in spatial proximity to each other in the FFPE tissue sample are introduced into the same well; b) barcoding partitioned nucleic acids to form a plurality of barcoded nucleic acids, wherein barcoded nucleic acids within a given discrete well each comprise a common partition-specific barcode sequence, such that the barcode sequences identify nucleic acids from a given well; c) obtaining sequence information from the plurality of barcoded nucleic acids, wherein the sequence information from the plurality of barcoded nucleic acids comprises sequence information of the partition-specific barcode sequence; and d) attributing the plurality of barcoded nucleic acids to a region of spatial proximity, wherein barcoded nucleic acids derived from a region of spatial proximity in the FFPE tissue sample comprise the same partition-specific barcode sequence.
A method comprising: initiating a first boot session for an electronic device ; generating a random seed using a random number generator of the electronic device; generating a sealing key based at least in part on the random seed and a secret that is internal to the electronic device and unique to the electronic device; subsequent to generating the sealing key , disabling access to the secret for a remainder of the first boot session and until a second boot session is initiated; calculating code measurements (202 -(N)) of multiple boot stages for the first boot session; generating a signature based at least in part on the sealing key and the code measurements (202 -(N)); signing at least a portion of a data structure using the signature , the data structure including the code measurements (202 -(N)), the random seed , the signature , and the sealing key ; and persisting the data structure in the non-volatile memory of the electronic device. initiating a first boot session for an electronic device ; generating a random seed using a random number generator of the electronic device; generating a sealing key based at least in part on the random seed and a secret that is internal to the electronic device and unique to the electronic device; subsequent to generating the sealing key , disabling access to the secret for a remainder of the first boot session and until a second boot session is initiated; calculating code measurements (202 -(N)) of multiple boot stages for the first boot session; generating a signature based at least in part on the sealing key and the code measurements (202 -(N)); signing at least a portion of a data structure using the signature , the data structure including the code measurements (202 -(N)), the random seed , the signature , and the sealing key ; and persisting the data structure in the non-volatile memory of the electronic device.
A coupon for wound care adapted for wireless communication with a transceiver , comprising: a flexible substrate having a top surface and a bottom surface ; a radio-frequency antenna circuit disposed on said top surface of said flexible substrate, the radio-frequency antenna circuit being adapted to receive radio frequency energy; and at least one electrochemical moisture sensor circuit disposed on said bottom surface of said flexible substrate, the at least one electrochemical moisture sensor circuit being configured to be powered by the radio frequency energy. a flexible substrate having a top surface and a bottom surface ; a radio-frequency antenna circuit disposed on said top surface of said flexible substrate, the radio-frequency antenna circuit being adapted to receive radio frequency energy; and at least one electrochemical moisture sensor circuit disposed on said bottom surface of said flexible substrate, the at least one electrochemical moisture sensor circuit being configured to be powered by the radio frequency energy.
A tire comprising a tread contacting a road surface, wherein: at least two circumferential grooves are carved in the tread , and at least three land parts are formed arranged side by side in an axial direction; a land part located on an outer side in the axial direction among the at least three land parts is a shoulder land part ; the shoulder land part comprises a plurality of shoulder blocks arranged side by side in a circumferential direction; the shoulder land part is divided into a grounding zone (ZC) from an equatorial plane side to a grounding end (PE) and a non-grounding zone (ZNC) from the grounding end (PE) to an end (PT) of the tread ; and a plurality of first dimples having a cylindrical shape or being tapered toward their bottom are carved in the shoulder blocks in the grounding zone (ZC), characterized in that a ratio of a radial distance (HB) from the grounding end (PE) to the end (PT) of the tread to a cross-sectional height (HS) is 5 % or more to 15 % or less. at least two circumferential grooves are carved in the tread , and at least three land parts are formed arranged side by side in an axial direction; a land part located on an outer side in the axial direction among the at least three land parts is a shoulder land part ; the shoulder land part comprises a plurality of shoulder blocks arranged side by side in a circumferential direction; the shoulder land part is divided into a grounding zone (ZC) from an equatorial plane side to a grounding end (PE) and a non-grounding zone (ZNC) from the grounding end (PE) to an end (PT) of the tread ; and a plurality of first dimples having a cylindrical shape or being tapered toward their bottom are carved in the shoulder blocks in the grounding zone (ZC), characterized in that a ratio of a radial distance (HB) from the grounding end (PE) to the end (PT) of the tread to a cross-sectional height (HS) is 5 % or more to 15 % or less.
An isolated fibronectin based scaffold (FBS) protein comprising a 10 Fn3 domain, wherein (i) the amino acid of the 10 Fn3 domain that is located at the position corresponding to position 94 of the wild-type 10 Fn3 domain set forth in SEQ ID NO:1 is directly linked to a moiety consisting of the amino acid sequence PmXn, wherein P is proline, X is any amino acid, m is an integer that is at least 1 and n is 0 or an integer that is at least 1; and (ii) the PmXn moiety provides an enhanced property to the FBS protein relative to the FBS protein that is not linked to the PmXn moiety. (i) the amino acid of the 10 Fn3 domain that is located at the position corresponding to position 94 of the wild-type 10 Fn3 domain set forth in SEQ ID NO:1 is directly linked to a moiety consisting of the amino acid sequence PmXn, wherein P is proline, X is any amino acid, m is an integer that is at least 1 and n is 0 or an integer that is at least 1; and (ii) the PmXn moiety provides an enhanced property to the FBS protein relative to the FBS protein that is not linked to the PmXn moiety.
A method for providing negative sequence current to a bus of an IBR-based power system to facilitate operation of a protective relay of the power system in protecting the power system, the method comprising the steps of: using a negative sequence converter, NSC, device connected to the power system via terminals, monitoring phase voltages of the power system at the terminals; using the NSC device, determining a reference magnitude and reference phase angle of a negative sequence voltage incident on the NSC device based on phase voltages of the power system; using the NSC device, providing a first model current having a first magnitude and a first phase angle based on the reference magnitude and reference phase angle; using the NSC device, providing a second model current having a second and different magnitude from the first magnitude and also having a second phase angle; and using the NSC device, providing the second model current to the power system bus. using a negative sequence converter, NSC, device connected to the power system via terminals, monitoring phase voltages of the power system at the terminals; using the NSC device, determining a reference magnitude and reference phase angle of a negative sequence voltage incident on the NSC device based on phase voltages of the power system; using the NSC device, providing a first model current having a first magnitude and a first phase angle based on the reference magnitude and reference phase angle; using the NSC device, providing a second model current having a second and different magnitude from the first magnitude and also having a second phase angle; and using the NSC device, providing the second model current to the power system bus.
A tape measure comprising, a spool ; a housing (14; 320) having a first side and a second side that cooperate to define a housing interior and an opening (90; 315); a gear assembly coupled to the spool and the housing (14; 320) to enable rotation of the spool with respect to the housing (14; 320); a blade including a first end attached to the spool and a second end that extends through the opening (90; 315) and is movable between a retracted position and an extended position; and a wiper (204; 305, 310) disposed within the housing interior and including a cleaning portion , a first tubular portion that extends from the cleaning portion in a first direction, and a second tubular portion that extends from the cleaning portion in a second direction opposite the first direction, the first tubular portion supported by the first side of the housing (14; 320) and the second tubular portion supported by the second side of the housing (14; 320) to position the cleaning portion into direct contact with the blade as the blade moves between the retracted position and the extended position.
A method for positioning a medical diagnostic device , wherein the medical diagnostic device is a medical imaging device, wherein the method comprises: determining , by a processor , a current position of the medical diagnostic device by comparing a current image with at least one reference image in a first database , wherein the current image is captured by the medical diagnostic device in the current position; determining , by the processor , target position coordinates of the medical diagnostic device and a similarity score, iteratively, by comparing the current image with at least one of the reference image and a user-preferred image in a second database ; computing , by the processor , motion parameters associated with the target position coordinates of the medical diagnostic device iteratively, based on the similarity score; actuating , by the processor , movement of the medical diagnostic device to the target position based on the motion parameters . determining , by a processor , a current position of the medical diagnostic device by comparing a current image with at least one reference image in a first database , wherein the current image is captured by the medical diagnostic device in the current position; determining , by the processor , target position coordinates of the medical diagnostic device and a similarity score, iteratively, by comparing the current image with at least one of the reference image and a user-preferred image in a second database ; computing , by the processor , motion parameters associated with the target position coordinates of the medical diagnostic device iteratively, based on the similarity score; actuating , by the processor , movement of the medical diagnostic device to the target position based on the motion parameters .
A nitrogen stabilizing composition comprising: 10% to 18% w/w N-(n-butyl) thiophosphoric triamide (NBPT); a solvent comprising N-methyl-2-pyrrolidone (NMP), and two or more of propylene glycol, ethylene glycol, morpholine and glycerine; 1% to 5% w/w vegetable oil; and 1% to 5% emulsifier. 10% to 18% w/w N-(n-butyl) thiophosphoric triamide (NBPT); a solvent comprising N-methyl-2-pyrrolidone (NMP), and two or more of propylene glycol, ethylene glycol, morpholine and glycerine; 1% to 5% w/w vegetable oil; and 1% to 5% emulsifier.
A sample processing assembly for treatment of a sample on a substrate, the assembly including: a. a mounting surface for the substrate; b. a closure body configured to releasably retain a cover member , the closure body being movable between an open position and a closed position; c. a force distribution member ; d. a closing biasing means for applying a closing biasing force to the closure body such that the closure body is biased in the closed position; and e. an opening biasing means for applying an opening biasing force to the closure body; wherein, when a substrate is placed in the assembly and the closure body is in the closed position while retaining the cover member , a reaction chamber is formed for processing a sample; and wherein the force distribution member distributes the closing biasing force applied to the closure body evenly so that when in the closed position, a seal forms at a junction between the cover member and the substrate; wherein the closing biasing means is configured to apply a larger biasing force than the opening biasing means. a. a mounting surface for the substrate; b. a closure body configured to releasably retain a cover member , the closure body being movable between an open position and a closed position; c. a force distribution member ; d. a closing biasing means for applying a closing biasing force to the closure body such that the closure body is biased in the closed position; and e. an opening biasing means for applying an opening biasing force to the closure body; wherein, when a substrate is placed in the assembly and the closure body is in the closed position while retaining the cover member , a reaction chamber is formed for processing a sample; and wherein the force distribution member distributes the closing biasing force applied to the closure body evenly so that when in the closed position, a seal forms at a junction between the cover member and the substrate; wherein the closing biasing means is configured to apply a larger biasing force than the opening biasing means.
Device for controlling activation/deactivation of at least one function provided by electronic equipment of a vehicle, the device comprising a screen capable of displaying at least a first menu activation/deactivation of said functions and presenting a plurality of displayed elements comprising, for at least one of the functions , a state of the function among three states chosen from a state activated, a deactivated state and an unavailable state, corresponding to a deactivated state and unavailable for activation, the device comprising selection means for selecting and activating at least one displayed element , characterized in that when the state of a function is the unavailable state, the first menu is designed to display an element associated with said unavailable function and the selection of which makes it possible to display a window of unavailability containing unavailability information regarding the unavailable state.
Device for monitoring a shaft coupling coupling a first shaft to a second shaft , having: - an optical unit with a receiving element, embodied to receive an electromagnetic radiation, in particular light, - a modifying unit embodied to modify a radiant energy impinging on the receiving element with an asynchronous running of the first shaft with respect to the second shaft , characterised in that the modifying unit has a holographic optical component , wherein the holographic optical component can be arranged on and/or within the first shaft , the modifying unit has a diaphragm , wherein the diaphragm can be arranged on and/or within the second shaft , the diaphragm has radially arranged slots and radially arranged filled regions in an at least substantially regular sequence, the diaphragm has an at least substantially centrally arranged opening , the holographic optical component can be illuminated/irradiated with electromagnetic, in particular coherent, radiation by the emission element , wherein the holographic optical component generates a pattern , in particular by diffraction and/or refraction and/or reflection and/or interference of the radiation, wherein the pattern has radially arranged regions with a first radiant energy and radially arranged regions with a second radiant energy in an at least substantially regular sequence. - an optical unit with a receiving element, embodied to receive an electromagnetic radiation, in particular light, - a modifying unit embodied to modify a radiant energy impinging on the receiving element with an asynchronous running of the first shaft with respect to the second shaft , characterised in that the modifying unit has a holographic optical component , wherein the holographic optical component can be arranged on and/or within the first shaft , the modifying unit has a diaphragm , wherein the diaphragm can be arranged on and/or within the second shaft , the diaphragm has radially arranged slots and radially arranged filled regions in an at least substantially regular sequence, the diaphragm has an at least substantially centrally arranged opening , the holographic optical component can be illuminated/irradiated with electromagnetic, in particular coherent, radiation by the emission element , wherein the holographic optical component generates a pattern , in particular by diffraction and/or refraction and/or reflection and/or interference of the radiation, wherein the pattern has radially arranged regions with a first radiant energy and radially arranged regions with a second radiant energy in an at least substantially regular sequence.