mhurhangee/patent-ind-claim-en huggingface dataset:
A transmission assembly structure comprising: an engine-side joining surface , which is formed on a flywheel housing of an internal combustion engine ; a transmission-side joining surface , which is formed on a transmission housing of a transmission and is joined to the engine-side joining surface; an engine component , which is provided on an outside of the engine-side joining surface in a radial direction of a flywheel , the flywheel being coaxially attached to a crank shaft , wherein the engine component protrudes toward a transmission side with respect to the engine-side joining surface; a guide member , which is provided on the engine-side joining surface of the flywheel housing and also in a vicinity of the engine component and which protrudes toward the transmission side further than the engine component with respect to the engine-side joining surface; and a guide hole , which is provided on the transmission-side joining surface of the transmission housing and into which the guide member is inserted, wherein the guide member is configured to restrict a movement direction of the transmission housing such that the transmission housing is movable to the flywheel housing during assembly of the structure. an engine-side joining surface , which is formed on a flywheel housing of an internal combustion engine ; a transmission-side joining surface , which is formed on a transmission housing of a transmission and is joined to the engine-side joining surface; an engine component , which is provided on an outside of the engine-side joining surface in a radial direction of a flywheel , the flywheel being coaxially attached to a crank shaft , wherein the engine component protrudes toward a transmission side with respect to the engine-side joining surface; a guide member , which is provided on the engine-side joining surface of the flywheel housing and also in a vicinity of the engine component and which protrudes toward the transmission side further than the engine component with respect to the engine-side joining surface; and a guide hole , which is provided on the transmission-side joining surface of the transmission housing and into which the guide member is inserted, wherein the guide member is configured to restrict a movement direction of the transmission housing such that the transmission housing is movable to the flywheel housing during assembly of the structure.
A method of making an integrated circuit medical device, comprising the steps of: a. depositing a layer of an electrically conductive material onto a releasable substrate, thereby forming a framework support member consisting of the electrically conductive material on the releasable substrate; b. forming a plurality of slots passing through the framework support member and to the releasable substrate thereby defining a plurality of circuit traces in the framework support member bounded by the plurality of slots; and c. coating a dielectric layer onto the framework support member and the plurality of circuit traces thereby filling the plurality of slots and binding the plurality of circuit traces to the framework support member and electrically isolating the plurality of circuit traces from the framework support member. a. depositing a layer of an electrically conductive material onto a releasable substrate, thereby forming a framework support member consisting of the electrically conductive material on the releasable substrate; b. forming a plurality of slots passing through the framework support member and to the releasable substrate thereby defining a plurality of circuit traces in the framework support member bounded by the plurality of slots; and c. coating a dielectric layer onto the framework support member and the plurality of circuit traces thereby filling the plurality of slots and binding the plurality of circuit traces to the framework support member and electrically isolating the plurality of circuit traces from the framework support member.
A coated optical fiber comprising: a primary coating; a secondary coating adhered to and surrounding said primary coating; and a water-swellable exterior coating adhered to and surrounding said secondary coating; wherein the water-swellable exterior coating is configured such that, when it is applied to at least 2, or at least 3, or at least 4, or 5 out of 5 optical fibers having an outer diameter of 240 microns, and said 5 optical fibers are inserted into a horizontally-disposed water-impermeable tube possessing an inner diameter of 1 mm and a length of 75cm, and said inserted fibers are exposed at a first end to deionized water that is gravity-fed by a 0.5m vertical water column for 1 hour in accordance with a longitudinal water blocking tube test as described herein, a travel of said deionized water does not extend beyond 60 centimeters (cm), or beyond 30 cm, or beyond 10 cm, or extends from 10cm to 30cm, or from 30cm to 60cm along the length of the water-impermeable tube as measured from the first end. a primary coating; a secondary coating adhered to and surrounding said primary coating; and a water-swellable exterior coating adhered to and surrounding said secondary coating;
A wear assembly comprising a support structure , for fixing to excavating equipment, a wear member consisting of a tooth point mounted on the support structure , the wear member comprising a front working portion, a rearward formation for receiving the support structure, and an opening with a rotatable lock received in the opening to releasably secure the wear member on the support structure ; wherein the lock includes a wedge , characterized by the wedge being rotatable and formed with a first thread formation on its exterior surface , the first thread formation threadedly coupling the wedge to a second thread formation in the opening such that rotation of the wedge moves the wedge into the opening to tighten the lock in the opening ; wherein the second thread formation is a helical ridge formed on a body housed in a cavity in the opening, the body being biased into engagement with the first threaded formation on the wedge by a resilient member in the cavity. excavating equipment, a wear member consisting of a tooth point mounted on the support structure , the wear member comprising a front working portion, a rearward formation for receiving the support structure, and an opening with a rotatable lock received in the opening to releasably secure the wear member on the support structure ; wherein the lock includes a wedge , characterized by the wedge being rotatable and formed with a first thread formation on its exterior surface , the first thread formation threadedly coupling the wedge to a second thread formation in the opening such that rotation of the wedge moves the wedge into the opening to tighten the lock in the opening ; wherein the second thread formation is a helical ridge formed on a body housed in a cavity in the opening, the body being biased into engagement with the first threaded formation on the wedge by a resilient member in the cavity.
A camera calibration device configured to be mounted in a vehicle, and configured to execute calibration on a plurality of cameras capturing an ambient environment of the vehicle, comprising: a video acquisition unit that acquires videos captured by the plurality of cameras; a feature extraction unit that extracts a predetermined feature quantity from the videos; a posture estimation unit that estimates a posture of the vehicle on the basis of the predetermined feature quantity; a translation correction unit that corrects a camera translation parameter in a direction parallel to the ground surface on the basis of information obtained from a calibration executed in the past; and a camera parameter calculation unit that calculates the camera parameters related to the postures of the plurality of cameras with respect to the ground surface on the basis of the posture of the vehicle and the parameter obtained by the translation correction unit, wherein the posture estimation unit includes a pitch angle estimation unit that estimates a pitch angle of the vehicle on the basis of the predetermined feature quantity and a roll angle/height/rotation center estimation unit that estimates a roll angle, a height, and a rotation center of the vehicle on the basis of the predetermined feature quantity. a video acquisition unit that acquires videos captured by the plurality of cameras; a feature extraction unit that extracts a predetermined feature quantity from the videos; a posture estimation unit that estimates a posture of the vehicle on the basis of the predetermined feature quantity; a translation correction unit that corrects a camera translation parameter in a direction parallel to the ground surface on the basis of information obtained from a calibration executed in the past; and a camera parameter calculation unit that calculates the camera parameters related to the postures of the plurality of cameras with respect to the ground surface on the basis of the posture of the vehicle and the parameter obtained by the translation correction unit, wherein the posture estimation unit includes a pitch angle estimation unit that estimates a pitch angle of the vehicle on the basis of the predetermined feature quantity and a roll angle/height/rotation center estimation unit that estimates a roll angle, a height, and a rotation center of the vehicle on the basis of the predetermined feature quantity.
A bearing system comprising: an outer race that extends around a central axis , an inner race that extends around and rotates in a first direction about the central axis relative to the outer race and spaced apart radially from the outer race to define a bearing cavity therebetween, a plurality of internal rotating components arranged radially between the inner race and the outer race to engage the inner race and the outer race , and a lubrication system configured to provide lubrication to the plurality of internal rotating components during rotation of the inner race , the lubrication system including a side-jet injector located in spaced-apart relation to the outer race in a fixed position relative to the outer race and configured to inject a stream of lubrication from an outlet formed in the side-jet injector in an axial direction toward the plurality of internal rotating components , and a windage barrier located adjacent to the outlet of the side-jet injector ; characterised in that the windage barrier is in a fixed position relative to the side-jet injector and the outer race upstream from the outlet and configured to establish a zone of stagnant fluid downstream of the windage barrier such that the stream moves through the zone of stagnant fluid from the outlet to the plurality of rotating components . an outer race that extends around a central axis , an inner race that extends around and rotates in a first direction about the central axis relative to the outer race and spaced apart radially from the outer race to define a bearing cavity therebetween, a plurality of internal rotating components arranged radially between the inner race and the outer race to engage the inner race and the outer race , and a lubrication system configured to provide lubrication to the plurality of internal rotating components during rotation of the inner race , the lubrication system including a side-jet injector located in spaced-apart relation to the outer race in a fixed position relative to the outer race and configured to inject a stream of lubrication from an outlet formed in the side-jet injector in an axial direction toward the plurality of internal rotating components , and a windage barrier located adjacent to the outlet of the side-jet injector ; characterised in that the windage barrier is in a fixed position relative to the side-jet injector and the outer race upstream from the outlet and configured to establish a zone of stagnant fluid downstream of the windage barrier such that the stream moves through the zone of stagnant fluid from the outlet to the plurality of rotating components .
A flight vehicle comprising: a fuselage ; and a propulsion system mechanically coupled to the fuselage; wherein the propulsion system includes: an air inlet ; an isolator downstream of the air inlet; and a combustor downstream of the isolator; wherein air passing through the air inlet and the isolator to the combustor passes through a minimum cross-sectional area at a throat that is at a boundary between the air inlet and the isolator; wherein the isolator includes an obstruction that protrudes from an inner wall of the isolator into the flowpath of air through the isolator, with the obstruction causing diversion of flow in a direction perpendicular to a longitudinal direction through the isolator, around the obstruction; and wherein the obstruction has a wedge shape increasing in width on an upstream side , and another wedge shape of decreasing width on a downstream side . a fuselage ; and a propulsion system mechanically coupled to the fuselage; wherein the propulsion system includes: an air inlet ; an isolator downstream of the air inlet; and a combustor downstream of the isolator; an air inlet ; an isolator downstream of the air inlet; and a combustor downstream of the isolator; wherein air passing through the air inlet and the isolator to the combustor passes through a minimum cross-sectional area at a throat that is at a boundary between the air inlet and the isolator; wherein the isolator includes an obstruction that protrudes from an inner wall of the isolator into the flowpath of air through the isolator, with the obstruction causing diversion of flow in a direction perpendicular to a longitudinal direction through the isolator, around the obstruction; and wherein the obstruction has a wedge shape increasing in width on an upstream side , and another wedge shape of decreasing width on a downstream side .
A build plate-clamping assembly , comprising: a work station having a build plate-receiving surface ; and a lock-pin extending from the build plate-receiving surface of the work station , the lock-pin comprising: a hollow pin body ; a piston disposed within the hollow pin body , the piston axially movable from a retracted position to an actuated position ; and a plurality of detents , the plurality of detents radially extensible through respective ones of a plurality of detent-apertures in the hollow pin body responsive to the piston having been axially moved to the actuated position ; wherein the lock-pin comprises a flushing channel defining a pathway for a fluid to flow from a fluid source and discharge from the hollow pin body so as to flush debris from the lock-pin . a work station having a build plate-receiving surface ; and a lock-pin extending from the build plate-receiving surface of the work station , the lock-pin comprising: a hollow pin body ; a piston disposed within the hollow pin body , the piston axially movable from a retracted position to an actuated position ; and a plurality of detents , the plurality of detents radially extensible through respective ones of a plurality of detent-apertures in the hollow pin body responsive to the piston having been axially moved to the actuated position ; wherein the lock-pin comprises a flushing channel defining a pathway for a fluid to flow from a fluid source and discharge from the hollow pin body so as to flush debris from the lock-pin . a hollow pin body ; a piston disposed within the hollow pin body , the piston axially movable from a retracted position to an actuated position ; and a plurality of detents , the plurality of detents radially extensible through respective ones of a plurality of detent-apertures in the hollow pin body responsive to the piston having been axially moved to the actuated position ; wherein the lock-pin comprises a flushing channel defining a pathway for a fluid to flow from a fluid source and discharge from the hollow pin body so as to flush debris from the lock-pin .
Process for generating electricity wherein a microbial fuel cell is used, the microbial fuel cell comprising bacteria of the species Geobacter sulfurreducens (Gsu) and Clostridium pasteurianum (Cpa) and two or more electrodes, wherein the electrodes comprise at least one anode and at least one cathode.
An assembly including a coupling member defining a flow path , a blanking cap closing the flow path, a seal between the coupling member and the blanking cap , and a clamp , the coupling member having a first annular connection flange extending about an axis, the blanking cap comprising a disc-like member having an outer circumferential region which comprises a second annular connection flange , the first and second annular connection flanges , overlying one another and defining corresponding opposed sealing faces , between which the seal is disposed, the first and second annular connection flanges , and seal being clamped together by means of the clamp which engages about the first and second annular connection flanges , , characterised in that the blanking cap comprises a pair of safety lugs which each extend about an outer circumferential periphery of the first annular connection flange , each safety lug having an abutment configured for engagement with the first annular connection flange to limit axial movement of the disc-like member away from the coupling member .
An encoding method, comprising: performing (S101), by a transmit end based on a cyclic redundancy check, CRC, polynomial, CRC encoding on A to-be-encoded information bits, to obtain a CRC-encoded bit sequence, wherein the CRC-encoded bit sequence comprises L CRC bits and the A to-be-encoded information bits, L and A are positive integers, L =6, and the CRC polynomial is: D^6+D^5+1; and performing (S103), by the transmit end, polar encoding on the CRC-encoded bit sequence to obtain a polar-encoded bit sequence. performing (S101), by a transmit end based on a cyclic redundancy check, CRC, polynomial, CRC encoding on A to-be-encoded information bits, to obtain a CRC-encoded bit sequence, wherein the CRC-encoded bit sequence comprises L CRC bits and the A to-be-encoded information bits, L and A are positive integers, L =6, and the CRC polynomial is: D^6+D^5+1; and performing (S103), by the transmit end, polar encoding on the CRC-encoded bit sequence to obtain a polar-encoded bit sequence.
An aqueous composition comprising 0.001 - 0.1 % (w/v) atropine or a salt thereof, a water-soluble polymer, and buffer (I), which is at a pH range of 6 or lower, wherein the buffer (I) is at least one selected from the group consisting of a phosphate buffer and an aminocarboxylate buffer, wherein the water-soluble polymer is a cellulose derivative, and wherein the cellulose derivative is at least one selected from the group consisting of hydroxyethyl cellulose and hydroxypropyl methylcellulose.
Cable feed device for feeding a cable to a cable processing machine , the cable feed device comprising a first rotatable roller and a second rotatable roller for guiding the cable such that the cable can arranged in a loop around the first roller and the second roller , the cable feed device having a cable drive for transporting the cable , the first roller being stationary, the cable feed device being designed such that the second roller is pushed or pulled away from the first roller by a force, it being possible for the second roller to have a first state and a second state, the second roller being locked in a first position in the first state and being moved in the second state by the force such that the distance between the first roller and the second roller changes depending on the length of the cable between the two rollers , characterized in that the second roller can be electromagnetically locked and unlocked in the first position, and in that the second roller is attached to a deflection lever , the deflection lever being rotatably fixed at an end of the deflection lever remote from the second roller , the deflection lever being connected to a movement limiting element having a compensating element for contacting a position locking element of the cable feed device such that, in the first state, the second roller can be moved a predetermined distance toward the first roller . the cable feed device having a cable drive for transporting the cable , the first roller being stationary, the cable feed device being designed such that the second roller is pushed or pulled away from the first roller by a force, it being possible for the second roller to have a first state and a second state, the second roller being locked in a first position in the first state and being moved in the second state by the force such that the distance between the first roller and the second roller changes depending on the length of the cable between the two rollers , characterized in that the second roller can be electromagnetically locked and unlocked in the first position, and in that the second roller is attached to a deflection lever , the deflection lever being rotatably fixed at an end of the deflection lever remote from the second roller , the deflection lever being connected to a movement limiting element having a compensating element for contacting a position locking element of the cable feed device such that, in the first state, the second roller can be moved a predetermined distance toward the first roller .
A controller for tracking an interventional medical device in three dimensions, comprising: a memory that stores instructions; and a processor that executes the instructions, characterised in that , when executed by the processor , the instructions cause the controller to execute a process comprising: determining (S320/S420), based on an elevation plane in an ultrasound X-plane mode, a first two-dimensional location of the interventional medical device in the elevation plane; determining (S320/S422), based on an azimuthal plane in the ultrasound X-plane mode, a second two-dimensional location of the interventional medical device in the azimuthal plane; determining (S330/S430), based on the first two-dimensional location and the second two-dimensional location, a three-dimensional location of the interventional medical device, and modifying (S340/S440) ultrasound beam patterns fired in the ultrasound X-plane mode based on the three-dimensional location of the interventional medical device. a memory that stores instructions; and a processor that executes the instructions, characterised in that , when executed by the processor , the instructions cause the controller to execute a process comprising: determining (S320/S420), based on an elevation plane in an ultrasound X-plane mode, a first two-dimensional location of the interventional medical device in the elevation plane; determining (S320/S422), based on an azimuthal plane in the ultrasound X-plane mode, a second two-dimensional location of the interventional medical device in the azimuthal plane; determining (S330/S430), based on the first two-dimensional location and the second two-dimensional location, a three-dimensional location of the interventional medical device, and modifying (S340/S440) ultrasound beam patterns fired in the ultrasound X-plane mode based on the three-dimensional location of the interventional medical device. determining (S320/S420), based on an elevation plane in an ultrasound X-plane mode, a first two-dimensional location of the interventional medical device in the elevation plane; determining (S320/S422), based on an azimuthal plane in the ultrasound X-plane mode, a second two-dimensional location of the interventional medical device in the azimuthal plane; determining (S330/S430), based on the first two-dimensional location and the second two-dimensional location, a three-dimensional location of the interventional medical device, and modifying (S340/S440) ultrasound beam patterns fired in the ultrasound X-plane mode based on the three-dimensional location of the interventional medical device.