mhurhangee/patent-ind-claim-en huggingface dataset:
A single piece bandage for a patient monitoring system , comprising: an upper bandage portion ; a lower bandage portion ; an adhesive configured to secure at least one of a pulse oximetry light emitting diode, LED, or a detector at an installation position between the upper bandage portion and the lower bandage portion ; and a releasable liner provided between the upper and lower bandage portions to facilitate folding back of the upper bandage portion relative to the lower bandage portion , further wherein the upper bandage portion is configured to fold back down over at least one of the LED or detector inserted between the lower bandage portion and the upper bandage portion , wherein the releasable liner is configured so that removal of the releasable liner exposes the adhesive, the upper and lower bandage portions form a leaflet configured to open by the folding back of the upper bandage portion to permit installation of the pulse oximetry LED or detector and subsequently to close by replacement of the upper bandage portion over the pulse oximetry LED or detector to complete manufacture or re-manufacture of a sensor, characterized in that the bandage further includes a shielding member at the installation position, wherein the shielding member is upper metalized tape positioned on the upper bandage portion and lower metalized tape positioned on the lower bandage portion . an upper bandage portion ; a lower bandage portion ; an adhesive configured to secure at least one of a pulse oximetry light emitting diode, LED, or a detector at an installation position between the upper bandage portion and the lower bandage portion ; and a releasable liner provided between the upper and lower bandage portions to facilitate folding back of the upper bandage portion relative to the lower bandage portion , further wherein the upper bandage portion is configured to fold back down over at least one of the LED or detector inserted between the lower bandage portion and the upper bandage portion , wherein the releasable liner is configured so that removal of the releasable liner exposes the adhesive, the upper and lower bandage portions form a leaflet configured to open by the folding back of the upper bandage portion to permit installation of the pulse oximetry LED or detector and subsequently to close by replacement of the upper bandage portion over the pulse oximetry LED or detector to complete manufacture or re-manufacture of a sensor, characterized in that the bandage further includes a shielding member at the installation position, wherein the shielding member is upper metalized tape positioned on the upper bandage portion and lower metalized tape positioned on the lower bandage portion .
Soil processing device, in particular plow, with an attachment device for attachment to a lower link of a tractor , as well as a chassis for supporting the soil processing device on the ground, wherein a working depth of the soil processing device can be set by chassis height adjustment means for the height adjustment of the chassis and lower link height adjustment means for the height adjustment of the lower links , characterized in that cutting control means for automatically actuating the lower link and chassis height adjustment means are provided in a way offset to each other and are configured in such a manner that, in the lowering of the soil processing device from the headland position into the operating position and/or in the lifting of the soil processing device out of the operating position into the headland position, the lifting process at the lower links and the lifting process at the chassis are started and performed temporally offset to one another so that, upon lowering, after the headland, rear-sided soil processing tools dive into a soil area, in which previously the front-sided soil processing toils dived into; and/or, upon lifting, on the headland, rear-sided soil processing tools are lifted out in a soil area, in which front-sided soil processing tools also have previously been lifted out of.
A wearable optics device comprising: a lens; one or more projectors; a dynamic eye tracking mechanism coupled to the lens, the dynamic eye tracking mechanism including a camera mounted on the wearable optics device and directed to sense features of the wearer, the dynamic eye tracking mechanism being responsive to an iris/pupil contraction; and controlling a display on the lens, to provide shading control on the wearable optics device, wherein shading control is provided by projecting an occlusion effect on the lens, and wherein the shading control is controlled using the iris/pupil contraction. a lens; one or more projectors; a dynamic eye tracking mechanism coupled to the lens, the dynamic eye tracking mechanism including a camera mounted on the wearable optics device and directed to sense features of the wearer, the dynamic eye tracking mechanism being responsive to an iris/pupil contraction; and
Washing equipment for a vehicle , comprising: - at least one gantry defining a track for the vehicle , - at least one nozzle supported by the gantry and intended to spray a cleaning liquid on the vehicle , and - means able to create a helical rotational movement of the cleaning liquid relative to the gantry , characterized in that the means able to create a helical rotational movement are suitable for ensuring the rotation of the cleaning liquid around the axis of the stream of cleaning liquid leaving the nozzle . - at least one gantry defining a track for the vehicle , - at least one nozzle supported by the gantry and intended to spray a cleaning liquid on the vehicle , and - means able to create a helical rotational movement of the cleaning liquid relative to the gantry ,
A vapour generating device for generating a vapour to be inhaled by a user by inductively heating a vaporisable substance comprising: an induction heating assembly comprising an induction coil , a rechargeable power source and an induction controller , wherein said induction coil is substantially cylindrical in shape and wherein said induction controller is capable of being manually operated by a user to select a heat setting for adjusting a current through the induction coil , the vapour generating device further comprising a heating compartment configured to receive a body of a vaporisable substance wrapped in paper substantially in the shape of a stick to be heated, said heating compartment being at least in part contained in the volume of the induction coil , and an air inlet positioned adjacent to said heating compartment and providing air from the surrounding environment to said heating compartment . an induction heating assembly comprising an induction coil , a rechargeable power source and an induction controller , wherein said induction coil is substantially cylindrical in shape and wherein said induction controller is capable of being manually operated by a user to select a heat setting for adjusting a current through the induction coil , the vapour generating device further comprising a heating compartment configured to receive a body of a vaporisable substance wrapped in paper substantially in the shape of a stick to be heated, said heating compartment being at least in part contained in the volume of the induction coil , and an air inlet positioned adjacent to said heating compartment and providing air from the surrounding environment to said heating compartment .
A policy control function network element selection method, comprising: receiving , by a first access and mobility management function network element, a registration request message of a terminal device, wherein the registration request message comprises an identifier of the terminal device; obtaining , by the first access and mobility management function network element based on the identifier of the terminal device, an identifier of a policy control function network element currently serving the terminal device and a network identifier of the policy control function network element; and when a network identifier of the first access and mobility management function network element is consistent with the network identifier of the policy control function network element, determining , by the first access and mobility management function network element, that the policy control function network element is a target policy control function network element. receiving , by a first access and mobility management function network element, a registration request message of a terminal device, wherein the registration request message comprises an identifier of the terminal device; obtaining , by the first access and mobility management function network element based on the identifier of the terminal device, an identifier of a policy control function network element currently serving the terminal device and a network identifier of the policy control function network element; and when a network identifier of the first access and mobility management function network element is consistent with the network identifier of the policy control function network element, determining , by the first access and mobility management function network element, that the policy control function network element is a target policy control function network element.
A method comprising: receiving microseismic data of microseismic events as acquired by sensors during hydraulic fracturing of a geologic region ; jointly calibrating sensor orientation of the sensors and a velocity model of the geologic region via an objective function and the microseismic data , and based at least in part on the jointly calibrating, adjusting an orientation of at least one of the sensors; and based at least in part on the jointly calibrating and the adjusted orientation of at least one of the sensors, determining one or more locations of the one or more microseismic events . receiving microseismic data of microseismic events as acquired by sensors during hydraulic fracturing of a geologic region ; jointly calibrating sensor orientation of the sensors and a velocity model of the geologic region via an objective function and the microseismic data , and based at least in part on the jointly calibrating, adjusting an orientation of at least one of the sensors; and based at least in part on the jointly calibrating and the adjusted orientation of at least one of the sensors, determining one or more locations of the one or more microseismic events .
Rail vehicle having a vehicle unit (12.1) which has operating means subsystems that comprise an operating means or a set of operating means which are assigned to a common task in the operation of the rail vehicle, and having a guide system comprising a first guide system level , in which operating means subsystems are networked with one another by means of a digital data bus structure , and at least one second guide system level which has at least one line set assigned to the analogue handling of processes in operating means subsystems , characterised in that the vehicle unit (12.1) comprises a guide system interface device which has a first interface unit assigned to the data bus structure , at least one second interface unit assigned to the line set , and a control unit which in at least one operating mode is provided for handling the processes by way of the second interface unit . characterised in that the vehicle unit (12.1) comprises a guide system interface device which has a first interface unit assigned to the data bus structure , at least one second interface unit assigned to the line set , and a control unit which in at least one operating mode is provided for handling the processes by way of the second interface unit .
An airfoil (62; 162; 262), optionally a turbine blade (62-1), for a gas turbine engine comprising: an airfoil section (62A; 162A; 262A) extending in a radial direction (R) from a root section (62R; 162R) to a tip portion (62T; 162T; 262T), the airfoil section (62A; 162A; 262A) having an external wall and an internal wall , the external wall defining pressure and suction sides (62P, 62S; 162P, 162S) extending in a chordwise direction (X) between a leading edge (62LE; 162LE; 262LE) and a trailing edge (62TE; 162TE; 262TE), and the pressure and suction sides (62P, 62S;162P, 162S) spaced apart in a thickness direction (T) between the leading edge (62LE; 162LE; 262LE) and the trailing edge (62TE; 162TE; 262TE), wherein the airfoil section (62A; 162A; 262A) establishes an internal cooling arrangement (164; 264) comprising: a first cooling passage including a first section (170A; 270A) and a tip flag section (170B; 270B), the first section (170A; 270A) extending in the radial direction (R) from the root section (62R; 162R), and the tip flag section (170B; 270B) extending in the chordwise direction (X) along the tip portion (62T; 162T; 262T) from the first section (170A; 270A) to the trailing edge (62TE; 162TE; 262TE), characterised in that : the first section (170A; 270A) includes a plurality of branched paths established by at least one turning vane (174; 274) that interconnects the internal wall and the external wall , the at least one turning vane (174; 274) having an arcuate profile and arranged such that the plurality of branched paths (171; 271) join together along the tip flag section (170B; 270B); and the internal wall extends in the chordwise direction (X) such that the plurality of branched paths (171; 271) are bounded in the thickness direction (T) between the internal wall and the external wall adjacent the at least one turning vane (174; 274). the first section (170A; 270A) includes a plurality of branched paths established by at least one turning vane (174; 274) that interconnects the internal wall and the external wall , the at least one turning vane (174; 274) having an arcuate profile and arranged such that the plurality of branched paths (171; 271) join together along the tip flag section (170B; 270B); and the internal wall extends in the chordwise direction (X) such that the plurality of branched paths (171; 271) are bounded in the thickness direction (T) between the internal wall and the external wall adjacent the at least one turning vane (174; 274).
The use of a copolymer consisting of N-isopropylacrylamide units, methacrylic acid units and optionally at least one cross-linking agent as a soil-release active ingredient in textile care products for textiles.
A vertical position and velocity determination system for inertial measurement unit, IMU, integrated with a barometric altimeter in the same device, IMU-baro, the system comprising: a rate of turn input connected to receive a measured IMU-baro orientation; an acceleration input connected to receive a measured IMU-baro acceleration; a barometric pressure input connected to receive a measured IMU-baro altitude; a first Kalman filter connected to the rate of turn input and to the acceleration input to estimate a roll and pitch of the IMU-baro based on the measured IMU-baro orientation and the measured IMU-baro acceleration; a second Kalman filter connected to the acceleration input, to the barometric pressure input, and to the first Kalman filter; the second Kalman filter cascaded with the first Kalman filter to receive the estimated roll and pitch angles of the IMU-baro from the first Kalman filter and to estimate vertical position and vertical velocity of the IMU-baro based on the measured IMU-baro acceleration, the measured barometric pressure using barometric altimeter, and the estimated roll and pitch of the IMU-baro. a rate of turn input connected to receive a measured IMU-baro orientation; an acceleration input connected to receive a measured IMU-baro acceleration; a barometric pressure input connected to receive a measured IMU-baro altitude; a first Kalman filter connected to the rate of turn input and to the acceleration input to estimate a roll and pitch of the IMU-baro based on the measured IMU-baro orientation and the measured IMU-baro acceleration; a second Kalman filter connected to the acceleration input, to the barometric pressure input, and to the first Kalman filter; the second Kalman filter cascaded with the first Kalman filter to receive the estimated roll and pitch angles of the IMU-baro from the first Kalman filter and to estimate vertical position and vertical velocity of the IMU-baro based on the measured IMU-baro acceleration, the measured barometric pressure using barometric altimeter, and the estimated roll and pitch of the IMU-baro.
A sheet-processing machine comprising: a sheet transport device having a sheet conveyor system receiving sheets from a sheet-guiding cylinder ; a gripping device for the clamped fixing and transporting of a front edge of a sheet; and at least two peripheral sheet support segments simultaneously holding the sheet on the lateral cylinder surface of the sheet-guiding cylinder , wherein the sheet support segments carry support elements mechanically contacting the sheet, wherein the support elements are displaceably accommodated and wherein the support elements of a respective sheet support segment are displaceably mounted in or against the sheet conveying direction (BFR) for adjustment, characterized in that the support elements are each assigned to a traction means , wherein each support element is assigned to a chain link of a chain connected the support elements .
A three-dimensional shaping device, comprising: a melting unit configured to plasticize a material into a shaping material; a nozzle configured to discharge the shaping material toward a stage ; a moving mechanism configured to change a relative position between the nozzle and the stage ; a control unit configured to control the moving mechanism ; and an air blowing unit having a plurality of air outlets that are disposed around the nozzle and through which warm air is blown toward the shaping material discharged from the nozzle ; wherein the air blowing unit includes: an annular flow path that is an annular flow path centered on the nozzle and communicates with the air outlets to supply the warm air to the air outlets ; and a warm air supply port through which the warm air is supplied to the annular flow path ; characterized in that the three-dimensional shaping device comprises a heat insulating portion provided between the nozzle and the annular flow path . a melting unit configured to plasticize a material into a shaping material; a nozzle configured to discharge the shaping material toward a stage ; a moving mechanism configured to change a relative position between the nozzle and the stage ; a control unit configured to control the moving mechanism ; and an air blowing unit having a plurality of air outlets that are disposed around the nozzle and through which warm air is blown toward the shaping material discharged from the nozzle ; wherein the air blowing unit includes: an annular flow path that is an annular flow path centered on the nozzle and communicates with the air outlets to supply the warm air to the air outlets ; and a warm air supply port through which the warm air is supplied to the annular flow path ; characterized in that the three-dimensional shaping device comprises an annular flow path that is an annular flow path centered on the nozzle and communicates with the air outlets to supply the warm air to the air outlets ; and a warm air supply port through which the warm air is supplied to the annular flow path ; characterized in that the three-dimensional shaping device comprises a heat insulating portion provided between the nozzle and the annular flow path .
A system , comprising: a computing device having a display; an instruction interface configured to receive an instruction from a user to restrict access to user data stored on the computing device; and a transmission interface configured to wirelessly transmit a computing command executable by the computing device, wherein the computing command is generated in response to the instruction to restrict access to the user data, wherein execution of the computing command results in the computing device carrying out the restriction of the accessibility to the user data, the computing command being executed regardless of whether the computing device is connected to a service network, wherein execution of the computing command results in the computing device locking the user data from being accessible through use of the computing device and wherein a phone functionality of the computing device is accessible during a restriction of the accessibility to the user data by locking the user data from being accessible through use of the computing device, the phone functionality comprising dialling a user-specified phone number, wherein the user-specified phone number is received with the instruction. a computing device having a display; an instruction interface configured to receive an instruction from a user to restrict access to user data stored on the computing device; and a transmission interface configured to wirelessly transmit a computing command executable by the computing device, wherein the computing command is generated in response to the instruction to restrict access to the user data, wherein execution of the computing command results in the computing device carrying out the restriction of the accessibility to the user data, the computing command being executed regardless of whether the computing device is connected to a service network, wherein execution of the computing command results in the computing device locking the user data from being accessible through use of the computing device and wherein a phone functionality of the computing device is accessible during a restriction of the accessibility to the user data by locking the user data from being accessible through use of the computing device, the phone functionality comprising dialling a user-specified phone number, wherein the user-specified phone number is received with the instruction.