mhurhangee/patent-ind-claim-en huggingface dataset:
A six degree-of-freedom optical tracker system , comprising: a structure adapted to be disposed on a subject and moveable to a position and orientation; a plurality of light emitting diodes, LEDs, mounted on the structure, each LED coupled to receive a drive current and configured, upon receipt of the drive current, to emit light; an LED controller coupled to the LEDs and configured to supply the drive current to each of the LEDs in a manner that causes the LEDs to sequentially and individually emit light; a position sensing device spaced apart from each of the LEDs, the position sensing device having a field of view, FOV, and configured to receive the light emitted from each of the LEDs within the FOV and to supply position data for each LED; and a processor coupled to receive the position data supplied from the position sensing device and configured, upon receipt thereof, to: (i) determine the position and orientation of the structure relative to the position sensing device, (ii) determine if one or more of the LEDs is outside of the FOV of the position sensing device, and (iii) disable the one or more LEDs determined to be outside of the FOV of the position sensing device. a structure adapted to be disposed on a subject and moveable to a position and orientation; a plurality of light emitting diodes, LEDs, mounted on the structure, each LED coupled to receive a drive current and configured, upon receipt of the drive current, to emit light; an LED controller coupled to the LEDs and configured to supply the drive current to each of the LEDs in a manner that causes the LEDs to sequentially and individually emit light; a position sensing device spaced apart from each of the LEDs, the position sensing device having a field of view, FOV, and configured to receive the light emitted from each of the LEDs within the FOV and to supply position data for each LED; and a processor coupled to receive the position data supplied from the position sensing device and configured, upon receipt thereof, to: (i) determine the position and orientation of the structure relative to the position sensing device, (ii) determine if one or more of the LEDs is outside of the FOV of the position sensing device, and (iii) disable the one or more LEDs determined to be outside of the FOV of the position sensing device. (i) determine the position and orientation of the structure relative to the position sensing device, (ii) determine if one or more of the LEDs is outside of the FOV of the position sensing device, and (iii) disable the one or more LEDs determined to be outside of the FOV of the position sensing device.
Current-carrying profile comprising an electrically insulating profile element which has grooves which extend parallel next to one another in a direction of longitudinal extent (L) of the profile element and are delimited by a pair of groove side walls and have a groove base , and comprising electrical conductors which are accommodated in the grooves of the profile element and extend parallel next to one another in the direction of longitudinal extent (L) of the profile element , characterized in that the profile element has projections on an end side, wherein the projections are designed as an extension of a groove side wall or of a group of groove side walls with an interposed groove and are designed for entering a recess on an end side of an adjoining profile element .
A method of providing through-thickness reinforcement in a laminated material , the method comprising: moving a guide foot to a datum location relative the laminated material , at which the guide foot abuts a reinforcement zone on a surface of the laminated material ; moving a carrier for the insertion element relative the guide foot to align the insertion element for insertion through the guide foot when the guide foot is at the datum location, whereby the carrier is translated relative the guide foot along a translation axis; and conducting an insertion operation by inserting an insertion element, having a principal axis which is linear, through the guide foot into the laminated material along an insertion direction when the guide foot is in the datum location, wherein the insertion element comprises: a needle for forming a hole in the laminated material ; a reinforcement rod to be received in the laminated material ; or a tamping pin for tamping a reinforcement rod received in the laminated material ; wherein the translation axis is orthogonal to the insertion direction. moving a guide foot to a datum location relative the laminated material , at which the guide foot abuts a reinforcement zone on a surface of the laminated material ; moving a carrier for the insertion element relative the guide foot to align the insertion element for insertion through the guide foot when the guide foot is at the datum location, whereby the carrier is translated relative the guide foot along a translation axis; and conducting an insertion operation by inserting an insertion element, having a principal axis which is linear, through the guide foot into the laminated material along an insertion direction when the guide foot is in the datum location, wherein the insertion element comprises: a needle for forming a hole in the laminated material ; a reinforcement rod to be received in the laminated material ; or a tamping pin for tamping a reinforcement rod received in the laminated material ; a needle for forming a hole in the laminated material ; a reinforcement rod to be received in the laminated material ; or a tamping pin for tamping a reinforcement rod received in the laminated material ; wherein the translation axis is orthogonal to the insertion direction.
A method of manufacturing a pancreatin preparation comprising the steps of: (a) pre-treating a pancreas gland or tissue with peracetic acid (PAA) in a reaction (b) processing the pancreas gland or tissue to extract the pancreatin preparation to thereby reduce a viral infectivity and reduce a bacterial count in the pancreatin preparation. (a) pre-treating a pancreas gland or tissue with peracetic acid (PAA) in a reaction (b) processing the pancreas gland or tissue to extract the pancreatin preparation to thereby reduce a viral infectivity and reduce a bacterial count in the pancreatin preparation.
A method for manufacturing a bacterium-produced cellulose carbon by carbonizing cellulose produced by bacterium by thermally treating, the method comprising: a cellulose forming step of forming bacterium-produced cellulose that cellulose nanofibers are dispersed using an acetic acid bacterium; an impregnating step of impregnating the bacterium-produced cellulose with a supercritical fluid, the fluid comprising one, two or more selected from the group consisting of carbon dioxide, water, methane, ethane, propane, ethylene, propylene, methanol, ethanol, acetone, and fluorine type liquid; a drying step of vaporizing the supercritical fluid from the bacterium-produced cellulose containing the supercritical fluid and obtaining a dry product; and a carbonizing step of heating and carbonizing the dry product in an atmosphere not causing combustion of the dry product at 500°C to 2000°C, wherein the atmosphere is an inert gas atmosphere, a carbon dioxide gas atmosphere or a carbon monoxide gas atmosphere. a cellulose forming step of forming bacterium-produced cellulose that cellulose nanofibers are dispersed using an acetic acid bacterium; an impregnating step of impregnating the bacterium-produced cellulose with a supercritical fluid, the fluid comprising one, two or more selected from the group consisting of carbon dioxide, water, methane, ethane, propane, ethylene, propylene, methanol, ethanol, acetone, and fluorine type liquid; a drying step of vaporizing the supercritical fluid from the bacterium-produced cellulose containing the supercritical fluid and obtaining a dry product; and a carbonizing step of heating and carbonizing the dry product in an atmosphere not causing combustion of the dry product at 500°C to 2000°C, wherein the atmosphere is an inert gas atmosphere, a carbon dioxide gas atmosphere or a carbon monoxide gas atmosphere.
A staple cartridge configured to be removably retained by a cartridge channel of a surgical instrument, the staple cartridge comprising: a proximal end ; a distal end ; a cartridge body ; a staple supported in the cartridge body; a sled ; a staple driver , wherein the sled is configured to deploy the staple from the cartridge body by moving the staple driver from a unfired position to a fired position; and wherein the staple cartridge is characterized by : a retaining member configured to ensure a tight attachment between the staple cartridge and a cartridge channel when the cartridge is in an unfired condition, wherein the retaining member is configured to rest against the staple driver in a biased configuration while the driver is in the unfired position, wherein the retaining member is configured to move to a less biased configuration when the staple driver is moved to the fired position to yield a reduced attachment between the fired cartridge and the cartridge channel. a proximal end ; a distal end ; a cartridge body ; a staple supported in the cartridge body; a sled ; a staple driver , wherein the sled is configured to deploy the staple from the cartridge body by moving the staple driver from a unfired position to a fired position; and wherein the staple cartridge is characterized by : a retaining member configured to ensure a tight attachment between the staple cartridge and a cartridge channel when the cartridge is in an unfired condition, wherein the retaining member is configured to rest against the staple driver in a biased configuration while the driver is in the unfired position, wherein the retaining member is configured to move to a less biased configuration when the staple driver is moved to the fired position to yield a reduced attachment between the fired cartridge and the cartridge channel.
A process of treating a single crystal silicon wafer, the process comprising: heat treating the single crystal silicon wafer in a first ambient atmosphere comprising a nitrogen-containing gas at a temperature of at least about 1100°C to increase a density of crystal lattice vacancies in a bulk region of the single crystal silicon wafer and to form a silicon nitride layer on a front surface of the single crystal silicon wafer, wherein the single crystal silicon wafer comprises two major, parallel surfaces, one of which is the front surface and one of which is a back surface, a central plane between the front surface and the back surface, a circumferential edge joining the front surface and the back surface, a front surface layer having a depth, D, measured from the front surface and toward the central plane, and wherein the bulk region is between the front surface layer and the central plane; removing the silicon nitride layer from the front surface of the single crystal silicon wafer; heat treating the single crystal silicon wafer in a second ambient atmosphere comprising oxygen and a temperature between about 900°C and about 1100 °C for a duration greater than 30 minutes to form a silicon oxide layer on the front surface of the single crystal silicon wafer having a minimum thickness of at least about 50 Ångströms; and removing the silicon oxide layer from the front surface of the single crystal silicon wafer. heat treating the single crystal silicon wafer in a first ambient atmosphere comprising a nitrogen-containing gas at a temperature of at least about 1100°C to increase a density of crystal lattice vacancies in a bulk region of the single crystal silicon wafer and to form a silicon nitride layer on a front surface of the single crystal silicon wafer, wherein the single crystal silicon wafer comprises two major, parallel surfaces, one of which is the front surface and one of which is a back surface, a central plane between the front surface and the back surface, a circumferential edge joining the front surface and the back surface, a front surface layer having a depth, D, measured from the front surface and toward the central plane, and wherein the bulk region is between the front surface layer and the central plane; removing the silicon nitride layer from the front surface of the single crystal silicon wafer; heat treating the single crystal silicon wafer in a second ambient atmosphere comprising oxygen and a temperature between about 900°C and about 1100 °C for a duration greater than 30 minutes to form a silicon oxide layer on the front surface of the single crystal silicon wafer having a minimum thickness of at least about 50 Ångströms; and removing the silicon oxide layer from the front surface of the single crystal silicon wafer.
A shoe upper comprising: an eyestay ; a footbed coupling portion ; an outer layer having an inner surface and an outer surface ; and a floating textile layer having an inner surface and an outer surface , the outer surface of the floating textile layer being fixedly coupled with the inner surface of the outer layer at the eyestay and at the footbed coupling portion , wherein an apparent elongation of the floating textile layer is less than an apparent elongation of the outer layer in response to an equal tensile force applied to each of the floating textile layer and the outer layer along a same axis of orientation, characterized in that the floating textile layer comprises a quad-axial material, having a low apparent elongation in the direction of each of four axes, or a tri-axial material, having a low apparent elongation in the direction of each of three axes, and that the floating textile layer is constructed to orient one of the directions of low apparent elongation such that it extends between the eyestay and the footbed coupling portion .
A computer-implemented method comprising: determining a first subset of a plurality of software sample feature sets associated with classification values generated by a first malware detection model that are within a range of values; inputting the first subset of software sample feature sets into a second malware detection model; tuning the range of values based, at least in part, on false positives of classifications by the second malware detection model of the first subset of software sample feature sets; and indicating the first and the second malware detection models together for malware detection with the tuned range of values, wherein malware detection is based on output of the second malware detection model if output of the first malware detection model is within the tuned range of values and malware detection is based on output of the first malware detection model if output of the first malware detection model is outside of the tuned range of values. inputting the first subset of software sample feature sets into a second malware detection model; tuning the range of values based, at least in part, on false positives of classifications by the second malware detection model of the first subset of software sample feature sets; and indicating the first and the second malware detection models together for malware detection with the tuned range of values, wherein malware detection is based on output of the second malware detection model if output of the first malware detection model is within the tuned range of values and malware detection is based on output of the first malware detection model if output of the first malware detection model is outside of the tuned range of values.
Thermostat valve , including - a valve element moveable relative to a valve seat to adjust a valve opening to regulate a fluid flow, - wherein a valve pin is arranged to act on said valve element , said valve pin protruding out of said valve and being arranged movable in a longitudinal direction (X) within a stuffing box , - wherein said stuffing box is mounted to said valve by axially abutting against a stop element secured by a removable mounting element , - wherein said stuffing box comprises an inner seal provided between the valve pin and the stuffing box , - wherein said stuffing box further comprises an outer seal provided between the stuffing box and a valve insert , characterized in that, - said removable mounting element comprises a holding flange, wherein the holding flange abuts against a holding ring in said longitudinal direction (X), - and said holding ring abuts against said stuffing box in said longitudinal direction, wherein said stuffing box is arranged within said holding ring . - a valve element moveable relative to a valve seat to adjust a valve opening to regulate a fluid flow, - wherein a valve pin is arranged to act on said valve element , said valve pin protruding out of said valve and being arranged movable in a longitudinal direction (X) within a stuffing box , - wherein said stuffing box is mounted to said valve by axially abutting against a stop element secured by a removable mounting element , - wherein said stuffing box comprises an inner seal provided between the valve pin and the stuffing box , - wherein said stuffing box further comprises an outer seal provided between the stuffing box and a valve insert , characterized in that, - said removable mounting element comprises a holding flange, wherein the holding flange abuts against a holding ring in said longitudinal direction (X), - and said holding ring abuts against said stuffing box in said longitudinal direction, wherein said stuffing box is arranged within said holding ring .
A fuel economy display control method for a hybrid vehicle in which driving electric power supplied to a travel motor from a battery is generated by an engine , the fuel economy display control method being executed in a series hybrid mode in which the hybrid vehicle travels only with driving force of the travel motor without using the engine as a traveling driving source, the fuel economy display control method comprising: an electric power economy computation step in which instantaneous electric power economy according to an output of the travel motor is computed; and a display step in which the instantaneous fuel economy is displayed on a display device arranged inside a vehicle cabin, characterized by a fuel economy computation step in which instantaneous fuel economy is computed by correcting the instantaneous electric power economy in accordance with an operating state set for the engine . an electric power economy computation step in which instantaneous electric power economy according to an output of the travel motor is computed; and a display step in which the instantaneous fuel economy is displayed on a display device arranged inside a vehicle cabin, characterized by a fuel economy computation step in which instantaneous fuel economy is computed by correcting the instantaneous electric power economy in accordance with an operating state set for the engine .
A communication link establishment method, wherein the method comprises: establishing (S301), by a smart wearable device, a connection to a base station of a cellular network via a relay device; and determining (S303, S601), by the smart wearable device, link configuration information, and establishing (S303, S 602), based on the link configuration information, a first communication link with the relay device having a second communication link with the base station; wherein the first communication link is a Wireless Fidelity, WiFi, communication link based on a first packet defining protocol and the second communication link is a cellular link based on a cellular network, second packet defining protocol; wherein the first communication link between the smart wearable device and the relay device and the second communication link between the relay device and the base station are both used by the smart wearable device to transmit a packet from the smart wearable device to the base station; wherein in a process in which the smart wearable device transmits a packet to the base station, the smart wearable device and the relay device both have a packet conversion function, and the packet conversion function is to convert the packet between the first packet defining protocol and the second packet defining protocol. establishing (S301), by a smart wearable device, a connection to a base station of a cellular network via a relay device; and determining (S303, S601), by the smart wearable device, link configuration information, and establishing (S303, S 602), based on the link configuration information, a first communication link with the relay device having a second communication link with the base station; wherein the first communication link is a Wireless Fidelity, WiFi, communication link based on a first packet defining protocol and the second communication link is a cellular link based on a cellular network, second packet defining protocol; wherein the first communication link between the smart wearable device and the relay device and the second communication link between the relay device and the base station are both used by the smart wearable device to transmit a packet from the smart wearable device to the base station; wherein in a process in which the smart wearable device transmits a packet to the base station, the smart wearable device and the relay device both have a packet conversion function, and the packet conversion function is to convert the packet between the first packet defining protocol and the second packet defining protocol.
An imaging apparatus mountable on a moveable apparatus, comprising: a plurality of lighting-imaging units , each configured to capture an image of a different area on an object in a direction intersecting with a movement direction of the moveable apparatus, wherein each of the plurality of lighting-imaging units includes a light source unit configured to illuminate a partial area on the object as a lighting area; and an image capture unit configured to capture an image of an image capture area set within the lighting area, wherein the plurality of capture units are adjusted to capture an image of a non-overlapped lighting area on the object where the lighting areas of each of the plurality of lighting-imaging units do not overlap with the lighting areas of the others of the plurality of lighting-imaging units ; and characterised in that each of the plurality of lighting-imaging units includes a plurality of light source units , and each of the plurality of light source units in each given lighting-imaging unit is adjusted to overlap the lighting areas of the projection light emitted from the others of the plurality of light source units in the given lighting-imaging unit . a plurality of lighting-imaging units , each configured to capture an image of a different area on an object in a direction intersecting with a movement direction of the moveable apparatus, wherein each of the plurality of lighting-imaging units includes a light source unit configured to illuminate a partial area on the object as a lighting area; and an image capture unit configured to capture an image of an image capture area set within the lighting area, wherein the plurality of capture units are adjusted to capture an image of a non-overlapped lighting area on the object where the lighting areas of each of the plurality of lighting-imaging units do not overlap with the lighting areas of the others of the plurality of lighting-imaging units ; and characterised in that each of the plurality of lighting-imaging units includes a plurality of light source units , and each of the plurality of light source units in each given lighting-imaging unit is adjusted to overlap the lighting areas of the projection light emitted from the others of the plurality of light source units in the given lighting-imaging unit .