mhurhangee/patent-ind-claim-en huggingface dataset:
A system comprising: a first bone fixation device ; an instrument fixture ; a shape sensor reference fixture ; and a closed-chain sensor system including a first optical fiber shape sensor device configured to couple between the shape sensor reference fixture and the first bone fixation device , the first optical fiber shape sensor configured to provide first shape data for determining a pose of the first bone fixation device relative to the shape sensor reference fixture; a second optical fiber shape sensor device configured to couple between the shape sensor reference fixture and the instrument fixture coupled to a medical instrument, the second optical fiber shape sensor configured to provide second shape data for determining a first pose of the instrument fixture relative to the shape sensor reference fixture; a third optical fiber shape sensor device configured to couple between the first bone fixation device and the instrument fixture , the third optical fiber shape sensor configured to provide third shape data for determining a second pose of the instrument fixture relative to the shape sensor reference fixture ; and a control system configured to combine the first pose and the second pose of the instrument fixture to determine a refined pose of the instrument fixture relative to the shape sensor reference fixture . a first bone fixation device ; an instrument fixture ; a shape sensor reference fixture ; and a closed-chain sensor system including a first optical fiber shape sensor device configured to couple between the shape sensor reference fixture and the first bone fixation device , the first optical fiber shape sensor configured to provide first shape data for determining a pose of the first bone fixation device relative to the shape sensor reference fixture; a second optical fiber shape sensor device configured to couple between the shape sensor reference fixture and the instrument fixture coupled to a medical instrument, the second optical fiber shape sensor configured to provide second shape data for determining a first pose of the instrument fixture relative to the shape sensor reference fixture; a third optical fiber shape sensor device configured to couple between the first bone fixation device and the instrument fixture , the third optical fiber shape sensor configured to provide third shape data for determining a second pose of the instrument fixture relative to the shape sensor reference fixture ; and a control system configured to combine the first pose and the second pose of the instrument fixture to determine a refined pose of the instrument fixture relative to the shape sensor reference fixture .
A self-disinfecting partition system comprising: a housing ; an attachment element configured to couple the housing to a seat comprising one or more apertures configured to accept one or more supports; an extension assembly coupled to the housing and the attachment element, comprising: the one or more supports coupled to the housing and configured to slide within the one or more apertures, wherein sliding of the one or more supports within the one or more apertures adjusts a distance of the housing from the seat; and a lock coupled to the attachment element and operationally coupled to the one or more supports and the one or more apertures; wherein the lock is configured upon activation to restrict a movement of the one or more supports relative to the one or more apertures; a flexible screen configured to block a transmission of microbes, and further configured to deploy from a retracted position within the housing to a deployed position; and one or more electromagnetic energy sources disposed within the housing configured to emit electromagnetic energy onto the flexible screen when the flexible screen is configured in the retracted position, wherein the electromagnetic energy is configured to disinfect the flexible screen. a housing ; an attachment element configured to couple the housing to a seat comprising one or more apertures configured to accept one or more supports; an extension assembly coupled to the housing and the attachment element, comprising: the one or more supports coupled to the housing and configured to slide within the one or more apertures, wherein sliding of the one or more supports within the one or more apertures adjusts a distance of the housing from the seat; and a lock coupled to the attachment element and operationally coupled to the one or more supports and the one or more apertures; wherein the lock is configured upon activation to restrict a movement of the one or more supports relative to the one or more apertures; the one or more supports coupled to the housing and configured to slide within the one or more apertures, wherein sliding of the one or more supports within the one or more apertures adjusts a distance of the housing from the seat; and a lock coupled to the attachment element and operationally coupled to the one or more supports and the one or more apertures; wherein the lock is configured upon activation to restrict a movement of the one or more supports relative to the one or more apertures; a flexible screen configured to block a transmission of microbes, and further configured to deploy from a retracted position within the housing to a deployed position; and one or more electromagnetic energy sources disposed within the housing configured to emit electromagnetic energy onto the flexible screen when the flexible screen is configured in the retracted position, wherein the electromagnetic energy is configured to disinfect the flexible screen.
A method of manufacturing a ring pull crown , the method comprising the steps of: - forming a plurality of crown bodies from a first source material ; - forming a plurality of pull ring and tab assemblies from a second source material ; characterized in that the method comprises: - forming a plurality of ring pull crowns by combining each crown body of the plurality of crown bodies with a corresponding pull ring and tab assembly from the plurality of pull ring and tab assemblies; - forming a circumferential skirt that descends below a top of each ring pull crown; and - removing the plurality of ring pull crowns from the first source material. - forming a plurality of crown bodies from a first source material ; - forming a plurality of pull ring and tab assemblies from a second source material ; - forming a plurality of ring pull crowns by combining each crown body of the plurality of crown bodies with a corresponding pull ring and tab assembly from the plurality of pull ring and tab assemblies; - forming a circumferential skirt that descends below a top of each ring pull crown; and - removing the plurality of ring pull crowns from the first source material.
An optical element for a lighting device, the optical element comprising a body capable of conducting light, wherein the body comprises: - a light incoupling surface to receive light from a light-emitting element of the lighting device; - a light outcoupling surface ; and - side faces situated opposite to each other and extending from the light incoupling surface to the light outcoupling surface ; - wherein at least one of the side faces has an aspherical shape at least in sections, wherein the at least one side face having the aspherical shape is capable of focussing light originating from a first point on the light incoupling surface to a second point on the light outcoupling surface by internal reflection at least in the sections, characterized in that the first point is located near an edge of the light incoupling surface . - a light incoupling surface to receive light from a light-emitting element of the lighting device; - a light outcoupling surface ; and - side faces situated opposite to each other and extending from the light incoupling surface to the light outcoupling surface ; - wherein at least one of the side faces has an aspherical shape at least in sections,
A method for establishing an efficient grounding of an installation, such as an antenna installation or a teleinstallation, comprising: providing one or more cables, each cable comprising an inner core which is wholly or partly surrounded by an outer layer , wherein the inner core consists of 370 electrically conductive twisted wires, and wherein the outer layer consists of 18 electrically conductive wires; providing one or more bores in ground, each bore having a depth of more than 200 m; and laying one or more cables in one and the same bore or in each separate bore; grounding, by electrically connecting the one or more cables to a ground rail, a ground conductor or a ground point. providing one or more cables, each cable comprising an inner core which is wholly or partly surrounded by an outer layer , wherein the inner core consists of 370 electrically conductive twisted wires, and wherein the outer layer consists of 18 electrically conductive wires; providing one or more bores in ground, each bore having a depth of more than 200 m; and laying one or more cables in one and the same bore or in each separate bore; grounding, by electrically connecting the one or more cables to a ground rail, a ground conductor or a ground point.
Tape dispenser , in particular an adhesive tape dispenser - having a tape roll receiving region which is formed by two dispenser parts , which can be fitted one inside the other, and which comprises a cylindrical guide surface ; and - having a releasable fastening device for fixing the dispenser parts to one another, - wherein the guide surface , at its end edges , comprises a respective holding ring (9 and 10 respectively) protruding beyond the guide surface , - wherein the fastening device comprises a plurality of legs which are disposed on the first dispenser part and comprise the latching lugs at their free ends , which, in the fixing condition (F), latch into latching recesses of the second dispenser part , and wherein the first dispenser part comprises one of the holding rings and a guide ring disposed at least substantially perpendicularly on the holding ring , characterised in that - a guide channel (25, 26 and 27 respectively) issuing respectively from the latching recesses (20, 21 and 22 respectively) is disposed in an inner peripheral wall of the second dispenser part , - in the fixing condition (F), the guide ring engages in a flush manner into an associated guide groove of the inner peripheral wall of the second dispenser part , and - the guide channels (25, 26 and 27 respectively) have the same depth as the guide groove . - having a tape roll receiving region which is formed by two dispenser parts , which can be fitted one inside the other, and which comprises a cylindrical guide surface ; and - having a releasable fastening device for fixing the dispenser parts to one another, - wherein the guide surface , at its end edges , comprises a respective holding ring (9 and 10 respectively) protruding beyond the guide surface , - wherein the fastening device comprises a plurality of legs which are disposed on the first dispenser part and comprise the latching lugs at their free ends , which, in the fixing condition (F), latch into latching recesses of the second dispenser part , and wherein the first dispenser part comprises one of the holding rings and a guide ring disposed at least substantially perpendicularly on the holding ring , characterised in that - a guide channel (25, 26 and 27 respectively) issuing respectively from the latching recesses (20, 21 and 22 respectively) is disposed in an inner peripheral wall of the second dispenser part , - in the fixing condition (F), the guide ring engages in a flush manner into an associated guide groove of the inner peripheral wall of the second dispenser part , and - the guide channels (25, 26 and 27 respectively) have the same depth as the guide groove .
A method for manufacturing a composite component , the method comprising: placing a first vessel having a preform disposed therein into a chamber defined by a thermal system ; compacting, by the thermal system , the preform within the first vessel at an elevated temperature and an elevated pressure to transition the preform to a green-state part ; removing the green-state part from the first vessel ; placing a second vessel having the green-state part disposed therein into the chamber of the thermal system ; burning out, by the thermal system , the green-state part within the second vessel at an elevated temperature and under vacuum to transition the green-state part to a burnt-out part ; removing the burnt-out part from the second vessel ; placing a third vessel having the burnt-out part disposed therein into the chamber of the thermal system ; and densifying, by the thermal system , the burnt-out part within the third vessel at an elevated temperature and under vacuum to transition the burnt-out part to the composite component . placing a first vessel having a preform disposed therein into a chamber defined by a thermal system ; compacting, by the thermal system , the preform within the first vessel at an elevated temperature and an elevated pressure to transition the preform to a green-state part ; removing the green-state part from the first vessel ; placing a second vessel having the green-state part disposed therein into the chamber of the thermal system ; burning out, by the thermal system , the green-state part within the second vessel at an elevated temperature and under vacuum to transition the green-state part to a burnt-out part ; removing the burnt-out part from the second vessel ; placing a third vessel having the burnt-out part disposed therein into the chamber of the thermal system ; and densifying, by the thermal system , the burnt-out part within the third vessel at an elevated temperature and under vacuum to transition the burnt-out part to the composite component .
Gripping device with sliders carrying moveable gripping elements , wherein the sliders are consecutively guided in a drivable manner via an actuator in the gripping direction of the gripping elements in a guide groove arranged in a base body parallel to the gripping direction that is open toward the gripping elements (1, 2,) at least in sections - between an open and closed position - and are supportively mounted perpendicular to the gripping direction on all sides. - wherein, between the sliders , a double slide wedge member coupling these is arranged, which is moveably hinged on a moveable part of the actuator perpendicular to the gripping direction , - wherein the sliders each comprise, in the front surfaces facing one another, a T-shaped groove , into which a T-shaped sliding block protruding from the double slide wedge member respectively engages, - wherein the T-shaped sliding blocks are each formed or arranged on a central base body of the double slide wedge member via a sliding block holding bar , - wherein the guide longitudinal directions of the T-shaped grooves form an angle of 45 to 122 degrees and - wherein all outer notches of the T-shaped sliding blocks and the transition points between the T-shaped sliding blocks and the base body are rounded - for the reduction of the notch stress of the double slide wedge member , - wherein the outer notches and the transition points of the double slide wedge member each have a curved circular-arc contour, characterized in that their radius has a value that, on the one hand, lies between half of the bar width and one seventh of the bar width of the sliding block holding bar and, on the other hand, lies between one third and one seventh of the depth of the block depth of the T-shaped sliding block . - wherein, between the sliders , a double slide wedge member coupling these is arranged, which is moveably hinged on a moveable part of the actuator perpendicular to the gripping direction , - wherein the sliders each comprise, in the front surfaces facing one another, a T-shaped groove , into which a T-shaped sliding block protruding from the double slide wedge member respectively engages, - wherein the T-shaped sliding blocks are each formed or arranged on a central base body of the double slide wedge member via a sliding block holding bar , - wherein the guide longitudinal directions of the T-shaped grooves form an angle of 45 to 122 degrees and - wherein all outer notches of the T-shaped sliding blocks and the transition points between the T-shaped sliding blocks and the base body are rounded - for the reduction of the notch stress of the double slide wedge member , - wherein the outer notches and the transition points of the double slide wedge member each have a curved circular-arc contour, characterized in that their radius has a value that, on the one hand, lies between half of the bar width and one seventh of the bar width of the sliding block holding bar and, on the other hand, lies between one third and one seventh of the depth of the block depth of the T-shaped sliding block .
A method of providing an edge sealing of a glass material in the process of providing a glass sheet assembly for a vacuum insulated glass (VIG) unit comprising paired glass sheets separated by support structures maintaining a gap between said paired glass sheets , wherein the method comprises: providing one or more tempered glass sheets , heating a glass material to soften the glass material , applying the heated, softened glass material at said one or more glass sheets by means of a nozzle to provide an edge sealing for sealing the gap between the paired glass sheets , by means of one or more heaters locally heating a zone of the tempered glass sheet or sheets where the heated, softened glass material is applied to provide the edge sealing , so as to increase the temperature of said zone compared to the surrounding part of the glass sheet or sheets comprising the heated zone , wherein said local heating of the zone is provided prior to applying said heated, softened glass material for the edge sealing , and wherein the heated, softened glass material is applied at the heated zone, and wherein the glass material is heated to a temperature above 300°C by means of one or more heating arrangements and applied at substantially that temperature (T2). providing one or more tempered glass sheets , heating a glass material to soften the glass material , applying the heated, softened glass material at said one or more glass sheets by means of a nozzle to provide an edge sealing for sealing the gap between the paired glass sheets , by means of one or more heaters locally heating a zone of the tempered glass sheet or sheets where the heated, softened glass material is applied to provide the edge sealing , so as to increase the temperature of said zone compared to the surrounding part of the glass sheet or sheets comprising the heated zone , wherein said local heating of the zone is provided prior to applying said heated, softened glass material for the edge sealing , and wherein the heated, softened glass material is applied at the heated zone, and wherein the glass material is heated to a temperature above 300°C by means of one or more heating arrangements and applied at substantially that temperature (T2).
A tip of a blade body of an aerodynamic blade , the tip being rotatable about a rotational axis (A) and comprising: a light module configured to activate in response to rotations of the tip about the rotational axis to emit light visible at an exterior of the blade body; the tip characterized by comprising inboard and outboard blade structures, the inboard blade structure having an outboard side adjacent to the light module; a securing feature interposed between the light module and the outboard blade structure; and sheaths partially covering upper and lower surfaces of the inboard and outboard blade structures, the light module and the securing feature, the sheaths defining slots and the light module comprising lenses protruding through the slots. a light module configured to activate in response to rotations of the tip about the rotational axis to emit light visible at an exterior of the blade body; the tip characterized by comprising inboard and outboard blade structures, the inboard blade structure having an outboard side adjacent to the light module; a securing feature interposed between the light module and the outboard blade structure; and sheaths partially covering upper and lower surfaces of the inboard and outboard blade structures, the light module and the securing feature, the sheaths defining slots and the light module comprising lenses protruding through the slots.
A compound having formula (I): including hydrates, solvates, pharmaceutically acceptable salts, enantiomers, and complexes thereof, wherein: A is where R 1 is selected from the group consisting of W is (CH 2 ) m ; m is 1 or 2; Y is (CH 2 ) q ; q is 1 or 2; n is 1, 2, or 3; R 3 is selected from the group consisting of COR 5 , CO 2 R 6 , CONR 7a R 7b , SO 2 NR 7a R 7b and SO 2 R 8 ; R 4a and R 4b are each independently selected from the group consisting of hydrogen and C 1-6 alkyl; R 4c is selected from the group consisting of hydrogen and OH; R 5 is selected from the group consisting of hydrogen and C 1-6 alkyl; R 6 is C 1-6 alkyl; R 7a and R 7b are each independently selected from the group consisting of hydrogen and C 1-6 alkyl; and R 8 is selected from the group consisting of hydrogen and C 1-6 alkyl. A is where R 1 is selected from the group consisting of W is (CH 2 ) m ; m is 1 or 2; Y is (CH 2 ) q ; q is 1 or 2; n is 1, 2, or 3; R 3 is selected from the group consisting of COR 5 , CO 2 R 6 , CONR 7a R 7b , SO 2 NR 7a R 7b and SO 2 R 8 ; R 4a and R 4b are each independently selected from the group consisting of hydrogen and C 1-6 alkyl; R 4c is selected from the group consisting of hydrogen and OH; R 5 is selected from the group consisting of hydrogen and C 1-6 alkyl; R 6 is C 1-6 alkyl; R 7a and R 7b are each independently selected from the group consisting of hydrogen and C 1-6 alkyl; and R 8 is selected from the group consisting of hydrogen and C 1-6 alkyl.
A wireless device , comprising: at least two microphones on the wireless device, the at least two microphones on the wireless device being configured to capture sound from a target user ; processing circuitry coupled to the at least two microphones on the wireless device; and a communication interface coupled to the processing circuitry, the communication interface configured to receive external device microphone audio from at least two external device microphones of an external device to assist the processing circuitry in the wireless device to locate the target user, wherein the processing circuitry is configured to determine a location of the external device relative to the wireless device and to locate the target user by triangulation based on: i) a first estimated target user direction of arrival, DOA, using the at least two microphones of the wireless device, ii) a second estimated target user DOA using the external device microphone audio from the at least two external device microphones, and iii) the location of the external device relative to the wireless device. at least two microphones on the wireless device, the at least two microphones on the wireless device being configured to capture sound from a target user ; processing circuitry coupled to the at least two microphones on the wireless device; and a communication interface coupled to the processing circuitry, the communication interface configured to receive external device microphone audio from at least two external device microphones of an external device to assist the processing circuitry in the wireless device to locate the target user, wherein the processing circuitry is configured to determine a location of the external device relative to the wireless device and to locate the target user by triangulation based on: i) a first estimated target user direction of arrival, DOA, using the at least two microphones of the wireless device, ii) a second estimated target user DOA using the external device microphone audio from the at least two external device microphones, and iii) the location of the external device relative to the wireless device.