mhurhangee/patent-ind-claim-en huggingface dataset:
Compound having the general formula (I) where the radicals R 1 to R 10 are each independently selected from the group consisting of hydrogen and -Y-C(R 12 )=C(R 13 )(R 14 ), where R 12 , R 13 and R 14 are each independently hydrogen, halogen, straight-chain or branched C 1 -C 12 alkyl, C 3 -C 8 cycloalkyl, C 6 -C 12 aryl or C 5 -C 12 heteroaryl, wherein the straight-chain or branched C 1 -C 12 alkyl, C 3 -C 8 cycloalkyl, C 6 -C 12 aryl or C 5 -C 12 heteroaryl may optionally be substituted with one or more substituents selected from the group consisting of halogen, hydroxyl, cyano, nitro, aryl and benzyl, characterized in that one of radicals R 1 to R 5 and also one of radicals R 6 to R 10 is -Y-C(R 12 )=C(R 13 )(R 14 ), where Y is in both cases a single bond, and the remaining radicals R 1 to R 10 are hydrogen. where the radicals R 1 to R 10 are each independently selected from the group consisting of hydrogen and -Y-C(R 12 )=C(R 13 )(R 14 ), where R 12 , R 13 and R 14 are each independently hydrogen, halogen, straight-chain or branched C 1 -C 12 alkyl, C 3 -C 8 cycloalkyl, C 6 -C 12 aryl or C 5 -C 12 heteroaryl, wherein the straight-chain or branched C 1 -C 12 alkyl, C 3 -C 8 cycloalkyl, C 6 -C 12 aryl or C 5 -C 12 heteroaryl may optionally be substituted with one or more substituents selected from the group consisting of halogen, hydroxyl, cyano, nitro, aryl and benzyl, characterized in that one of radicals R 1 to R 5 and also one of radicals R 6 to R 10 is -Y-C(R 12 )=C(R 13 )(R 14 ), where Y is in both cases a single bond, and the remaining radicals R 1 to R 10 are hydrogen.
An exercise system , comprising: a movable element that is movable in the performance of an exercise, the movable element having at least one selectively adjustable operating parameter that selectively alters an exercise rate of a user relative to a default exercise rate; and a display that is configured to present display programming to the user, the display programming comprising one or more frames, the display programming having a default display rate that corresponds to the default exercise rate, the display programming being adjustable to correlate the display programming with the exercise rate of the user, characterised in that , in use, the display programming being adjusted by an amount that is commensurate with a difference between the exercise rate of the user and the default exercise rate by periodically pausing the display programming when the exercise rate of the user is less than the default exercise rate and to correlate the display programming with the exercise rate of the user; and wherein in use the periodic pausing of the display programming includes pausing a frame after each display of a certain number of frames at the default display rate. a movable element that is movable in the performance of an exercise, the movable element having at least one selectively adjustable operating parameter that selectively alters an exercise rate of a user relative to a default exercise rate; and a display that is configured to present display programming to the user, the display programming comprising one or more frames, the display programming having a default display rate that corresponds to the default exercise rate, the display programming being adjustable to correlate the display programming with the exercise rate of the user, characterised in that , in use, the display programming being adjusted by an amount that is commensurate with a difference between the exercise rate of the user and the default exercise rate by periodically pausing the display programming when the exercise rate of the user is less than the default exercise rate and to correlate the display programming with the exercise rate of the user; and wherein in use the periodic pausing of the display programming includes pausing a frame after each display of a certain number of frames at the default display rate.
A venturi member for use in a burner tube for a gas grill, the burner tube having a length, a top with gas ports and a bottom , the venturi member having a front face having a top and a bottom , the front face including an opening to accommodate a neck of a gas valve, a top flange extending rearwardly from the top of the front face and a substantially parallel bottom flange extending rearwardly from the bottom of the front face , and a downwardly sloping top constricting flange extending rearwardly from the top flange and an upwardly sloping bottom constricting flange extending rearwardly from the bottom flange , the top constricting flange and bottom constricting flange converging to form a throat area , characterised in that the venturi member further comprises: an upper arcuate portion extending rearwardly from the top constricting flange ; and, a lower arcuate portion extending rearwardly from the bottom constricting flange . an upper arcuate portion extending rearwardly from the top constricting flange ; and, a lower arcuate portion extending rearwardly from the bottom constricting flange .
A guitar , the guitar comprising: a body , the body having a bottom, sides, a top , and a cavity formed in an interior thereof and a bridge support formed within the cavity ; a neck extending from the body ; a bridge attached to the top with at least two anchor bolts that extend through the top , and a receiver having inner threads for a threaded connection to the anchor bolt and outer threads , characterized in that the anchor bolts are secured within the bridge support with a threaded connection between an outer surface of the bolts and an inner surface of the bridge support ; in that the receiver is disposed between each anchor bolt and the inner surface of the bridge support , and in that the outer threads of the receiver are for a threaded connection to the bridge support . a body , the body having a bottom, sides, a top , and a cavity formed in an interior thereof and a bridge support formed within the cavity ; a neck extending from the body ; a bridge attached to the top with at least two anchor bolts that extend through the top , and a receiver having inner threads for a threaded connection to the anchor bolt and outer threads , characterized in that the anchor bolts are secured within the bridge support with a threaded connection between an outer surface of the bolts and an inner surface of the bridge support ; in that the receiver is disposed between each anchor bolt and the inner surface of the bridge support , and in that the outer threads of the receiver are for a threaded connection to the bridge support .
A method comprising: performing, in a communication system where a primary cell is controlled by a first base station (290-1) and a secondary cell is controlled by a second, different base station (290-2), flow control between the primary cell and the secondary cell for data for a radio link control layer , wherein performing flow control between the primary cell and the secondary cell comprises dynamically controlling a depth of queued radio link control data in the secondary cell for one or more user equipment based on one or more factors; communicating, according to the flow control, the data for the radio link control layer between the first and second base stations (290-1, 290-2) using a link between the first and second base stations , characterized in that the secondary cell estimates a time lag between an original packet data unit request sent over the link and a corresponding response message received over the link , the response message comprising a packet data unit , and wherein the measured time lag is an estimate of round trip time; wherein the secondary cell estimates an approximate length of time that queued data for the radio link control layer will last for a certain user equipment ; and comparing, by the secondary cell, the determined approximate length of time to a threshold that is a certain margin greater than the estimated round trip time, and sending a request for additional data for the radio link control layer based on the determined approximate length of time being less than or equal to the threshold. performing, in a communication system where a primary cell is controlled by a first base station (290-1) and a secondary cell is controlled by a second, different base station (290-2), flow control between the primary cell and the secondary cell for data for a radio link control layer , wherein performing flow control between the primary cell and the secondary cell comprises dynamically controlling a depth of queued radio link control data in the secondary cell for one or more user equipment based on one or more factors; communicating, according to the flow control, the data for the radio link control layer between the first and second base stations (290-1, 290-2) using a link between the first and second base stations , characterized in that the secondary cell estimates a time lag between an original packet data unit request sent over the link and a corresponding response message received over the link , the response message comprising a packet data unit , and wherein the measured time lag is an estimate of round trip time; wherein the secondary cell estimates an approximate length of time that queued data for the radio link control layer will last for a certain user equipment ; and comparing, by the secondary cell, the determined approximate length of time to a threshold that is a certain margin greater than the estimated round trip time, and sending a request for additional data for the radio link control layer based on the determined approximate length of time being less than or equal to the threshold.
Liquid-crystalline medium having a nematic phase and a dielectric anisotropy (Δε) of 0.5 or more characterized in that it comprises one or more compounds of formula B in which denotes denotes n denotes 1 or 2, R 1 denotes alkyl, alkoxy, fluorinated alkyl or fluorinated alkoxy having 1 to 7 C atoms, wherein one -CH 2 - group may be replaced by cyclo-propylene, 1,3-cyclobutylene, 1,3-cyclopentylene, 1,3-cyclopentenylene, preferably by cyclo-propylene or 1,3-cyclopentylene,, alkenyl, alkenyloxy, alkoxyalkyl or fluorinated alkenyl, wherein one -CH 2 - group may be replaced by cyclo-propylene, 1,3-cyclobutylene, 1,3-cyclopentylene, 1,3-cyclo-pentenylene, preferably by cyclo-propylene or 1,3-cyclopentylene, and X 1 denotes F, Cl, fluorinated alkyl. fluorinated alkenyl. fluorinated alkoxy or fluorinated alkenyloxy. n denotes 1 or 2, R 1 denotes alkyl, alkoxy, fluorinated alkyl or fluorinated alkoxy having 1 to 7 C atoms, wherein one -CH 2 - group may be replaced by cyclo-propylene, 1,3-cyclobutylene, 1,3-cyclopentylene, 1,3-cyclopentenylene, preferably by cyclo-propylene or 1,3-cyclopentylene,, alkenyl, alkenyloxy, alkoxyalkyl or fluorinated alkenyl, wherein one -CH 2 - group may be replaced by cyclo-propylene, 1,3-cyclobutylene, 1,3-cyclopentylene, 1,3-cyclo-pentenylene, preferably by cyclo-propylene or 1,3-cyclopentylene, and X 1 denotes F, Cl, fluorinated alkyl. fluorinated alkenyl. fluorinated alkoxy or fluorinated alkenyloxy.
A differential global positioning system , comprising a base station and at least one intelligent device , wherein the base station is configured to set first positioning data thereof when the base station is arranged at a fixed location, and the base station comprises a first signal receiver; wherein the first signal receiver is configured to receive a satellite-based positioning signal sent by a satellite system to obtain second positioning data of the base station , and the base station is configured to obtain differential correction data according to a measurement error between the first positioning data and the second positioning data, and the base station is configured to be in communication connection with at least two intelligent devices to transmit the corresponding differential correction data to the at least two intelligent devices; the differential global positioning system being characterised in that : each intelligent device comprises a shell and a mobile station , wherein the base station is in communication with the intelligent device via the mobile station , and wherein the mobile station is detachably connectable within the shell of the intelligent device such that the mobile station is configurable to obtain location data relating to a current location of the intelligent device when installed in the shell of the intelligent device, and to obtain location data relating to a specific location outside the shell of the intelligent device when the mobile station is located away from the intelligent device.
A lens comprising: a first body having a first cavity ; a second body configured to come in surface contact with the first body ; and a plurality of protrusions disposed on the surface of the second body 100b, at least a part of the plurality of protrusions overlaps the first body in the vertical direction, characterized in that a plurality of patterns are disposed on the surface of a first protrusion disposed closest to the first body among the protrusions , and at least one of the patterns includes a first inclined part (111a-114a) formed in a first direction and a second inclined part (111b-114b) formed in a second direction opposite the first direction, wherein the first protrusion includes n patterns (111-114), the height of the n th pattern is higher than the height of the (n-1) th pattern, the height of a second protrusion is lower than the height of the n th pattern and higher than the height of the (n-1) th pattern, and n is an integral number of 2 or more. a first body having a first cavity ; a second body configured to come in surface contact with the first body ; and a plurality of protrusions disposed on the surface of the second body 100b, at least a part of the plurality of protrusions overlaps the first body in the vertical direction, characterized in that a plurality of patterns are disposed on the surface of a first protrusion disposed closest to the first body among the protrusions , and at least one of the patterns includes a first inclined part (111a-114a) formed in a first direction and a second inclined part (111b-114b) formed in a second direction opposite the first direction,
A cell stack device comprising: a cell stack comprising a plurality of cells arranged; and a manifold configured to allow a reactive gas to be supplied to the plurality of cells , first end portions of the plurality of cells being fixed to the manifold with a sealing material ; wherein each of the plurality of cells comprises: a supporting substrate extending in a length direction, an element portion comprising a fuel electrode , a solid electrolyte layer , and an air electrode layered on the supporting substrate , and an interlayer located between the solid electrolyte layer and the air electrode , extending to each of the first end portions of the plurality of cells , and having a porosity greater than a porosity of the solid electrolyte layer , and the interlayer comprises an exposed portion exposed from the air electrode at a first end portion of each of the plurality of cells and the sealing material provided on the exposed portion, wherein the exposed portion of the interlayer has a porosity of from 10 to 30%, and wherein the exposed portion of the interlayer has a porosity greater than a porosity of a sandwiched portion, the sandwiched portion being a part of the interlayer and sandwiched between the solid electrolyte layer and the air electrode . a cell stack comprising a plurality of cells arranged; and a manifold configured to allow a reactive gas to be supplied to the plurality of cells , first end portions of the plurality of cells being fixed to the manifold with a sealing material ; wherein each of the plurality of cells comprises: a supporting substrate extending in a length direction, an element portion comprising a fuel electrode , a solid electrolyte layer , and an air electrode layered on the supporting substrate , and an interlayer located between the solid electrolyte layer and the air electrode , extending to each of the first end portions of the plurality of cells , and having a porosity greater than a porosity of the solid electrolyte layer , and a supporting substrate extending in a length direction, an element portion comprising a fuel electrode , a solid electrolyte layer , and an air electrode layered on the supporting substrate , and an interlayer located between the solid electrolyte layer and the air electrode , extending to each of the first end portions of the plurality of cells , and having a porosity greater than a porosity of the solid electrolyte layer , and the interlayer comprises an exposed portion exposed from the air electrode at a first end portion of each of the plurality of cells and the sealing material provided on the exposed portion, wherein the exposed portion of the interlayer has a porosity of from 10 to 30%, and wherein the exposed portion of the interlayer has a porosity greater than a porosity of a sandwiched portion, the sandwiched portion being a part of the interlayer and sandwiched between the solid electrolyte layer and the air electrode .
A screw actuator comprising: a nut having an internal helical formation ; a screw having an external helical formation and rotatably received within the nut , relative rotational movement of the nut and screw causing axial movement of one of the nut and screw relative to the other of the nut and screw ; a lubricant reservoir ; a lubricant pressuriser for pressurising lubricant within the lubricant reservoir ; a lubricant receiving chamber formed in the nut and through which the screw extends; a lubricant supply passage fluidly connecting the lubricant reservoir and the lubricant receiving chamber ; a valve (64; 72) for controlling the flow of lubricant between the lubricant reservoir and the lubricant receiving chamber ; the screw actuator further comprises a lubricant supply piston received in the lubricant receiving chamber , characterized in that the lubricant supply piston is mounted on the external helical formation of the screw , the lubricant supply piston being mounted to the screw with sufficient friction that in response to relative rotational movement of the screw and the nut resulting in relative axial movement of the screw and the nut , the lubricant supply piston can move axially with the screw relative to the nut through the lubricant receiving chamber so as to force lubricant from the lubricant receiving chamber into an interface between the nut and the screw , but such that the lubricant supply piston may rotationally slip on the screw when the lubricant supply piston reaches an axial limit position within the lubricant receiving chamber . a nut having an internal helical formation ; a screw having an external helical formation and rotatably received within the nut , relative rotational movement of the nut and screw causing axial movement of one of the nut and screw relative to the other of the nut and screw ; a lubricant reservoir ; a lubricant pressuriser for pressurising lubricant within the lubricant reservoir ; a lubricant receiving chamber formed in the nut and through which the screw extends; a lubricant supply passage fluidly connecting the lubricant reservoir and the lubricant receiving chamber ; a valve (64; 72) for controlling the flow of lubricant between the lubricant reservoir and the lubricant receiving chamber ; the screw actuator further comprises a lubricant supply piston received in the lubricant receiving chamber , characterized in that the lubricant supply piston is mounted on the external helical formation of the screw , the lubricant supply piston being mounted to the screw with sufficient friction that in response to relative rotational movement of the screw and the nut resulting in relative axial movement of the screw and the nut , the lubricant supply piston can move axially with the screw relative to the nut through the lubricant receiving chamber so as to force lubricant from the lubricant receiving chamber into an interface between the nut and the screw , but such that the lubricant supply piston may rotationally slip on the screw when the lubricant supply piston reaches an axial limit position within the lubricant receiving chamber .
Device (6; 60) for providing a droplet of a liquid stored in an interior (51; 510) of a vial (5; 50), comprising a support body (2; 20); and a resilient dome portion (3; 30) mounted to the support body (2; 20) to form a chamber (21; 210) comprising air, and configured to create an air flow with the air in the chamber (21; 210) when activated by compression, wherein the support body (2; 20) comprises a vial seat (24; 240) arranged to receive the vial (5; 50), a nozzle (26; 260), an air flow conduit (22; 220) and a transfer conduit (23; 230) connecting the vial seat (24; 240) with the nozzle (26; 260), the support body (2; 20) is arranged that, when the vial (5; 50) is received by the vial seat (24; 240), the air flow conduit (22; 220) establishes a fluid connection between the interior (51; 510) of the vial (5; 50) and the chamber (21; 210), the transfer conduit (23; 230) establishes a fluid connection between the vial (5; 50) and the nozzle (26; 260), and on activation of the dome portion (3; 30), the air flow delivers air into the vial (5; 50) such that a pressure rise is created in the interior (51; 510) of the vial (5; 50) which causes liquid to be transferred from the vial (5; 50) to the nozzle (26; 260) through the transfer conduit (23; 230). a support body (2; 20); and a resilient dome portion (3; 30) mounted to the support body (2; 20) to form a chamber (21; 210) comprising air, and configured to create an air flow with the air in the chamber (21; 210) when activated by compression, wherein the support body (2; 20) comprises a vial seat (24; 240) arranged to receive the vial (5; 50), a nozzle (26; 260), an air flow conduit (22; 220) and a transfer conduit (23; 230) connecting the vial seat (24; 240) with the nozzle (26; 260), the support body (2; 20) is arranged that, when the vial (5; 50) is received by the vial seat (24; 240), the air flow conduit (22; 220) establishes a fluid connection between the interior (51; 510) of the vial (5; 50) and the chamber (21; 210), the transfer conduit (23; 230) establishes a fluid connection between the vial (5; 50) and the nozzle (26; 260), and on activation of the dome portion (3; 30), the air flow delivers air into the vial (5; 50) such that a pressure rise is created in the interior (51; 510) of the vial (5; 50) which causes liquid to be transferred from the vial (5; 50) to the nozzle (26; 260) through the transfer conduit (23; 230). the air flow conduit (22; 220) establishes a fluid connection between the interior (51; 510) of the vial (5; 50) and the chamber (21; 210), the transfer conduit (23; 230) establishes a fluid connection between the vial (5; 50) and the nozzle (26; 260), and on activation of the dome portion (3; 30), the air flow delivers air into the vial (5; 50) such that a pressure rise is created in the interior (51; 510) of the vial (5; 50) which causes liquid to be transferred from the vial (5; 50) to the nozzle (26; 260) through the transfer conduit (23; 230).