mhurhangee/patent-ind-claim-en huggingface dataset:
A method, comprising: at an electronic device having a display : detecting, via wireless communication, multiple external devices , wherein the multiple external devices each is executing or has executed a respective application ; receiving usage information from each of the multiple external devices indicating usage of the respective application on the external device, wherein the usage information indicates a state of the respective application ; identifying a first application as the more recently used application among the respective applications of the multiple external devices as the more relevant application; in response to detecting the multiple external devices , receiving the usage information, and identifying the first application as the more recently used application among the respective applications from the multiple external devices as the more relevant application, displaying, on the display , an affordance ; detecting user selection of the displayed affordance ; and in response to detecting the user selection, launching a second application, the second application corresponding to the first application , wherein the state of the second application corresponds to the state of the first application . detecting, via wireless communication, multiple external devices , wherein the multiple external devices each is executing or has executed a respective application ; receiving usage information from each of the multiple external devices indicating usage of the respective application on the external device, wherein the usage information indicates a state of the respective application ; identifying a first application as the more recently used application among the respective applications of the multiple external devices as the more relevant application; in response to detecting the multiple external devices , receiving the usage information, and identifying the first application as the more recently used application among the respective applications from the multiple external devices as the more relevant application, displaying, on the display , an affordance ; detecting user selection of the displayed affordance ; and in response to detecting the user selection, launching a second application, the second application corresponding to the first application , wherein the state of the second application corresponds to the state of the first application .
An AC lighting system , comprising: a controller configured to control at least one of light intensity or color within the system; a linear current regulator having an output current level which is responsive to a control input; a plurality of stages of light emitting diodes, LEDs , the stages are coupled with one another between a rectified AC source and ground, each stage comprises one or more LEDs connected in series; a plurality of switches , wherein each switch, at its drain, is coupled to an anode of at least one of the one or more LEDs in a respective one of said plurality of stages, and, at its source, coupled to a cathode of at least one of the one or more LEDs in the respective stage; a plurality of level shifted drives configured to control the plurality of switches, respectively; a plurality of bootstrap conditioning networks incorporated within the system used to condition the power supplied to the plurality of level shifted drives, respectively; characterized in that the controller configured to provide at least one of a color or intensity control by varying the output current level of the linear current regulator between a first current level and a second, lower, current level and then to vary ON times of the plurality of stages, wherein when the current reaches the second current level, the output current level of the linear current regulator is maintained at the second current level while ON times of the plurality of stages are varied. a controller configured to control at least one of light intensity or color within the system; a linear current regulator having an output current level which is responsive to a control input; a plurality of stages of light emitting diodes, LEDs , the stages are coupled with one another between a rectified AC source and ground, each stage comprises one or more LEDs connected in series; a plurality of switches , wherein each switch, at its drain, is coupled to an anode of at least one of the one or more LEDs in a respective one of said plurality of stages, and, at its source, coupled to a cathode of at least one of the one or more LEDs in the respective stage; a plurality of level shifted drives configured to control the plurality of switches, respectively; a plurality of bootstrap conditioning networks incorporated within the system used to condition the power supplied to the plurality of level shifted drives, respectively; characterized in that the controller configured to provide at least one of a color or intensity control by varying the output current level of the linear current regulator between a first current level and a second, lower, current level and then to vary ON times of the plurality of stages, wherein when the current reaches the second current level, the output current level of the linear current regulator is maintained at the second current level while ON times of the plurality of stages are varied.
An electronic apparatus adapted to be carried by a user comprising: an accelerometer configured to detect an acceleration value; an air-pressure sensor configured to detect an air-pressure value; a communication unit configured to receive information for recognizing approach of the user of the electronic apparatus to an intersection; and a controller configured to determine whether the user is moving by his/her own effort based on the acceleration value, wherein the controller detects approach of the user to the intersection based on reception of the information if the controller determines that the user is moving by his/her own effort, the controller performs determination processing of determining whether a probability that the user will move on a road at the intersection after the user approaches the intersection is high based on change in the air-pressure value if the controller detects approach of the user to the intersection, the controller sends a notification that the user will move on the intersection to a roadside unit if the probability that the user will move on a road at the intersection is high as a result of the determination processing, and the controller does not send a notification that the user will move on the intersection to a roadside unit if the probability that the user will move on a road at the intersection is not high as a result of the determination processing. an accelerometer configured to detect an acceleration value; an air-pressure sensor configured to detect an air-pressure value; a communication unit configured to receive information for recognizing approach of the user of the electronic apparatus to an intersection; and a controller configured to determine whether the user is moving by his/her own effort based on the acceleration value, wherein the controller detects approach of the user to the intersection based on reception of the information if the controller determines that the user is moving by his/her own effort, the controller performs determination processing of determining whether a probability that the user will move on a road at the intersection after the user approaches the intersection is high based on change in the air-pressure value if the controller detects approach of the user to the intersection, the controller sends a notification that the user will move on the intersection to a roadside unit if the probability that the user will move on a road at the intersection is high as a result of the determination processing, and the controller does not send a notification that the user will move on the intersection to a roadside unit if the probability that the user will move on a road at the intersection is not high as a result of the determination processing.
A subsea variable speed drive apparatus comprising: - a pressure resistant container comprising a curved wall section having a curved, internal surface ; and - a variable speed drive comprising at least one power electronics module arranged inside the container and held at a predetermined atmospheric pressure, wherein the at least one power electronics module is mounted on a heatsink which is mounted on the internal surface , the heatsink comprising a curved surface contacting the internal surface and having a radius of curvature corresponding to the radius of curvature of the internal surface , the heatsink being fixedly attached to the internal surface creating a contact pressure between the heatsink and the internal surface providing efficient heat transfer from the heatsink to the container . - a pressure resistant container comprising a curved wall section having a curved, internal surface ; and - a variable speed drive comprising at least one power electronics module arranged inside the container and held at a predetermined atmospheric pressure,
A compound of the formula: wherein R 1 is phenyl, which optionally is substituted with two or three substituents independently selected from the group consisting of chloro and tetrazolyl; R 2 is hydrogen or CH(R 2a )(R 2b ); R 2a is phenyl, which optionally is substituted with one to three halo; R 2b is hydrogen; R 3 is aryl or heteroaryl, wherein said aryl or heteroaryl groups are optionally substituted with one to three substituents independently selected from the group consisting of C(O)OR 4 , C(O)NR 4 R 5 , NR 4 R 5 , NHC(O)OR 4 and NHC(O)C 1-4 alkyl-OR 4 ; R 4 is hydrogen or C 1-6 alkyl, which is optionally substituted with one to three groups independently selected from the group consisting of halo and hydroxy; R 5 is hydrogen or C 1-6 alkyl, which is optionally substituted with one to three groups independently selected from the group consisting of halo and hydroxy; R 6 is hydrogen, cyano, halo, R 4 or OR 4 ; R 7 is hydrogen, cyano, halo, R 4 or OR 4 ; or a pharmaceutically acceptable salt thereof. R 2 is hydrogen or CH(R 2a )(R 2b ); R 2a is phenyl, which optionally is substituted with one to three halo; R 2b is hydrogen; R 3 is aryl or heteroaryl, wherein said aryl or heteroaryl groups are optionally substituted with one to three substituents independently selected from the group consisting of C(O)OR 4 , C(O)NR 4 R 5 , NR 4 R 5 , NHC(O)OR 4 and NHC(O)C 1-4 alkyl-OR 4 ; R 4 is hydrogen or C 1-6 alkyl, which is optionally substituted with one to three groups independently selected from the group consisting of halo and hydroxy; R 5 is hydrogen or C 1-6 alkyl, which is optionally substituted with one to three groups independently selected from the group consisting of halo and hydroxy; R 6 is hydrogen, cyano, halo, R 4 or OR 4 ; R 7 is hydrogen, cyano, halo, R 4 or OR 4 ; or a pharmaceutically acceptable salt thereof.
A method for determining a direction attached to a solid, the solid having four visible points (P 1 -P 4 ), arranged such that two first (P 1 , P 2 ) of said points and two second (P 3 , P 4 ) of said points define respectively a first vector (P 1 P 2 ) and a second vector (P 3 P 4 ) parallel to each other and oriented in the direction to be determined, the method comprising the following step: a) using a computer, identifying in one image of said solid the positions (I i ) of said four points; the method being characterized in that it further comprises the following steps: b) using the intrinsic, parameters of the camera and from said positions, using a computer, determining the coordinates of normal vectors (N 1 , N 2 ) which are normal to two planes: - the first plane passing through the optical center (C) and said two first points (P 1 , P 2 ), and - the second plane passing through the optical center (C) and the said two second points (P 3 , P 4 ); and c) using a computer, determining the coordinates of a vector (V) collinear to said parallel vectors by calculating the vector product of said normal vectors (N 1 , N 2 ). a) using a computer, identifying in one image of said solid the positions (I i ) of said four points; b) using the intrinsic, parameters of the camera and from said positions, using a computer, determining the coordinates of normal vectors (N 1 , N 2 ) which are normal to two planes: - the first plane passing through the optical center (C) and said two first points (P 1 , P 2 ), and - the second plane passing through the optical center (C) and the said two second points (P 3 , P 4 ); and - the first plane passing through the optical center (C) and said two first points (P 1 , P 2 ), and - the second plane passing through the optical center (C) and the said two second points (P 3 , P 4 ); and c) using a computer, determining the coordinates of a vector (V) collinear to said parallel vectors by calculating the vector product of said normal vectors (N 1 , N 2 ).
An ophthalmic laser surgical system comprising: a laser device and beam delivery optical subsystem for delivering a pulsed laser beam to an eye for treatment; an imaging subsystem for detecting a signal from the eye; and a control subsystem , wherein the ophthalmic laser surgical system being configured for real-time process monitoring during laser-based refractive index modification of an intraocular lens (IOL) by: treat an IOL with the laser beam to modify a refractive index of the IOL at selected locations; while treating the IOL with the laser beam, measuring a signal from the IOL using the imaging subsystem to determine a processing effect of refractive index modification of the IOL; characterised in that the ophthalmic laser surgical system is further configured to: treat the IOL with the laser beam based on the determination. a laser device and beam delivery optical subsystem for delivering a pulsed laser beam to an eye for treatment; an imaging subsystem for detecting a signal from the eye; and a control subsystem , wherein the ophthalmic laser surgical system being configured for real-time process monitoring during laser-based refractive index modification of an intraocular lens (IOL) by: treat an IOL with the laser beam to modify a refractive index of the IOL at selected locations; while treating the IOL with the laser beam, measuring a signal from the IOL using the imaging subsystem to determine a processing effect of refractive index modification of the IOL; characterised in that the ophthalmic laser surgical system is further configured to: treat the IOL with the laser beam based on the determination. treat an IOL with the laser beam to modify a refractive index of the IOL at selected locations; while treating the IOL with the laser beam, measuring a signal from the IOL using the imaging subsystem to determine a processing effect of refractive index modification of the IOL; characterised in that the ophthalmic laser surgical system is further configured to: treat the IOL with the laser beam based on the determination.
Circuit arrangement (GTM) for a data processing system for processing data in multiple modules, whereas the circuit arrangement is configured to be provided with and to provide a clock as well as a time base and/or at least one further physical quantity for each of the multiple modules, whereas the circuit arrangement comprises a central routing unit (ARU), which is connected to several of the multiple modules, whereas via the central routing unit (ARU) the several modules can periodically exchange data based on the time base and/or on the base of the at least one further physical quantity, and whereas the several modules are configured to process data independently and in parallel to other modules of the several modules, characterized in that the several modules comprise at least an input module (TIM), an output module (ATOM) and a processing module (MCS), whereas the processing module (MCS) comprises a central processing unit (CPU) and the processing module (MCS) is arranged to process input data received from the input module (TIM), and whereas the processing module (MCS) is arranged to calculate output sequences dependent on values of a time base unit (TBU) which are processed in combination with the output module (ATOM).
A spark containment cap for forming a sealed cavity around an end of a fastener protruding from a structure , the cap comprising: a cap body defining an air cavity arranged to enclose the end of the fastener , and including an annular base with a base rim , wherein the annular base terminates at the base rim which surrounds an opening into the air cavity; and an annular skirt providing an annular sealing volume extending around the base rim arranged to receive an annular bead of a curable sealing material around the opening into the cavity to provide a seal between the cap body and the structure to seal a volume of gas within the cavity; wherein the cap body comprises a cap upper arranged to receive at least part of the end of the fastener, the cap upper being positionable so that an axis of the cap upper is offset from an axis of the annular skirt, wherein the cap upper is arranged to pivot relative to the annular skirt, the cap comprises a joint between the annular skirt and the cap upper, and the joint comprises a ball joint or a deformable portion . a cap body defining an air cavity arranged to enclose the end of the fastener , and including an annular base with a base rim , wherein the annular base terminates at the base rim which surrounds an opening into the air cavity; and an annular skirt providing an annular sealing volume extending around the base rim arranged to receive an annular bead of a curable sealing material around the opening into the cavity to provide a seal between the cap body and the structure to seal a volume of gas within the cavity; wherein the cap body comprises a cap upper arranged to receive at least part of the end of the fastener, the cap upper being positionable so that an axis of the cap upper is offset from an axis of the annular skirt, wherein the cap upper is arranged to pivot relative to the annular skirt, the cap comprises a joint between the annular skirt and the cap upper, and the joint comprises a ball joint or a deformable portion .
A power supply combination , comprising: a first multi-voltage power source comprising a first power rail adapted to deliver power at a first voltage and a second power rail adapted to deliver power at a second voltage; a second multi-voltage power source comprising a third power rail adapted to deliver power at the first voltage and a fourth power rail adapted to deliver power at the second voltage; a first single-voltage power source comprising a fifth power rail adapted to deliver power at the first voltage; a second single-voltage power source comprising a sixth power rail adapted to deliver power at the first voltage; a first power combining circuit electrically connected to the first power rail of the first multi-voltage power source, to the third power rail of the second multi-voltage power source, to the fifth power rail of the first single-voltage power source, and to the sixth power rail of the second single-voltage power source, the first power combining circuit being adapted to deliver power at the first voltage to a first voltage input of a load; and a second power combining circuit electrically connected to the second power rail of the first multi-voltage power source and to the fourth power rail of the second multi-voltage power source, the second power combining circuit being adapted to deliver power at the second voltage to a second voltage input of the load. a first multi-voltage power source comprising a first power rail adapted to deliver power at a first voltage and a second power rail adapted to deliver power at a second voltage; a second multi-voltage power source comprising a third power rail adapted to deliver power at the first voltage and a fourth power rail adapted to deliver power at the second voltage; a first single-voltage power source comprising a fifth power rail adapted to deliver power at the first voltage; a second single-voltage power source comprising a sixth power rail adapted to deliver power at the first voltage; a first power combining circuit electrically connected to the first power rail of the first multi-voltage power source, to the third power rail of the second multi-voltage power source, to the fifth power rail of the first single-voltage power source, and to the sixth power rail of the second single-voltage power source, the first power combining circuit being adapted to deliver power at the first voltage to a first voltage input of a load; and a second power combining circuit electrically connected to the second power rail of the first multi-voltage power source and to the fourth power rail of the second multi-voltage power source, the second power combining circuit being adapted to deliver power at the second voltage to a second voltage input of the load.
Rotation actuating device , comprising: a base , a rotor , and at least two groups of drive units which each comprise at least two drive units , wherein the drive units are arranged circumferentially on the base and between the latter and the rotor , and wherein each drive unit comprises two deflectable actuators arranged in a V-shape with respect to one another and a friction element which is connected to both actuators, and wherein a continuous movement of the rotor is realized by means of phase-offset actuation of the actuators of different groups of drive units , characterized in that the rotor and the friction elements are configured under pressure in a direction towards each other by means of a spring device which is arranged between the drive units and in the inner circumference of the rotor such that, when the actuators are not deflected, all the friction elements are in contact with the rotor and together span a contact plane (K) and that the drive units of the groups of drive units , which are provided as a whole, are arranged along a circumference of a circle. a base , a rotor , and at least two groups of drive units which each comprise at least two drive units , wherein the drive units are arranged circumferentially on the base and between the latter and the rotor , and wherein each drive unit comprises two deflectable actuators arranged in a V-shape with respect to one another and a friction element which is connected to both actuators, and wherein a continuous movement of the rotor is realized by means of phase-offset actuation of the actuators of different groups of drive units , wherein the drive units are arranged circumferentially on the base and between the latter and the rotor , and wherein each drive unit comprises two deflectable actuators arranged in a V-shape with respect to one another and a friction element which is connected to both actuators, and wherein a continuous movement of the rotor is realized by means of phase-offset actuation of the actuators of different groups of drive units , characterized in that the rotor and the friction elements are configured under pressure in a direction towards each other by means of a spring device which is arranged between the drive units and in the inner circumference of the rotor such that, when the actuators are not deflected, all the friction elements are in contact with the rotor and together span a contact plane (K) and that the drive units of the groups of drive units , which are provided as a whole, are arranged along a circumference of a circle.
Current breaker with a bus bar and a piston which is movable in a cavity penetrated by the bus bar for breaking out a plate from the bus bar , wherein the current breaker includes at least one metallic filter element , characterized in that on both sides of the piston below the bus bar a plurality of metallic filter elements are located that extend up to the cavity such that during triggering the plate electrically connects the filter elements , and the electric arc switches over to the metallic filter element at a greater distance of the plate from the ends of the bus bar, whereby the energy from the system inductance is converted into a heat loss in the filter.