mhurhangee/ep-ind-claims huggingface dataset:
Computer-implemented method for time-dependent vehicle routing, comprising: determining a travel path from a start position to an end position based on a combination of: i) a park spot routing algorithm being a shortest path algorithm that uses parking probabilities within a predefined area around the end position in its cost function; and ii) a stochastic routing algorithm configured to maximize a probability of arriving before or at a predefined time at the end position and/or a parking spot within the predefined area, wherein the cost function of the park spot routing algorithm is integrated into a constraint of an integer linear program of the stochastic routing algorithm. determining a travel path from a start position to an end position based on a combination of: i) a park spot routing algorithm being a shortest path algorithm that uses parking probabilities within a predefined area around the end position in its cost function; and ii) a stochastic routing algorithm configured to maximize a probability of arriving before or at a predefined time at the end position and/or a parking spot within the predefined area, wherein the cost function of the park spot routing algorithm is integrated into a constraint of an integer linear program of the stochastic routing algorithm. i) a park spot routing algorithm being a shortest path algorithm that uses parking probabilities within a predefined area around the end position in its cost function; and ii) a stochastic routing algorithm configured to maximize a probability of arriving before or at a predefined time at the end position and/or a parking spot within the predefined area, wherein the cost function of the park spot routing algorithm is integrated into a constraint of an integer linear program of the stochastic routing algorithm.
User interface for a vehicle, comprising - an input device for detecting one-dimensional swiping gestures of a user guided by a structure with regard to two dimensions, hereinafter called a "finger strip," - a display device having a touch-sensitive surface, and - an evaluation unit, wherein - the display device is configured to display a favorites selection field in order to populate predefined positions on the finger strip with a respective favorite, and - the evaluation unit is configured - to evaluate swiping gestures, detected by means of the finger strip, for the substantially stepless adjustment of an output variable, and - to evaluate tapped inputs, detected by means of the finger strip, for selecting and swiping gestures, detected by means of the touch-sensitive surface of the display device, for defining favored function ranges, hereinafter referred to as "favorites," the definition of favorites comprising: - assigning, in response to the detection of a swiping gesture which starts on a display element displayed on the display device and ends on an entry of the favorites selection field, a function range assigned to the display element to the position on the finger strip associated with this entry. - an input device for detecting one-dimensional swiping gestures of a user guided by a structure with regard to two dimensions, hereinafter called a "finger strip," - a display device having a touch-sensitive surface, and - an evaluation unit, wherein - the display device is configured to display a favorites selection field in order to populate predefined positions on the finger strip with a respective favorite, and - the evaluation unit is configured - to evaluate swiping gestures, detected by means of the finger strip, for the substantially stepless adjustment of an output variable, and - to evaluate tapped inputs, detected by means of the finger strip, for selecting and swiping gestures, detected by means of the touch-sensitive surface of the display device, for defining favored function ranges, hereinafter referred to as "favorites," the definition of favorites comprising: - assigning, in response to the detection of a swiping gesture which starts on a display element displayed on the display device and ends on an entry of the favorites selection field, a function range assigned to the display element to the position on the finger strip associated with this entry. - assigning, in response to the detection of a swiping gesture which starts on a display element displayed on the display device and ends on an entry of the favorites selection field, a function range assigned to the display element to the position on the finger strip associated with this entry.
A method performed by a first device in a wireless communication system, the first device being wirelessly connected to a second device based on a first connectivity scheme, the method comprising: determining whether a scan period of a second connectivity scheme is changeable based on a service discovered during the scan period of the second connectivity scheme; in response to the determining that the scan period of the second connectivity scheme is changeable, detecting state information of the first connectivity scheme; and changing the scan period of the second connectivity scheme based on the detected state information; and performing a scan operation; wherein the first connectivity scheme and the second connectivity scheme use a same frequency band, and the first connectivity scheme is deactivated during the scan period of the second connectivity scheme; and wherein the detected state information includes information about at least one of a throughput of the first connectivity scheme or a transmission retry count for the first connectivity scheme. determining whether a scan period of a second connectivity scheme is changeable based on a service discovered during the scan period of the second connectivity scheme; in response to the determining that the scan period of the second connectivity scheme is changeable, detecting state information of the first connectivity scheme; and changing the scan period of the second connectivity scheme based on the detected state information; and performing a scan operation; wherein the first connectivity scheme and the second connectivity scheme use a same frequency band, and the first connectivity scheme is deactivated during the scan period of the second connectivity scheme; and wherein the detected state information includes information about at least one of a throughput of the first connectivity scheme or a transmission retry count for the first connectivity scheme.
A test probe comprising: an image sensor configured to obtain an image of an endface of an optical communication link, the image sensor having a field of view; a display having a field of view that is less than the field of view of the image sensor causing the display to display a portion of the obtained image; a processor operably coupled to the image sensor and the display, the processor programmed to: receive the obtained image from the image sensor, evaluate information that includes position information indicating a position of the endface in the obtained image relative to the field of view of the display, and generate one or more signals indicative of the information; and a feedback mechanism operably coupled to the processor and configured to receive the one or more signals indicative of the information and to provide at least one of an aural and visual indication of the information to a user. an image sensor configured to obtain an image of an endface of an optical communication link, the image sensor having a field of view; a display having a field of view that is less than the field of view of the image sensor causing the display to display a portion of the obtained image; a processor operably coupled to the image sensor and the display, the processor programmed to: receive the obtained image from the image sensor, evaluate information that includes position information indicating a position of the endface in the obtained image relative to the field of view of the display, and generate one or more signals indicative of the information; and receive the obtained image from the image sensor, evaluate information that includes position information indicating a position of the endface in the obtained image relative to the field of view of the display, and generate one or more signals indicative of the information; and a feedback mechanism operably coupled to the processor and configured to receive the one or more signals indicative of the information and to provide at least one of an aural and visual indication of the information to a user.
A ducted wind turbine comprising:- at least a turbine rotor assembly adapted to extract kinetic energy from air flowing there past, the rotor assembly comprising a plurality of rotor blades (32, 34) having rotor tips at their outermost ends which define a rotor tip sweep circumference; a duct assembly (22, 24, 25) at least partially surrounding said rotor tip sweep circumference; a base platform adapted to support the ducted wind turbine; and wherein the duct assembly (22, 24, 25) is mounted on the base platform by way of a weathervane bearing arrangement (42, 44) such that the duct assembly may weathervane around the turbine rotor assembly in response to changes in wind direction; a ducting channel being provided between a ducting inlet and a ducting outlet of the duct assembly (22, 24, 25), each of the ducting inlet and outlet having a longitudinal axis (L1, L2); and characterised in that the ducting inlet and outlet are arranged such that their respective longitudinal axes (L1, L2) intersect with one another at a redirect angle α and wherein the plurality of turbine rotor blades (32, 34) in the turbine rotor assembly are assembled on sets of coaxial contrary rotating hubs such that at least a primary set of rotor blades rotating in one direction and at least a secondary set of rotor blades rotating in an opposite direction are provided. at least a turbine rotor assembly adapted to extract kinetic energy from air flowing there past, the rotor assembly comprising a plurality of rotor blades (32, 34) having rotor tips at their outermost ends which define a rotor tip sweep circumference; a duct assembly (22, 24, 25) at least partially surrounding said rotor tip sweep circumference; a base platform adapted to support the ducted wind turbine; and wherein the duct assembly (22, 24, 25) is mounted on the base platform by way of a weathervane bearing arrangement (42, 44) such that the duct assembly may weathervane around the turbine rotor assembly in response to changes in wind direction;
A method for identifying an approach for achieving mammalian fertilization comprising the steps of: obtaining by imaging one or more t 0 -fluorescence images from a first sample of in vitro capacitated sperm cells treated with a fluorescence label, wherein the sperm cells are displaying one or more G M1 localization patterns, wherein said t 0 -fluorescence images are obtained at post in vitro capacitation times selected from: 0.1 hour to 5 hours; 0.1 hour to 8 hours; 0.1 to 12 hours; or 0.1 hour to 18 hours; measuring a number of apical acrosome G M1 localization patterns, a number of acrosomal plasma membrane G M1 localization patterns and a total number of G M1 localization patterns displayed in one or more to-fluorescence images to determine a percentage of to-[AA G M1 localization patterns plus APM G M1 localization patterns], comparing the percentage of measured to-[AA G M1 localization patterns plus APM G M1 localization patterns] to a reference percentage of [AA G M1 localization patterns plus APM G M1 localization patterns] to determine a fertility status; and identifying a reproductive approach for achieving mammalian fertilization based on the determined fertility status, wherein a reference percentage of [AA G M1 localization patterns plus APM G M1 localization patterns] corresponding to: greater than 35 % indicates a high fertility status; one standard deviation below 35 % indicates a medium fertility status; and two or more standard deviations below 35 % indicates a low fertility status. obtaining by imaging one or more t 0 -fluorescence images from a first sample of in vitro capacitated sperm cells treated with a fluorescence label, wherein the sperm cells are displaying one or more G M1 localization patterns, wherein said t 0 -fluorescence images are obtained at post in vitro capacitation times selected from: 0.1 hour to 5 hours; 0.1 hour to 8 hours; 0.1 to 12 hours; or 0.1 hour to 18 hours; measuring a number of apical acrosome G M1 localization patterns, a number of acrosomal plasma membrane G M1 localization patterns and a total number of G M1 localization patterns displayed in one or more to-fluorescence images to determine a percentage of to-[AA G M1 localization patterns plus APM G M1 localization patterns], comparing the percentage of measured to-[AA G M1 localization patterns plus APM G M1 localization patterns] to a reference percentage of [AA G M1 localization patterns plus APM G M1 localization patterns] to determine a fertility status; and identifying a reproductive approach for achieving mammalian fertilization based on the determined fertility status, wherein a reference percentage of [AA G M1 localization patterns plus APM G M1 localization patterns] corresponding to: greater than 35 % indicates a high fertility status; one standard deviation below 35 % indicates a medium fertility status; and two or more standard deviations below 35 % indicates a low fertility status.
A sealed fuel system for a vehicle comprising a fuel tank (301, 401), a filler pipe (302, 402), a venting line (303, 403) for recirculating fuel vapors from the tank (301, 401) to the filler pipe (302, 402) and a leak detection device, wherein the leak detection device comprises: - a first pressure sensor (305, 405) provided to measure the pressure in the vapor dome of the fuel tank (301, 401), - a second pressure sensor (307, 407), and - a controller, - the filler pipe has a sealing means located near the fuel tank, the sealed fuel system being characterized in that: - a part of the venting line (303, 403) forms a sump, and - the second pressure sensor (307, 407) is provided to measure the pressure in the venting line (303, 403) above the highest possible liquid (306, 406) level that could be present in the venting line (303, 403) or to measure the pressure in the filler pipe (302, 402) above the highest possible liquid (306, 406) level that could be present in said filler pipe (302, 402). - a first pressure sensor (305, 405) provided to measure the pressure in the vapor dome of the fuel tank (301, 401), - a second pressure sensor (307, 407), and - a controller, - the filler pipe has a sealing means located near the fuel tank, - a part of the venting line (303, 403) forms a sump, and - the second pressure sensor (307, 407) is provided to measure the pressure in the venting line (303, 403) above the highest possible liquid (306, 406) level that could be present in the venting line (303, 403) or to measure the pressure in the filler pipe (302, 402) above the highest possible liquid (306, 406) level that could be present in said filler pipe (302, 402).
A light emitting diode device comprising an outer casing, a light emitting diode element, comprising at least one light emitting diode, arranged within the outer casing, a light outlet member constituting a part of the outer casing, a sealed cavity and a seal arranged to seal the cavity, wherein the light outlet member comprises an outer wall and an inner wall, attached to the outer wall by means of the seal, thereby forming the cavity, wherein a remote organic phosphor element is arranged in the cavity between the walls, and wherein the light emitting diode device comprises a further compartment, housing the light emitting diode element, characterized in that the sealed cavity contains a controlled atmosphere and a getter is arranged in the sealed cavity.
Scattered light measuring device, in particular for continuously measuring the particle concentration in the exhaust gas from internal combustion engines, comprising a measuring chamber surrounding a measuring volume, which measuring chamber comprises: • a supply line comprising a supply nozzle to the measuring volume and a discharge line from the measuring volume, for particle-laden gas to be measured, • a light source for irradiating light into the measuring volume, comprising an associated light sink that is opposite said light source in the beam path, and • at least one detector arrangement (8, 8'), directed from the side toward the measuring volume located in the beam path, for the scattered light scattered by the particles in the measuring volume, • wherein optical windows (13, 14, 15) are assigned to the light source and the detector arrangement (8, 8'), which optical windows (13, 14, 15) are arranged on the measuring chamber, wherein a line for branching off some of the particle-laden gas to be measured and a filter arrangement for removing at least the majority of the particles from the branched-off particle-laden gas to be measured are arranged upstream of the supply line of the particle-laden gas to be measured to the measuring volume, wherein particle-free gas from the filter arrangement surrounds the supply nozzle for the residual particle-laden gas to be measured in a substantially annular flushing chamber, wherein the particle-laden gas to be measured can be surrounded by the particle-free gas downstream of the discharge of the supply nozzle to the measuring volume, and the measuring volume is delimited by the light source, the light sink and the detector arrangement (8, 8') and by the associated optical windows (13, 14, 15), over which the particle-free gas flows. • a supply line comprising a supply nozzle to the measuring volume and a discharge line from the measuring volume, for particle-laden gas to be measured, • a light source for irradiating light into the measuring volume, comprising an associated light sink that is opposite said light source in the beam path, and • at least one detector arrangement (8, 8'), directed from the side toward the measuring volume located in the beam path, for the scattered light scattered by the particles in the measuring volume, • wherein optical windows (13, 14, 15) are assigned to the light source and the detector arrangement (8, 8'), which optical windows (13, 14, 15) are arranged on the measuring chamber,
A method for controlling a wireless phone, the method comprising: receiving input from a plurality of separate corner sensors (120, 122, 124, 126), each of said plurality of corner sensors (120, 122, 124, 126) being located at a respective corner of a case edge of said wireless phone, wherein said plurality of corner sensors (120, 122, 124, 126) are configured based on one or both of: a holding position of said wireless phone, said holding position being determined by additional touch-sensors located on surfaces of said wireless phone other than the corners, and a spatial orientation of said wireless phone, said spatial orientation being determined by a sensor internal to the wireless phone that detects spatial orientations, and controlling one or more functions of said wireless phone based on said input received by said plurality of corner sensors (120, 122, 124, 126); wherein said wireless phone is operable to detect simultaneous input from said plurality of said corner sensors (120, 122, 124, 126) to register an input gesture. receiving input from a plurality of separate corner sensors (120, 122, 124, 126), each of said plurality of corner sensors (120, 122, 124, 126) being located at a respective corner of a case edge of said wireless phone, wherein said plurality of corner sensors (120, 122, 124, 126) are configured based on one or both of: a holding position of said wireless phone, said holding position being determined by additional touch-sensors located on surfaces of said wireless phone other than the corners, and a spatial orientation of said wireless phone, said spatial orientation being determined by a sensor internal to the wireless phone that detects spatial orientations, and a holding position of said wireless phone, said holding position being determined by additional touch-sensors located on surfaces of said wireless phone other than the corners, and a spatial orientation of said wireless phone, said spatial orientation being determined by a sensor internal to the wireless phone that detects spatial orientations, and controlling one or more functions of said wireless phone based on said input received by said plurality of corner sensors (120, 122, 124, 126); wherein said wireless phone is operable to detect simultaneous input from said plurality of said corner sensors (120, 122, 124, 126) to register an input gesture.
A wheel with a sound absorber, the sound absorber being mounted in a wheel air chamber to reduce acoustic resonance, wherein the sound absorber is configured as a flat hexahedral box resonator and fastened to a wheel hub through a band, a first positioning mechanism is provided between the hub and the box resonator to fix the relative positions of the hub and the box resonator, and a second positioning mechanism is provided between the box resonator and the band to fix the relative positions of the box resonator and the band; characterized in that the first positioning mechanism comprises a first mating structure, the first mating structure being used for fixing the hub and the box resonator in the axial direction of the wheel, and a second mating structure, the second mating structure being for fixing the hub and the box resonator in the circumferential direction of the wheel; wherein the first mating structure comprises a guide rail disposed circumferentially on the circumferential surface of the hub, and grooves formed on the bottom surface of the box resonator and corresponding to the guide rail, and the second mating structure comprises notches formed on the guide rail, and bosses corresponding to the notches in the extending paths of the grooves on the box resonator; and wherein the guide rail comprises two ribs (2, 3) circumferentially on the circumferential surface of the hub, two grooves (9, 10) are correspondingly formed on the bottom surface of the box resonator, one notch (4, 5) is respectively formed on each rib on one side of the hub, and one boss (11, 12) is respectively formed in the extending paths of each groove on one side of the box resonator; in the mounted state of the box resonator, the guide rail on one side of the hub is engaged with the groove on one side of the box resonator to fix the relative positions of the hub and the box resonator in the axial direction of the wheel, at the same time, the notch on one side of the hub is engaged with the boss on one side of the box resonator to fix the relative positions of the hub and the box resonator in the circumferential direction of the wheel, and there are gaps between bottom surfaces (14a, 14b, 14c) of the box resonator and outer surfaces (13a, 13b, 13c) of the rim of the hub.