mhurhangee/patent-ind-claim-en huggingface dataset:
A method performed by a user equipment, in the following also referred to as UE, the method comprising: monitoring Physical Downlink Control Channel, in the following also referred to as PDCCH, with a first pattern during an active time of the UE if a first timer is running ; and monitoring the PDCCH with a second pattern during the active time of the UE if a second timer is running and/or if the UE is associated with the active time due to a first cause , characterized in that : the first pattern corresponds to a first control resource set, in the following also referred to as CORESET, duration; and the second pattern corresponds to a second CORESET duration. monitoring Physical Downlink Control Channel, in the following also referred to as PDCCH, with a first pattern during an active time of the UE if a first timer is running ; and monitoring the PDCCH with a second pattern during the active time of the UE if a second timer is running and/or if the UE is associated with the active time due to a first cause , characterized in that : the first pattern corresponds to a first control resource set, in the following also referred to as CORESET, duration; and the second pattern corresponds to a second CORESET duration. the first pattern corresponds to a first control resource set, in the following also referred to as CORESET, duration; and the second pattern corresponds to a second CORESET duration.
A photographing method implemented by a processor when executing instructions of a computer program product comprising: determining that a target object is in a stable state according to preview images captured continuously and being compliant with a preset number of frames, comprising: activating a photographing apparatus; counting the number of image frames of a preview image captured by an image sensor; acquiring a moving speed of the target object according to all captured preview images in response to the number of the image frames reaching a preset number of frames; and determining that the target object is in the stable state in response to the moving speed being within a preset range; acquiring a target region of interest (ROI) from a preview image of the target object in the stable state captured by the image sensor, comprising: taking an ROI in a preview image of the target object in the stable state as the target ROI; photographing the target object to acquire image data; during generating an image through the image data on a display, marking a position of the target ROI in the image generated through the image data in order to indicate that an out-of-focus or blurred image is not caused by inappropriate setting of the target ROI when a marked position of the target ROI and a position of the target ROI during focusing do not change in the displayed image through the image data. activating a photographing apparatus; counting the number of image frames of a preview image captured by an image sensor; acquiring a moving speed of the target object according to all captured preview images in response to the number of the image frames reaching a preset number of frames; and determining that the target object is in the stable state in response to the moving speed being within a preset range; acquiring a target region of interest (ROI) from a preview image of the target object in the stable state captured by the image sensor, comprising: taking an ROI in a preview image of the target object in the stable state as the target ROI; photographing the target object to acquire image data; during generating an image through the image data on a display, marking a position of the target ROI in the image generated through the image data in order to indicate that an out-of-focus or blurred image is not caused by inappropriate setting of the target ROI when a marked position of the target ROI and a position of the target ROI during focusing do not change in the displayed image through the image data. taking an ROI in a preview image of the target object in the stable state as the target ROI; photographing the target object to acquire image data; during generating an image through the image data on a display, marking a position of the target ROI in the image generated through the image data in order to indicate that an out-of-focus or blurred image is not caused by inappropriate setting of the target ROI when a marked position of the target ROI and a position of the target ROI during focusing do not change in the displayed image through the image data.
A sanitizer composition comprising (i) 60 to 89 wt% of at least one C2 to C3 alcohol; (ii) 0.1 to 10 wt% of a Vitamin B3 compound or derivatives thereof selected from niacinamide, picolinamide, isonicotinamide, cyclo-propyl niacinamide, cyclo-pentyl niacinamide or combinations thereof; and (iii) 0.1 to 10 wt % of a non-ionic surfactant having an HLB value of at least 13 and characterized by having the general formula RPr (EO)mOH Where R is an alkyl or alkylene group of 8 to 20 carbon atoms; P is a phenolic group with r having a value of 0 or 1; And (EO) is an ethoxylate group with m having a value from 8 to 100. (i) 60 to 89 wt% of at least one C2 to C3 alcohol; (ii) 0.1 to 10 wt% of a Vitamin B3 compound or derivatives thereof selected from niacinamide, picolinamide, isonicotinamide, cyclo-propyl niacinamide, cyclo-pentyl niacinamide or combinations thereof; and (iii) 0.1 to 10 wt % of a non-ionic surfactant having an HLB value of at least 13 and characterized by having the general formula RPr (EO)mOH Where R is an alkyl or alkylene group of 8 to 20 carbon atoms; P is a phenolic group with r having a value of 0 or 1; And (EO) is an ethoxylate group with m having a value from 8 to 100. Where R is an alkyl or alkylene group of 8 to 20 carbon atoms; P is a phenolic group with r having a value of 0 or 1; And (EO) is an ethoxylate group with m having a value from 8 to 100.
A rope grab comprising: a housing having an elongated member guide forming an elongated member passage, the elongated member passage configured and arranged to receive an elongated member; a locking cam pivotally coupled to the housing, the locking cam configured and arranged to selectively engage an elongated member received in the elongated member passage; a cam biasing member positioned to provide a relatively slight biasing force on the locking cam towards an elongated member received in the elongated member passage, the relatively slight biasing force being countered by gravity during normal operations of the rope grab_to allow the rope grab to move both up and down on the elongated member without the locking cam locking onto the elongated member during normal operations while inertial loads on the locking cam and the slight biasing force of the cam biasing member during a fall event work in tandem to rotate the locking cam onto the elongated member to lock the locking cam onto the elongated member in the elongated member passage; and a locking arm pivotally coupled to the housing, the locking arm having a first end configured and arranged to be coupled to a safety harness of a user and a second end configured and arranged to selectively engage the locking cam to selectively lock the locking cam onto the elongated member in the elongated member passage during a fall event. a housing having an elongated member guide forming an elongated member passage, the elongated member passage configured and arranged to receive an elongated member; a locking cam pivotally coupled to the housing, the locking cam configured and arranged to selectively engage an elongated member received in the elongated member passage; a cam biasing member positioned to provide a relatively slight biasing force on the locking cam towards an elongated member received in the elongated member passage, the relatively slight biasing force being countered by gravity during normal operations of the rope grab_to allow the rope grab to move both up and down on the elongated member without the locking cam locking onto the elongated member during normal operations while inertial loads on the locking cam and the slight biasing force of the cam biasing member during a fall event work in tandem to rotate the locking cam onto the elongated member to lock the locking cam onto the elongated member in the elongated member passage; and a locking arm pivotally coupled to the housing, the locking arm having a first end configured and arranged to be coupled to a safety harness of a user and a second end configured and arranged to selectively engage the locking cam to selectively lock the locking cam onto the elongated member in the elongated member passage during a fall event.
A bidirectional power switching circuit comprising: a bidirectional switch comprising first and second first-conductivity-type emitter/collector regions (1304; 1304B; 1404; 1504), each on opposing respective faces of a second-conductivity-type semiconductor mass , and first and second second-conductivity-type base contact regions , each on the same face of said semiconductor mass as, and adjacent to, said first and second emitter/collector regions (1304; 1304B; 1404; 1504) respectively, thereby forming respective emitter-base junctions on the opposing faces of said semiconductor mass ; control circuitry; and a drive circuit which, when the control circuitry selects the bidirectional switch for turn-on, is configured to drive a selected one of said first and second base contact regions , to forward bias an associated emitter-base junction to thereby permit majority carriers to flow therefrom to the other emitter/collector region (1304; 1304B; 1404; 1504) on the opposing face of said semiconductor mass ; wherein the drive circuit is configured to apply sufficient current to the selected base contact region to generate a nonequilibrium carrier concentration, in the interior of said semiconductor mass , which is more than thirty times as great as the off-state equilibrium majority carrier concentration in said semiconductor mass ; and wherein the bidirectional power switching circuit further comprises oxide-filled trenches between each of said first and second emitter/collector regions (1304; 1304B; 1404; 1504) and the respective adjacent base contact regions . a bidirectional switch comprising first and second first-conductivity-type emitter/collector regions (1304; 1304B; 1404; 1504), each on opposing respective faces of a second-conductivity-type semiconductor mass , and first and second second-conductivity-type base contact regions , each on the same face of said semiconductor mass as, and adjacent to, said first and second emitter/collector regions (1304; 1304B; 1404; 1504) respectively, thereby forming respective emitter-base junctions on the opposing faces of said semiconductor mass ; control circuitry; and a drive circuit which, when the control circuitry selects the bidirectional switch for turn-on, is configured to drive a selected one of said first and second base contact regions , to forward bias an associated emitter-base junction to thereby permit majority carriers to flow therefrom to the other emitter/collector region (1304; 1304B; 1404; 1504) on the opposing face of said semiconductor mass ; wherein the drive circuit is configured to apply sufficient current to the selected base contact region to generate a nonequilibrium carrier concentration, in the interior of said semiconductor mass , which is more than thirty times as great as the off-state equilibrium majority carrier concentration in said semiconductor mass ; and wherein the bidirectional power switching circuit further comprises oxide-filled trenches between each of said first and second emitter/collector regions (1304; 1304B; 1404; 1504) and the respective adjacent base contact regions .
A polyisoolefin-based polymer composition comprising a multimodal molecular weight distribution comprising a low molecular weight fraction having a peak molecular weight (M p ) of less than 100,000 g/mol and a high molecular weight fraction having a peak molecular weight (M p ) of greater than 250,000 g/mol, the low molecular weight fraction present in the composition in an amount less than the high molecular weight fraction, wherein the molecular weight is determined by gel permeation chromatography (GPC) and, wherein the low molecular weight fraction comprises a chain transfer agent incorporated therein.
A cable lock adapted to temporarily maintain a static position along a cable strung through an article of footwear or apparel, the cable lock comprising: a housing defining an aperture , the housing formed from a first material and the aperture extending through a thickness of the housing ; an insert provided at least partially within the aperture and defines an opening to receive the cable , the insert formed from a second material, characterised in that the second material is softer than the first material, the insert comprising a plurality of cable engaging features extending radially inward from a perimeter of the aperture , the plurality of cable engaging features being adapted to deflect away from a neutral, unstressed plane when a cable is drawn through the opening . a housing defining an aperture , the housing formed from a first material and the aperture extending through a thickness of the housing ; an insert provided at least partially within the aperture and defines an opening to receive the cable , the insert formed from a second material, characterised in that the second material is softer than the first material, the insert comprising a plurality of cable engaging features extending radially inward from a perimeter of the aperture , the plurality of cable engaging features being adapted to deflect away from a neutral, unstressed plane when a cable is drawn through the opening .
A computer-implemented method comprising: calculating , by a processor, a confidence level for an attribute of one or more links of a navigation route based on a completeness of map data in an area including the navigation route; determining a specificity level of a navigation guidance command based on the confidence level; generating the navigation guidance command at the determined specificity level, wherein a first level of the specificity level is a directional heading specificity that results in generating the navigation guidance command to indicate only a general directional heading to travel towards to reach a destination or a waypoint of the navigation route; wherein a second level of the specificity level is turn specificity that results in generating the navigation guidance command to indicate that a driver should take a next available turn to reach the destination or the waypoint without identifying a specific link on which to make a next maneuver; and wherein a third level of the specificity level is a standard specificity that results in generating the navigation guidance command to indicate the specific link on which to make the next maneuver; and presenting the navigation guidance command in a user interface of a navigation device. calculating , by a processor, a confidence level for an attribute of one or more links of a navigation route based on a completeness of map data in an area including the navigation route; determining a specificity level of a navigation guidance command based on the confidence level; generating the navigation guidance command at the determined specificity level, wherein a first level of the specificity level is a directional heading specificity that results in generating the navigation guidance command to indicate only a general directional heading to travel towards to reach a destination or a waypoint of the navigation route; wherein a second level of the specificity level is turn specificity that results in generating the navigation guidance command to indicate that a driver should take a next available turn to reach the destination or the waypoint without identifying a specific link on which to make a next maneuver; and wherein a third level of the specificity level is a standard specificity that results in generating the navigation guidance command to indicate the specific link on which to make the next maneuver; and presenting the navigation guidance command in a user interface of a navigation device.
A subassembly for an implantable medical device, comprising: a rigid insulative core having a long axis ; a core opening along the long axis ; an alternating series of contacts and seals in the core opening ; a plurality of contact openings in the core along and perpendicular to the long axis , wherein one of the contacts is accessible through each of the contact openings ; a connector block opening in the core and perpendicular to the long axis ; and a connector block in the connector block opening having a lead opening configured to receive a proximal end of a medical lead and to pass the proximal end along the long axis through the core opening ; wherein the core comprises major faces defining a three-dimensional rectangle, with short sides perpendicular to the long axis , and long sides parallel to the long axis . a rigid insulative core having a long axis ; a core opening along the long axis ; an alternating series of contacts and seals in the core opening ; a plurality of contact openings in the core along and perpendicular to the long axis , wherein one of the contacts is accessible through each of the contact openings ; a connector block opening in the core and perpendicular to the long axis ; and a connector block in the connector block opening having a lead opening configured to receive a proximal end of a medical lead and to pass the proximal end along the long axis through the core opening ;
An exhaust gas cleaning system comprising: a lean NOx trap type exhaust gas purifying catalyst comprising: a catalyst noble metal selected from a group consisting of platinum, palladium and rhodium, an inorganic oxide that carries the catalyst noble metal, and at least one NOx adsorbent one selected from a group of magnesium, barium, sodium, potassium and cesium, the inorganic oxide carrying palladium containing cerium in a CeO 2 - equivalent quantity in the range of 1 to 20 wt%, and aluminum and/or zirconium; a lean NOx trap type exhaust gas purifying catalytic converter containing a quantity of the lean NOx trap type exhaust gas purifying catalyst; and an additional catalytic converter containing a quantity of a catalyst noble metal and located on the upstream side from the lean NOx trap type exhaust gas purifying catalytic converter with respect to the exhaust gas flow direction, the quantity of the catalyst noble metal in the lean NOx trap type exhaust gas purifying catalytic converter to the quantity of the catalyst noble metal in the additional catalytic converter being in a ratio by mass in the range of 1 to 1.6. a catalyst noble metal selected from a group consisting of platinum, palladium and rhodium, an inorganic oxide that carries the catalyst noble metal, and at least one NOx adsorbent one selected from a group of magnesium, barium, sodium, potassium and cesium, the inorganic oxide carrying palladium containing cerium in a CeO 2 - equivalent quantity in the range of 1 to 20 wt%, and aluminum and/or zirconium; a lean NOx trap type exhaust gas purifying catalytic converter containing a quantity of the lean NOx trap type exhaust gas purifying catalyst; and an additional catalytic converter containing a quantity of a catalyst noble metal and located on the upstream side from the lean NOx trap type exhaust gas purifying catalytic converter with respect to the exhaust gas flow direction, the quantity of the catalyst noble metal in the lean NOx trap type exhaust gas purifying catalytic converter to the quantity of the catalyst noble metal in the additional catalytic converter being in a ratio by mass in the range of 1 to 1.6.
An apparatus for cyclical plasma etching of a substrate, the apparatus comprising: a process chamber; a support within the process chamber for receiving the substrate to be etched; a controller for repeatedly applying a dosing step and a bombardment step respectively; a dosing controller for controlling the flow of a process gas in the dosing step such that the substrate is exposed to a maximum dose of process gas in use of 1000 Langmuirs and said dose is controllable within an accuracy of 1 Langmuir; and a first signal generator coupled to the process chamber and a second signal generator coupled to the support within the process chamber, the first and second signal generators being configured such that in use positive ions of a plasma active species within the process chamber have a substrate bombardment energy in the range of 10eV to 100eV which is controllable within an accuracy of 5eV characterised in that : the apparatus further comprises an attenuator coupled to the second signal generator that allows the second signal generator to operate in use with a first bias power and a second bias power in a sequential manner, the second bias power being attenuated with respect to the first bias power, or vice versa, and preferably wherein the first signal generator is further coupled to an electrostatically screened induction coupled plasma source. a process chamber; a support within the process chamber for receiving the substrate to be etched; a controller for repeatedly applying a dosing step and a bombardment step respectively; a dosing controller for controlling the flow of a process gas in the dosing step such that the substrate is exposed to a maximum dose of process gas in use of 1000 Langmuirs and said dose is controllable within an accuracy of 1 Langmuir; and a first signal generator coupled to the process chamber and a second signal generator coupled to the support within the process chamber, the first and second signal generators being configured such that in use positive ions of a plasma active species within the process chamber have a substrate bombardment energy in the range of 10eV to 100eV which is controllable within an accuracy of 5eV characterised in that : the apparatus further comprises an attenuator coupled to the second signal generator that allows the second signal generator to operate in use with a first bias power and a second bias power in a sequential manner, the second bias power being attenuated with respect to the first bias power, or vice versa, and preferably wherein the first signal generator is further coupled to an electrostatically screened induction coupled plasma source.
A hydrogen- storage device , comprising: - an inner core material ; - an outer coating ; and - a hydrogen releasing interface in the outer coating ; wherein the inner core material comprises a composite containing a matrix material comprising porous carbon-containing material, and a hydrogen-storage material comprising chemically bonded hydrogen, wherein the porous carbon-containing material has a density of 1-100 mg/cm 3 . - an inner core material ; - an outer coating ; and - a hydrogen releasing interface in the outer coating ; wherein the inner core material comprises a composite containing a matrix material comprising porous carbon-containing material, and a hydrogen-storage material comprising chemically bonded hydrogen,