mhurhangee/ep-ind-claims huggingface dataset:
An apparatus for testing a passive optical network comprising an optical line terminal, a plurality of optical network units (206-1..206-m, 208-1..208-n) including a first optical network unit, and an optical distribution network for carrying bidirectional optical traffic between the optical line terminal and the first optical network unit, the bidirectional optical traffic comprising downstream traffic from the optical line terminal to the first optical network unit, and upstream traffic from the first optical network unit to the optical line terminal, wherein the optical line terminal is configured to use an activation procedure for establishing communication with the first optical network unit, the apparatus comprising: an optical circuit comprising an optical coupler and first and second test ports for optically coupling the optical circuit into the optical distribution network between the optical line terminal and the first optical network unit, the optical coupler comprising first and second through ports for carrying the bidirectional optical traffic therebetween, and a first drop port for dropping a portion of the upstream traffic, wherein the first through port is optically coupled to the first test port; an upstream receiver optically coupled to the first drop port for receiving the upstream traffic portion; and a controller operationally coupled to the upstream receiver and configured to: capture the upstream traffic portion received by the upstream receiver during the activation procedure; and extract identification information of the first optical network unit from the captured upstream traffic portion. an optical circuit comprising an optical coupler and first and second test ports for optically coupling the optical circuit into the optical distribution network between the optical line terminal and the first optical network unit, the optical coupler comprising first and second through ports for carrying the bidirectional optical traffic therebetween, and a first drop port for dropping a portion of the upstream traffic, wherein the first through port is optically coupled to the first test port; an upstream receiver optically coupled to the first drop port for receiving the upstream traffic portion; and a controller operationally coupled to the upstream receiver and configured to: capture the upstream traffic portion received by the upstream receiver during the activation procedure; and extract identification information of the first optical network unit from the captured upstream traffic portion. capture the upstream traffic portion received by the upstream receiver during the activation procedure; and extract identification information of the first optical network unit from the captured upstream traffic portion.
System comprising a control device and a high-speed circuit-breaker, said control device comprising a drive relay the input terminal of which is connected to electric supply means and the output terminal is connected to a power transistor, the output terminal of the power transistor being connected to said high-speed circuit-breaker, the device further comprising means for continuously checking the operation state of said power transistor, said continuous check means comprising a circuit for controlling the power transistor capable of generating a predetermined electric pulse for switching said power transistor, a malfunction of said power transistor being detected when the latter does not switch in response to said predetermined electric pulse.
An apparatus (100a, 100b) for estimating bio-information, the apparatus comprising: a sensor configured to measure a pulse wave signal from an object and contact pressure of the object; and a processor configured to: obtain an oscillometric envelope based on an amplitude of the pulse wave signal and the contact pressure, obtain a maximum amplitude value M1 of the pulse wave signal in the oscillometric envelope as a first feature, determine a first contact pressure value CP1 and a second contact pressure value CP2 corresponding to an amplitude value M2, which is a predetermined percentage of the maximum amplitude value M1 in the oscillometric envelope, as a second feature, obtain a contact pressure value MAP cm corresponding to a center of mass of a region between the first contact pressure value CP1 and the second contact pressure value CP2 of the oscillometric envelope, as a third feature, zmd estimate bio-information by combining the first feature, the second featue, and the third feature, and output the estimation result of bio-information. a sensor configured to measure a pulse wave signal from an object and contact pressure of the object; and a processor configured to: obtain an oscillometric envelope based on an amplitude of the pulse wave signal and the contact pressure, obtain a maximum amplitude value M1 of the pulse wave signal in the oscillometric envelope as a first feature, determine a first contact pressure value CP1 and a second contact pressure value CP2 corresponding to an amplitude value M2, which is a predetermined percentage of the maximum amplitude value M1 in the oscillometric envelope, as a second feature, obtain a contact pressure value MAP cm corresponding to a center of mass of a region between the first contact pressure value CP1 and the second contact pressure value CP2 of the oscillometric envelope, as a third feature, zmd estimate bio-information by combining the first feature, the second featue, and the third feature, and output the estimation result of bio-information. obtain an oscillometric envelope based on an amplitude of the pulse wave signal and the contact pressure, obtain a maximum amplitude value M1 of the pulse wave signal in the oscillometric envelope as a first feature, determine a first contact pressure value CP1 and a second contact pressure value CP2 corresponding to an amplitude value M2, which is a predetermined percentage of the maximum amplitude value M1 in the oscillometric envelope, as a second feature, obtain a contact pressure value MAP cm corresponding to a center of mass of a region between the first contact pressure value CP1 and the second contact pressure value CP2 of the oscillometric envelope, as a third feature, zmd estimate bio-information by combining the first feature, the second featue, and the third feature, and output the estimation result of bio-information.
A clamping device having a clamping chuck and a workpiece carrier which can be fixed thereto in a detachable manner, the clamping chuck being provided with a clamping mechanism for fixing the workpiece carrier and the clamping mechanism having a multiplicity of clamping elements, which are constructed for bearing against a clamping surface of the workpiece carrier running along the outer circumferential surface, the clamping elements being constructed as slide elements and having a front part provided with a pressure surface, which front part bears flat against the clamping surface of the workpiece carrier during clamping, the slide elements being loaded by means of compression springs, the longitudinal axis of which runs parallel to the sliding direction of the slide elements and the respective slide element being pressed in the direction of a workpiece carrier accommodated in the clamping chuck under the action of the compression springs, and the clamping chuck having an externally actuated actuating element, by means of which the slide elements can be displaced counter to the force of the compression springs, characterized in that the actuating element is constructed in the form of an annular piston, which has an extension provided with an oblique pressure surface for the displacement of the slide elements.
An inflatable-cushion inflation and sealing device, comprising: an inflation assembly configured for inflating with a fluid a cushion cavity disposed between first and second layers of a film; a sealing assembly comprising first and second assembly portions configured for receiving overlapping portions of the first and second film layers adjacent the inflated cavity and for cooperatively driving the overlapping portions along a sealing direction and for applying sufficient pressure to the overlapping portions to substantially keep the fluid from escaping from between the overlapping portions and to seal the overlapping portions to each other and to form a longitudinal seal configured to seal the fluid in the cushion cavity; a disengagement mechanism associated with the first and second assembly portions (72,74) for moving the first assembly portion relative to the second assembly portion for reversibly disengaging the first and second assembly portions for releasing the pressure therebetween; and characterized in that the inflatable-cushion inflation and sealing device further comprises a handle mounted pivotally with respect to at least one of the assembly portions and operably associated with the disengagement mechanism for engaging the assembly portions when in an engaged position, and disengaging the assembly portions when in a disengaged position, wherein the handle extends over the first portion in the engaged position. an inflation assembly configured for inflating with a fluid a cushion cavity disposed between first and second layers of a film; a sealing assembly comprising first and second assembly portions configured for receiving overlapping portions of the first and second film layers adjacent the inflated cavity and for cooperatively driving the overlapping portions along a sealing direction and for applying sufficient pressure to the overlapping portions to substantially keep the fluid from escaping from between the overlapping portions and to seal the overlapping portions to each other and to form a longitudinal seal configured to seal the fluid in the cushion cavity; a disengagement mechanism associated with the first and second assembly portions (72,74) for moving the first assembly portion relative to the second assembly portion for reversibly disengaging the first and second assembly portions for releasing the pressure therebetween; and characterized in that the inflatable-cushion inflation and sealing device further comprises a handle mounted pivotally with respect to at least one of the assembly portions and operably associated with the disengagement mechanism for engaging the assembly portions when in an engaged position, and disengaging the assembly portions when in a disengaged position, wherein the handle extends over the first portion in the engaged position.
Method for determining a maximum final speed (v max) of a motor vehicle before the start of a speed limit area, comprising the steps of: - determining (A1, A2, A3) a current motor vehicle speed (v), a speed limit value (v G) of an imminent speed limit area and a distance (d z) from the start of the speed limit area, - estimating a time (t) to the speed limit area on the basis of the previously determined values (v, v G,d z), - determining a speed increase (Δv) with respect to the current motor vehicle speed (v), - estimating a deceleration (a V) such that, on the basis of the current motor vehicle speed (v), the speed increase (Δv) and the distance (d z) from the start of the speed limit area, the speed limit value (v G) is present at the start of the speed limit area, and - reducing the determined speed increase (Δ V), characterized in that - the speed increase (Δv) with respect to the current motor vehicle speed (v) depends on the time (t) to the speed limit area, - the determined speed increase (Δv) is reduced if the estimated deceleration (a V) is above a deceleration limit value (a G). - determining (A1, A2, A3) a current motor vehicle speed (v), a speed limit value (v G) of an imminent speed limit area and a distance (d z) from the start of the speed limit area, - estimating a time (t) to the speed limit area on the basis of the previously determined values (v, v G,d z), - determining a speed increase (Δv) with respect to the current motor vehicle speed (v), - estimating a deceleration (a V) such that, on the basis of the current motor vehicle speed (v), the speed increase (Δv) and the distance (d z) from the start of the speed limit area, the speed limit value (v G) is present at the start of the speed limit area, and - reducing the determined speed increase (Δ V), - the speed increase (Δv) with respect to the current motor vehicle speed (v) depends on the time (t) to the speed limit area, - the determined speed increase (Δv) is reduced if the estimated deceleration (a V) is above a deceleration limit value (a G).
Kitchen appliance, which comprises, - a container for receiving one or more ingredients for a foodstuff; - a user interface; - a weighing element which is designed to detect weight data in respect of the container; - a read unit which is designed to read out information from an information element arranged on a packaging of an ingredient; and - a control unit, which is designed - to determine density information in respect of a density of the specific ingredient in the container on the basis of the information, detected by way of the read unit, from an information element on the packaging of a specific ingredient in the container; - to determine weight data relating to the specific ingredient in the container; - to determine volume data in respect of a volume of the specific ingredient in the container on the basis of the weight data and on the basis of the density information; and - to output volume data by way of the user interface. - a container for receiving one or more ingredients for a foodstuff; - a user interface; - a weighing element which is designed to detect weight data in respect of the container; - a read unit which is designed to read out information from an information element arranged on a packaging of an ingredient; and - a control unit, which is designed - to determine density information in respect of a density of the specific ingredient in the container on the basis of the information, detected by way of the read unit, from an information element on the packaging of a specific ingredient in the container; - to determine weight data relating to the specific ingredient in the container; - to determine volume data in respect of a volume of the specific ingredient in the container on the basis of the weight data and on the basis of the density information; and - to output volume data by way of the user interface. - to determine density information in respect of a density of the specific ingredient in the container on the basis of the information, detected by way of the read unit, from an information element on the packaging of a specific ingredient in the container; - to determine weight data relating to the specific ingredient in the container; - to determine volume data in respect of a volume of the specific ingredient in the container on the basis of the weight data and on the basis of the density information; and - to output volume data by way of the user interface.
Gel comprising a first gelatin component and a second gelatin component in an aqueous medium, wherein - the first gelatin component comprises gelatin particles comprising chemical cross-links and dehydrothermal cross-links; - the second gelatin component comprises a dissolved gelatin comprising chemical cross-links and at least one polysaccharide. - the first gelatin component comprises gelatin particles comprising chemical cross-links and dehydrothermal cross-links; - the second gelatin component comprises a dissolved gelatin comprising chemical cross-links and at least one polysaccharide.
A vaporizer for the sterilization of containers with a housing, with a first opening provided in the housing, in order to supply a gaseous medium to the housing, with an injection device, in order to inject a substance which contains hydrogen peroxide () into the housing, with a heating device arranged inside the housing in order to vaporize the hydrogen peroxide and with a second opening provided in the housing in order to remove a mixture of the gaseous medium and the vaporized hydrogen peroxide out of the housing, characterized in that the heating device has a line through which a flowable medium can flow, wherein this line is used for heating the heating device and is capable of being acted upon by the substance in such a way that the hydrogen peroxide (H 2 O 2) containing substance can reach directly to an outer surface of the line wherein the pipeline is shaped at least in sections spirally.
Threadlike metal or metallized reinforcer, at the periphery of which is positioned a layer of metal referred to as "surface metal" (Ms) chosen from copper, nickel and copper/nickel alloys, in which said surface metal layer (Ms) is itself coated, at least in part, with at least one layer of graphene (GR, GRf), characterized in that there is grafted, to the graphene, at least one functional group which can crosslink to a polymer matrix.
A catheter comprising: an elongated body (12, 30, 40, 50) comprising: a first coil member (18, 42, 52); a second coil member (20, 44, 54) interspaced with the first coil member (18, 42, 52), the first and second coil members (18, 42, 52, 20, 44, 54) comprising different materials; an inner liner; and an outer jacket positioned over the first and second coil members (18, 42, 52, 20, 44, 54) and securing the first and second coil members (18, 42, 52, 20, 44, 54) in place to the inner liner. a first coil member (18, 42, 52); a second coil member (20, 44, 54) interspaced with the first coil member (18, 42, 52), the first and second coil members (18, 42, 52, 20, 44, 54) comprising different materials; an inner liner; and an outer jacket positioned over the first and second coil members (18, 42, 52, 20, 44, 54) and securing the first and second coil members (18, 42, 52, 20, 44, 54) in place to the inner liner.
A method of generating one or more copies of a target DNA or part thereof, that contains a repeat of identical nucleotides, comprising the steps of: - altering one nucleotide in this repeat of identical nucleotides, or - altering different single nucleotides separated at intervals in said repeat of identical nucleotides into another nucleotide, in order to reduce said repeat of identical nucleotides into two or more smaller altered parts of said identical nucleotides in the copied molecules, - wherein this alteration is performed by using an oligonucleotide primer which extends in the unaltered repeat of identical nucleotides of the target polynucleotide, wherein said oligonucleotide primer comprises at the 5' side a sequence which hybridises with the sequence preceding the targeted sequence repeat in the target DNA sequence, but wherein said oligonucleotide is not 100% complementary with the sequence repeat in the target sequence. - altering one nucleotide in this repeat of identical nucleotides, or - altering different single nucleotides separated at intervals in said repeat of identical nucleotides into another nucleotide, in order to reduce said repeat of identical nucleotides into two or more smaller altered parts of said identical nucleotides in the copied molecules, - wherein this alteration is performed by using an oligonucleotide primer which extends in the unaltered repeat of identical nucleotides of the target polynucleotide, wherein said oligonucleotide primer comprises at the 5' side a sequence which hybridises with the sequence preceding the targeted sequence repeat in the target DNA sequence, but wherein said oligonucleotide is not 100% complementary with the sequence repeat in the target sequence.
A well system, comprising: a first well screen assembly comprising a first screen portion that is fluid permeable to a center bore of the first well screen assembly, and a first base pipe having a portion that is fluid impermeable to the center bore; a second well screen assembly comprising a second screen portion that is fluid permeable to a center bore of the second well screen assembly, and a second base pipe having a portion that is fluid impermeable to the center bore; a conduit (228,404) with fluid permeable sidewalls at the outer diameter of the first and second well screen assemblies (202,203) and configured to communicate fluid from the fluid impermeable portions of the first and second base pipes (205,207) to the fluid permeable first and second screen portions (210,215); characterized in that the well system further comprises a cover sleeve located around the portion of the first and second base pipes (205,207) that is fluid impermeable. a first well screen assembly comprising a first screen portion that is fluid permeable to a center bore of the first well screen assembly, and a first base pipe having a portion that is fluid impermeable to the center bore; a second well screen assembly comprising a second screen portion that is fluid permeable to a center bore of the second well screen assembly, and a second base pipe having a portion that is fluid impermeable to the center bore; a conduit (228,404) with fluid permeable sidewalls at the outer diameter of the first and second well screen assemblies (202,203) and configured to communicate fluid from the fluid impermeable portions of the first and second base pipes (205,207) to the fluid permeable first and second screen portions (210,215); characterized in that the well system further comprises a cover sleeve located around the portion of the first and second base pipes (205,207) that is fluid impermeable.
A method of manufacturing a light emitting device comprising: preparing a light-transmissive member including a light reflective sheet and a plurality of color conversion material layers, the light reflective sheet having a plurality of through-holes, the plurality of color conversion material layers including a light-transmissive resin containing a color conversion material, the plurality of color conversion material layers being disposed in the plurality of through-holes, preparing a plurality of light emitting elements, disposing the plurality of color conversion material layers on the plurality of light emitting elements, covering, after the disposing, side surfaces of the plurality of light emitting elements integrally with a light reflective member, and cutting the light-reflective member and the light-reflective sheet, wherein the plurality of through-holes and the plurality of color conversion material layers are at positions corresponding to the light emitting elements, and the disposing of the plurality of color conversion material layers on the plurality of light emitting elements includes collectively fixing the color conversion material layers to the light emitting elements respectively. preparing a light-transmissive member including a light reflective sheet and a plurality of color conversion material layers, the light reflective sheet having a plurality of through-holes, the plurality of color conversion material layers including a light-transmissive resin containing a color conversion material, the plurality of color conversion material layers being disposed in the plurality of through-holes, preparing a plurality of light emitting elements, disposing the plurality of color conversion material layers on the plurality of light emitting elements, covering, after the disposing, side surfaces of the plurality of light emitting elements integrally with a light reflective member, and cutting the light-reflective member and the light-reflective sheet, wherein the plurality of through-holes and the plurality of color conversion material layers are at positions corresponding to the light emitting elements, and the disposing of the plurality of color conversion material layers on the plurality of light emitting elements includes collectively fixing the color conversion material layers to the light emitting elements respectively.
Lithium manganese phosphate nanoparticles, having a ratio I 20 /I 29, the peak intensity at 20° to the peak intensity at 29° obtained by X-ray diffraction, of greater than or equal to 0.88 and less than or equal to 1.05, a crystallite size determined by X-ray diffraction of greater than or equal to 10 nm and less than or equal to 50 nm, and a ratio I 35/ I 29, the peak intensity at 35° to the peak intensity at 29° obtained by X-ray diffraction, of greater than or equal to 1.05 and less than or equal to 1.20.