mhurhangee/ep-ind-claims huggingface dataset:
An electrically isolated LED driver circuit, comprising: - a control circuit at a primary side of the LED driver circuit, - a switch at a secondary side of the LED driver circuit, - a semiconductor element, and - at least one capacitive element; wherein the control circuit is configured to control the switch in a cycled manner; wherein the at least one capacitive element is configured to couple the primary side and the secondary side in an electrically isolated manner; and wherein the semiconductor element is configured to enable discharging of the at least one capacitive element, wherein the control circuit is configured to output a control signal to control the switch, and wherein the LED driver circuit further comprises an amplifying circuit on the secondary side configured to amplify the control signal. - a control circuit at a primary side of the LED driver circuit, - a switch at a secondary side of the LED driver circuit, - a semiconductor element, and - at least one capacitive element; wherein the control circuit is configured to control the switch in a cycled manner; wherein the at least one capacitive element is configured to couple the primary side and the secondary side in an electrically isolated manner; and wherein the semiconductor element is configured to enable discharging of the at least one capacitive element, wherein the control circuit is configured to output a control signal to control the switch, and wherein the LED driver circuit further comprises an amplifying circuit on the secondary side configured to amplify the control signal.
An imaging system, for a camera, having an associated IR illuminator, the imaging system comprising an IR-filter arrangement comprising - a fixedly arranged bandpass IR filter filtering out IR frequencies other than those from the IR illuminator, and - an IR cut filter at least blocking any IR wavelength transmitted by the fixed band-pass IR filter, said IR cut filter being integrated in a diaphragm of the imaging system, such that closing of the diaphragm aperture entails an increased relative proportion of the diaphragm aperture being covered by the IR cut filter, and opening of the diaphragm aperture entails a decreased relative proportion of the diaphragm aperture being covered by the IR cut filter. - a fixedly arranged bandpass IR filter filtering out IR frequencies other than those from the IR illuminator, and - an IR cut filter at least blocking any IR wavelength transmitted by the fixed band-pass IR filter, said IR cut filter being integrated in a diaphragm of the imaging system, such that closing of the diaphragm aperture entails an increased relative proportion of the diaphragm aperture being covered by the IR cut filter, and opening of the diaphragm aperture entails a decreased relative proportion of the diaphragm aperture being covered by the IR cut filter.
A vehicle interior panel, comprising: a substrate; a capacitive touch panel supported over the substrate, the capacitive touch panel comprising a film layer providing an outer control surface facing away from the substrate and a transparent electrically conductive layer between the outer control surface and the substrate; and a pusher extending between the substrate and the touch panel, the pusher being changeable between a retracted condition and an extended condition, a light source between the substrate and the touch panel, wherein at least a portion of the touch panel is at least partly transparent and permits light from the light source to be emitted from the interior panel through the touch panel, wherein the capacitive touch panel is sufficiently flexible to elastically change between a first shape, in which the outer control surface has a first contour, and a second shape, in which the outer control surface has a second contour different from the first contour, wherein the touch panel is configured to assume the first shape when the pusher is in the retracted condition and to assume the second shape when the pusher is in the extended condition, wherein the conductive layer maintains electrical continuity when the touch panel changes between the first and second shapes, wherein the light source is located on a moving portion of the pusher and configured to illuminate a control area of the panel at the outer control surface, wherein the second contour comprises a debossed portion co-located with the control area. a substrate; a capacitive touch panel supported over the substrate, the capacitive touch panel comprising a film layer providing an outer control surface facing away from the substrate and a transparent electrically conductive layer between the outer control surface and the substrate; and a pusher extending between the substrate and the touch panel, the pusher being changeable between a retracted condition and an extended condition, a light source between the substrate and the touch panel, wherein at least a portion of the touch panel is at least partly transparent and permits light from the light source to be emitted from the interior panel through the touch panel, wherein the capacitive touch panel is sufficiently flexible to elastically change between a first shape, in which the outer control surface has a first contour, and a second shape, in which the outer control surface has a second contour different from the first contour, wherein the touch panel is configured to assume the first shape when the pusher is in the retracted condition and to assume the second shape when the pusher is in the extended condition, wherein the conductive layer maintains electrical continuity when the touch panel changes between the first and second shapes, wherein the light source is located on a moving portion of the pusher and configured to illuminate a control area of the panel at the outer control surface, wherein the second contour comprises a debossed portion co-located with the control area.
Dental cannula, which forms an attachment piece for a dental syringe for dispensing fluid media, wherein the cannula has: • a rear coupling region, which is designed for coupling to a dental handpiece that provides the media, • a front end region with at least one outlet opening (71, 72, 74) for dispensing the fluid media, and • at least two elongate media lines (11, 12) extending from the coupling region to the front end region, for guiding the media from the rear coupling region to the outlet opening at the front end region of the cannula, wherein the media lines (11, 12) are formed, at least in some sections, by channels (51, 52) in a plastic body which consists of two one-piece plastic parts (60a, 60b), which are sealingly connected to each other along a connection plane in which the channels (51, 52) run, wherein the two media lines (11, 12, 13) are brought together, in the front end region of the cannula, in a mixing chamber and open into a common outlet opening, characterized in that, in the region of the mixing chamber, a nozzle, formed by a separate insert part, is arranged for mixing the media transferred through the two media lines. • a rear coupling region, which is designed for coupling to a dental handpiece that provides the media, • a front end region with at least one outlet opening (71, 72, 74) for dispensing the fluid media, and • at least two elongate media lines (11, 12) extending from the coupling region to the front end region, for guiding the media from the rear coupling region to the outlet opening at the front end region of the cannula, wherein the media lines (11, 12) are formed, at least in some sections, by channels (51, 52) in a plastic body which consists of two one-piece plastic parts (60a, 60b), which are sealingly connected to each other along a connection plane in which the channels (51, 52) run, wherein the two media lines (11, 12, 13) are brought together, in the front end region of the cannula, in a mixing chamber and open into a common outlet opening, characterized in that, in the region of the mixing chamber, a nozzle, formed by a separate insert part, is arranged for mixing the media transferred through the two media lines.
A coffin comprising a casket and a lid, wherein the casket comprises: a support member comprising bottom and side portions composed of paperboard, corrugated board or other suitable foldable material; a casket wrapper comprising bottom and upright portions adapted to receive the support member, an upper edge of the upright portion comprising a pocket; an inner liner depending from the pocket within the support member to form a lining for the side portion of the support member; the lid comprising an upper support member comprising a top portion and side portions composed of paperboard, corrugated board or other suitable foldable material, forming a lid comprising a cover and side portions dimensioned to receive the side portions of the casket to close the coffin; wherein the casket wrapper is composed of biodegradable textile material. a support member comprising bottom and side portions composed of paperboard, corrugated board or other suitable foldable material; a casket wrapper comprising bottom and upright portions adapted to receive the support member, an upper edge of the upright portion comprising a pocket; an inner liner depending from the pocket within the support member to form a lining for the side portion of the support member; the lid comprising an upper support member comprising a top portion and side portions composed of paperboard, corrugated board or other suitable foldable material, forming a lid comprising a cover and side portions dimensioned to receive the side portions of the casket to close the coffin; wherein the casket wrapper is composed of biodegradable textile material.
A sheet material for a window with a frame member in which a resin frame member is molded integrally on at least one of an indoor side surface and a peripheral surface of the sheet material for a window at a circumferential edge portion thereof, wherein the sheet material for a window comprises a chamfered surface on the circumferential edge portion, characterized in that in a plan view of the sheet material for a window, a chamfered width w of the chamfered surface and a curvature radius r of a corner portion of a non-chamfered area satisfy w ≥ r and r < 3 mm.
Multi-layer, expandable sleeve for a printing press cylinder wherein the sleeve comprises, from the inside outwards, at least: a hard surface inner jacket, preferably made of composite fibre material, that defines a longitudinal axis and a cavity for mounting the sleeve on the cylinder, an intermediate layer, manufactured in the form of a lightweight honeycomb with honeycomb cells, and a compression-proof outer jacket, preferably made of composite fibre material, for carrying an outer shell, a printing plate or a separate outer sleeve, characterised in that the intermediate layer comprises at least one honeycomb layer made of previously cured fibre composite honeycomb that consists of fibre material embedded in a resin matrix, wherein the fibre composite honeycomb has been shaped so that the central axes of the honeycomb cells are oriented as radially as possible with respect to the longitudinal axis. a hard surface inner jacket, preferably made of composite fibre material, that defines a longitudinal axis and a cavity for mounting the sleeve on the cylinder, an intermediate layer, manufactured in the form of a lightweight honeycomb with honeycomb cells, and a compression-proof outer jacket, preferably made of composite fibre material, for carrying an outer shell, a printing plate or a separate outer sleeve,
A method performed by a terminal in a wireless communication system, the method characterised by: receiving, from a first base station for a first a radio access technology, RAT, at least one message including location information of a second base station for a second RAT, wherein the first RAT is a 4G RAT, and the second RAT is a 5G RAT; identifying at least one of a moving direction, a moving speed, and a moving path of the terminal; determining whether a wireless communication service provided by the second base station is available based on the location information of the second base station and at least one of the moving direction, the moving speed, and the moving path of the terminal; and generating a signal for connecting to the second base station based on a result of the determination. receiving, from a first base station for a first a radio access technology, RAT, at least one message including location information of a second base station for a second RAT, wherein the first RAT is a 4G RAT, and the second RAT is a 5G RAT; identifying at least one of a moving direction, a moving speed, and a moving path of the terminal; determining whether a wireless communication service provided by the second base station is available based on the location information of the second base station and at least one of the moving direction, the moving speed, and the moving path of the terminal; and generating a signal for connecting to the second base station based on a result of the determination.
Film comprising a linear low density polyethylene - having a density in the range from 915 kg/m 3 to at most 925 kg/m 3 as determined using ISO1872-2, - having a molecular weight distribution (M w /M n) in the range from 2.5 to 3.5 - having an area under the peak in the temperature range from 20 to 40°C determined using an analytical temperature rising elution fractionation analysis using 1,2-dichlorobenzene and a heating rate of 1°C/min, wherein the area is in the range from 5 to 20% of the sum of the areas under all peaks determined with the analytical temperature rising elution fractionation analysis, wherein the amount of zirconium us in the range from 0.01 to 10ppm based on the linear low density polyethylene. - having a density in the range from 915 kg/m 3 to at most 925 kg/m 3 as determined using ISO1872-2, - having a molecular weight distribution (M w /M n) in the range from 2.5 to 3.5 - having an area under the peak in the temperature range from 20 to 40°C determined using an analytical temperature rising elution fractionation analysis using 1,2-dichlorobenzene and a heating rate of 1°C/min, wherein the area is in the range from 5 to 20% of the sum of the areas under all peaks determined with the analytical temperature rising elution fractionation analysis,
Robot having a device for area monitoring, wherein at least one area of a rotary movement about at least one robot axis is monitored, wherein initiators (2.2, 2.21-2.26; 4.8; 6.8) cooperating with part annular cams (3.8, 4.6, 6.6) arranged coaxially to the axis for monitoring (A1, A2, A3) are provided and the initiators (2.2, 2.21-2.26; 4.8; 6.8) are connected to an evaluating device and wherein an initiator (2.2, 2.21-2.26; 4.8; 6.8) operating as an opener is associated with a cam corresponding to the danger area and an initiator operating as a closer is associated with a cam corresponding to the release area for the same area to be monitored.
Pipe section comprising at least two connected jacking pipes (2, 4), wherein a first jacking pipe has a sleeve end with a steel guide ring and a second jacking pipe has a pointed end, held in the sleeve end, with an elastomer seal, each jacking pipe (2, 4) having a steel-reinforced outer jacket, a steel-reinforced inner jacket and an intermediate jacket arranged between inner jacket and outer jacket and connected thereto, wherein the inner jacket extends over a shorter axial length than the intermediate jacket, and an inside gap region between the inner jackets is formed within a connecting area between the jacking pipes (2,4), whereby exposed terminal sections (34, 36) of the intermediate jackets of the jacking pipes (2, 4) within the inside gap region are tightly connected by a circumferential flexible cover element, the intermediate jackets consisting of steel and within the area of the internal gap region each having a terminal section (34, 36) made of plastic or high-grade steel, which is bonded or welded to the remaining intermediate jacket, the cover element consisting of plastic or high-grade steel and bonded or welded to the terminal sections (34, 36) of the intermediate jackets.
Use of an effective amount of a peptide having the amino acid sequence NH 2 -lys-lys-val-val-phe-lys-val-lys-phe-lys-CONH 2 for the manufacture of a medicament to be administered to the human mouth in order to prevent development of plaque or caries on a human tooth, wherein the human mouth comprises microorganisms, and wherein the microorganisms are Fusobacterium nucleatum, Peptostreptococcus micros, Eubacterium timidum, Eubacterium brachy, Lactobacillus spp., Actinomyces naeslundii, Pseudomonas anaerobius, Eubacterium sp. strain D8, Prevotella intermedia, Fusobacterium sp., Selenomonas sputigena, Eubacterium sp. strain D6, Bacteroides pneumosintes, Haemophilus aphrophilus, Actinomyces israelli, S. mutans, S. gordonii, S. sanguis, S. oralis, S. sobrinus, S. salivarius, S. mitis, L. salivarius, Porphyromonas gingivalis, Tanerella forsythensis, Dialister pneumosintes, Veillonella parvula, L. acidophilus, Staphylococcus aureus ATCC 6538, Methicillin-resistant Staphylococcus aureus, Staphylococcus epidermis ATCC 12228, Micrococcus luteus ATCC 9341, Mycobacterium smegmatis ATCC 607, Corynebacterium diphtheriae A TCC 8024, Escherichia coli ATCC 2592, Pseudomonas aeruginosa ATCC 9027, Proteus vulgaris ATCC 6380, or Shigella flexneri ATCC 203.
A computer implemented method for audio bandwidth dependent noise suppression comprising: detecting the audio bandwidth of an audio signal responsive to one or more audio indicators; calculating noise suppression gains responsive to the audio signal; modifying the noise suppression gains responsive to the detected audio bandwidth, where modifying the noise suppression gains responsive to the detected audio bandwidth is based on modifying noise floor associated with the noise suppression gains to a maximum; the modified noise suppression gains limit noise attenuation applied to the audio signal in response to the detected audio bandwidth; and applying the modified noise suppression gains to the audio signal. detecting the audio bandwidth of an audio signal responsive to one or more audio indicators; calculating noise suppression gains responsive to the audio signal; modifying the noise suppression gains responsive to the detected audio bandwidth, where modifying the noise suppression gains responsive to the detected audio bandwidth is based on modifying noise floor associated with the noise suppression gains to a maximum; the modified noise suppression gains limit noise attenuation applied to the audio signal in response to the detected audio bandwidth; and applying the modified noise suppression gains to the audio signal.
An automatic power factor correction analysis method, comprising: automatically determining a hierarchy of an electrical system, the hierarchy indicating how a number of intelligent electronic devices (IEDs) are linked to one another in the electrical system, each of the IEDs monitoring electrical characteristics; automatically storing a data representation of the hierarchy; automatically identifying from the automatically determined hierarchy a main IED that is monitoring a main power supply in the hierarchy; receiving maximum power data from corresponding current and voltage signals monitored by the main IED and an associated power factor that is coincident with the maximum power data; determining a reactive power value coincident with the maximum power data by receiving the reactive power value from the main IED or by deriving the reactive power value from the maximum power data or from data representing the current and voltage signals and the power factor coincident with the maximum power data; and calculating, based on the coincident power factor, an amount of positive or negative reactive power to supply to improve the coincident power factor toward a unity value, and, responsive thereto, storing a recommendation indicating at least a location and a size of one or more capacitors to be added in the automatically determined hierarchy for producing at least the amount of the reactive power such that the reactive power value is offset by the amount of the reactive power. automatically determining a hierarchy of an electrical system, the hierarchy indicating how a number of intelligent electronic devices (IEDs) are linked to one another in the electrical system, each of the IEDs monitoring electrical characteristics; automatically storing a data representation of the hierarchy; automatically identifying from the automatically determined hierarchy a main IED that is monitoring a main power supply in the hierarchy; receiving maximum power data from corresponding current and voltage signals monitored by the main IED and an associated power factor that is coincident with the maximum power data; determining a reactive power value coincident with the maximum power data by receiving the reactive power value from the main IED or by deriving the reactive power value from the maximum power data or from data representing the current and voltage signals and the power factor coincident with the maximum power data; and calculating, based on the coincident power factor, an amount of positive or negative reactive power to supply to improve the coincident power factor toward a unity value, and, responsive thereto, storing a recommendation indicating at least a location and a size of one or more capacitors to be added in the automatically determined hierarchy for producing at least the amount of the reactive power such that the reactive power value is offset by the amount of the reactive power.
A method of forming a fuel cell separator, the method comprising subjecting a surface of an article molded from a composition comprising a graphite powder, an epoxy resin and a phenolic resin to roughening treatment, followed by infrared laser irradiation treatment and, additionally, hydrophilizing treatment, wherein the roughening treatment comprises roughening to an arithmetic mean roughness Ra of from 0.2 to 1.2 μm, a roughness curve element mean length RSm of from 100 to 200 μm, and a mean interval S between local peaks of 20 to 80 μm; and the resin is removed from the surface of the molded article by the infrared laser irradiation treatment, wherein the resultant fuel cell separator possesses characteristics and below: an initial static contact angle of 20° or less; and a static contact angle after 3,000 hours of atmospheric storage following production of 30° or less. an initial static contact angle of 20° or less; and a static contact angle after 3,000 hours of atmospheric storage following production of 30° or less.