mhurhangee/ep-ind-claims huggingface dataset:
An apparatus for releasably mounting access control components for a door lock to a door, the apparatus comprising: at least one first wire connector element; first means for mounting the at least one first wire connector element to the door; at least one second wire connector element releasably connected to the at least one first wire connector element; second means for mounting combustible material to the at least one second wire connector element; and means for urging the second means for mounting away from the first means for mounting when a predetermined temperature is exceeded, causing the at least one first wire connector element and the at least one second wire connector element to separate and disconnect. at least one first wire connector element; first means for mounting the at least one first wire connector element to the door; at least one second wire connector element releasably connected to the at least one first wire connector element; second means for mounting combustible material to the at least one second wire connector element; and means for urging the second means for mounting away from the first means for mounting when a predetermined temperature is exceeded, causing the at least one first wire connector element and the at least one second wire connector element to separate and disconnect.
A laminate web comprising a first and second precursor webs, the first precursor web being a nonwoven web, the second precursor web being a polymer film, the laminate web having a first side, the first side comprising the second precursor web and a plurality of discrete tufts, each of the discrete tufts having a linear orientation defining a longitudinal axis and comprising a plurality of tufted fibers (8,18) being integral extensions of the first precursor web and extending through the second precursor web; and a second side, the second side comprising the first precursor web.
An image generator comprising: a plurality of light sources (306, 308, 310) configured to produce a respective plurality of modulated light beams (312, 314, 316); a beam combiner configured to combine the plurality of modulated light beams (312, 314, 316) into a composite modulated light beam; a beam scanner configured to scan the composite modulated light beam in a two-dimensional pattern; a polarization rotator; and a guiding substrate configured to receive the scanned composite modulated light beam, guide the scanned composite modulated light beam from an input location to an output location, and launch the scanned composite modulated light beam (502, 504) from the output location into a viewing region; wherein: the guiding substrate includes a polarization-selective input structure configured to pass the composite modulated light beam and reflect a rotated light beam; the guiding substrate is configured to transmit the composite modulated light beam through the polarization-selective input structure and the polarization rotator to the beam scanner; and the beam scanner is configured to scan the composite modulated light beam through the polarization rotator to the input structure. a plurality of light sources (306, 308, 310) configured to produce a respective plurality of modulated light beams (312, 314, 316); a beam combiner configured to combine the plurality of modulated light beams (312, 314, 316) into a composite modulated light beam; a beam scanner configured to scan the composite modulated light beam in a two-dimensional pattern; a polarization rotator; and a guiding substrate configured to receive the scanned composite modulated light beam, guide the scanned composite modulated light beam from an input location to an output location, and launch the scanned composite modulated light beam (502, 504) from the output location into a viewing region; the guiding substrate includes a polarization-selective input structure configured to pass the composite modulated light beam and reflect a rotated light beam; the guiding substrate is configured to transmit the composite modulated light beam through the polarization-selective input structure and the polarization rotator to the beam scanner; and the beam scanner is configured to scan the composite modulated light beam through the polarization rotator to the input structure.
Handheld machine tool, having a housing which is of multipartite construction and comprises a handle housing and also a motor housing for receiving the drive motor, having a plug arrangement in the handheld machine tool, having a primary plug part which is associated with a drive motor of the handheld machine tool, and having a secondary plug part which is associated with a further assembly of the handheld machine tool, wherein the primary plug part and the secondary plug part are combined to form a common plug part, wherein the plug part is arranged in the handle housing and electrical connecting cables are routed from the plug part to at least one electrical component (5, 11) in the motor housing, wherein the primary plug part and the secondary plug part have, on the same side and one above the other, insertion openings (22, 23) for receiving electrical connecting cables.
Axial bearing for taking up high axial loads of a shaft, having a supporting structure and a load transmission device for transmitting the load from the shaft to the supporting structure, wherein the supporting structure comprises a bearing plate, a plurality of spring elements and a plurality of bearing shoes, wherein the spring elements are supported on the bearing plate and are arranged in groups, wherein each group of spring elements is covered by a bearing shoe, and wherein the load transmission device is fixedly connected to the shaft and comprises a thrust ring which is arranged in such a way that it can rotate on the bearing shoes, and wherein the bearing plate and the thrust ring are each arranged concentrically to the shaft, characterized in that the axial bearing comprises a measuring device for measuring the average distance between the bearing plate and a bearing shoe, wherein the measuring device is arranged in the vicinity of the supporting centre of gravity of one of the bearing shoes, and wherein the measuring device comprises a distance sensor, a housing, a hollow pressure cylinder, an elastic element and an adjustment device, wherein the pressure cylinder is designed and connected to the housing in such a way that it can moved in the axial direction relative to the housing, and wherein the housing is in contact with the bearing plate, and the pressure cylinder is in contact with the bearing shoe, and wherein the elastic element is arranged between the housing and the pressure cylinder in such a way that it can counteract the bearing plate and bearing shoe being drawn closer together, and wherein the distance sensor is connected to the housing in such a way that the head of the distance sensor is arranged inside the pressure cylinder and oriented in the direction of the bearing shoe, and wherein the adjustment device is designed in such a way that it can preload the elastic element and delimit the axial extent of the assembly formed by the housing and pressure cylinder, wherein the thus delimited maximum axial extent of this assembly corresponds to the axial extent of the unloaded spring elements.
A hull load observation device, comprising: an acceleration measuring part configured to measure an acceleration of a hull; a posture measuring part configured to measure a posture of the hull; an extracting module configured to: acquire a Z-axis acceleration; high-pass filter the measured Z-axis acceleration; extract a load observation acceleration caused by a phenomenon leading to the load on the hull by comparing the high-pass filtered acceleration with a threshold; detect a peak of a frequency spectrum of a rate of change in the posture; detect a peak intensity and extract a load observation posture caused by the phenomenon from the posture at a time at which a peak of the frequency spectrum is detected after comparing the peak intensity with a whipping detection threshold; and a load calculating module configured to calculate the load based on the load observation acceleration and the load observation posture. an acceleration measuring part configured to measure an acceleration of a hull; a posture measuring part configured to measure a posture of the hull; an extracting module configured to: acquire a Z-axis acceleration; high-pass filter the measured Z-axis acceleration; extract a load observation acceleration caused by a phenomenon leading to the load on the hull by comparing the high-pass filtered acceleration with a threshold; detect a peak of a frequency spectrum of a rate of change in the posture; detect a peak intensity and extract a load observation posture caused by the phenomenon from the posture at a time at which a peak of the frequency spectrum is detected after comparing the peak intensity with a whipping detection threshold; and a load calculating module configured to calculate the load based on the load observation acceleration and the load observation posture. acquire a Z-axis acceleration; high-pass filter the measured Z-axis acceleration; extract a load observation acceleration caused by a phenomenon leading to the load on the hull by comparing the high-pass filtered acceleration with a threshold; detect a peak of a frequency spectrum of a rate of change in the posture; detect a peak intensity and extract a load observation posture caused by the phenomenon from the posture at a time at which a peak of the frequency spectrum is detected after comparing the peak intensity with a whipping detection threshold; and a load calculating module configured to calculate the load based on the load observation acceleration and the load observation posture.
A unit pixel, comprising: a transparent substrate; a plurality of light emitting devices (10a, 10b, 10c) arranged on the transparent substrate; an adhesive layer bonding the light emitting devices to the transparent substrate; a step adjusting layer covering the light emitting devices and bonded to the adhesive layer; connection layers (129a, 129b, 129c, 129d) disposed on the step adjustment layer and electrically connected to the light emitting devices, characterized in that the step adjustment layer has a concave-convex pattern along an edge thereof. a transparent substrate; a plurality of light emitting devices (10a, 10b, 10c) arranged on the transparent substrate; an adhesive layer bonding the light emitting devices to the transparent substrate; a step adjusting layer covering the light emitting devices and bonded to the adhesive layer; connection layers (129a, 129b, 129c, 129d) disposed on the step adjustment layer and electrically connected to the light emitting devices, characterized in that the step adjustment layer has a concave-convex pattern along an edge thereof.
Motor vehicle comprising an electronically switchable transmission, a parking brake which can be engaged under electronic control, and an automatic longitudinal control system with a stop & go function, comprising a control device which automatically causes engagement of the parking brake in the event the motor vehicle stopping, brought about by the longitudinal control system, characterised in that only on detection of a possible or given malfunction during the engagement of the parking brake, because of which malfunction the parking brake cannot be engaged, by the control device of the longitudinal control system - a request addressed to the driver for active engagement of the P gear selection of the transmission can be emitted, or - the P gear selection can be engaged automatically under the control of the control device. - a request addressed to the driver for active engagement of the P gear selection of the transmission can be emitted, or - the P gear selection can be engaged automatically under the control of the control device.
Operating method for a building or boundary closure drive means for motorized movement of at least one wing of a building or boundary closure, wherein the building or boundary closure drive means comprises a building or boundary closure drive with an electric motor, a load parameter detection means for detecting a load parameter which is dependent on a load at the building or boundary closure drive, and a frequency converter for controlling the electric motor, characterized by: a) operating the frequency converter in a closed-loop control operation to control the electric motor with the load parameter detected by the load parameter detection means as an input variable in a feedback mode, b) monitoring, by way of the curve of the load parameter, whether the wing driven by the building or boundary closure drive runs smoothly, and c) switching the frequency converter to U/f operation if it is determined in step b) that the wing runs unevenly; wherein step b) comprises at least one or more of the steps: b1) calculating an average of a closed loop control deviation over time (t) from an actual value (vi) and a target value (vs) or the movement path of the wing or the angle of rotation of the building or boundary closure drive and comparing the average with a threshold; b2) generating an integral (Int) of a closed-loop control deviation (vi-vs) over time calculated from an actual value (vi) and a target value of the load parameter or the movement path of the wing or the angle of rotation of the building or boundary closure drive and comparing the integral (Int) with a predefined threshold to determine whether the wing runs smoothly or unevenly. a) operating the frequency converter in a closed-loop control operation to control the electric motor with the load parameter detected by the load parameter detection means as an input variable in a feedback mode, b) monitoring, by way of the curve of the load parameter, whether the wing driven by the building or boundary closure drive runs smoothly, and c) switching the frequency converter to U/f operation if it is determined in step b) that the wing runs unevenly; b1) calculating an average of a closed loop control deviation over time (t) from an actual value (vi) and a target value (vs) or the movement path of the wing or the angle of rotation of the building or boundary closure drive and comparing the average with a threshold; b2) generating an integral (Int) of a closed-loop control deviation (vi-vs) over time calculated from an actual value (vi) and a target value of the load parameter or the movement path of the wing or the angle of rotation of the building or boundary closure drive and comparing the integral (Int) with a predefined threshold to determine whether the wing runs smoothly or unevenly.
A compound of formula, formula (I'), formula and formula: wherein Ar represents an optionally substituted aryl group, R represents an optionally substituted aryl group, or an optionally substituted straight or branched chain C 1-10 alkyl group, R 1 is H or methyl, each R 1 is the same or different, X is an extender group, n is 0 or an integer between 1 and 12 inclusive, A is a polyol residue wherein the unsubstituted polyol from which the residue is derived has at least y OH groups, y is an integer >1 and y-a ≥ 2 provided that, when the compound is according to formula or formula (I'), when R = ethyl, R 1 = H, X = polyether chain, and A is a glycerol residue, then Ar is not a 4-carboethoxyphenyl group.
A connecting hook (3, 5) for a wiper which is characterized in that, a) it has a first hooking portion (31, 51) and a second hooking portion (32, 52) which are formed integrally, b) the first hooking portion (31, 51) has a first contacting surface (310, 510), the second hooking portion (32, 52) has a second contacting surface (320, 520), c) the first contacting surface (310, 510) is in a straight line in a cross section of the connecting hook (3, 5); d) wherein the second contacting surface (320, 520) is in a circular arc in a cross section of the connecting hook (3, 5); and e) wherein the connecting hook (3, 5) transitions to the second contacting surface (320, 520) smoothly from the first contacting surface (310, 510). a) it has a first hooking portion (31, 51) and a second hooking portion (32, 52) which are formed integrally, b) the first hooking portion (31, 51) has a first contacting surface (310, 510), the second hooking portion (32, 52) has a second contacting surface (320, 520), c) the first contacting surface (310, 510) is in a straight line in a cross section of the connecting hook (3, 5); d) wherein the second contacting surface (320, 520) is in a circular arc in a cross section of the connecting hook (3, 5); and e) wherein the connecting hook (3, 5) transitions to the second contacting surface (320, 520) smoothly from the first contacting surface (310, 510).
A system for adjusting the microclimate of a bed environment, the system comprising: a multi-zone mattress-style support including a plurality of individual heating zones; means for heating the individual heating zones; means for cooling the multi-zone mattress-style support; and a plurality of temperature sensors, wherein the means for cooling the multi-zone mattress-style support comprises a plurality of air ducts within the multi-zone mattress-style support for transporting ambient air through the multi-zone mattress-style support, each air duct comprising at least one inlet opening and at least one outlet opening, wherein the inlet and outlet openings are at a same side end or at opposite side ends of the multi-zone mattress-style support, wherein each air duct provides a respective individual cooling zone and the cooling zones can be cooled independently of one another, by the means for cooling the multi- zone mattress- style support and wherein the means for heating the individual heating zones is configured as a plurality of heating yarns integrated in a textile. a multi-zone mattress-style support including a plurality of individual heating zones; means for heating the individual heating zones; means for cooling the multi-zone mattress-style support; and a plurality of temperature sensors, wherein the means for cooling the multi-zone mattress-style support comprises a plurality of air ducts within the multi-zone mattress-style support for transporting ambient air through the multi-zone mattress-style support, each air duct comprising at least one inlet opening and at least one outlet opening, wherein the inlet and outlet openings are at a same side end or at opposite side ends of the multi-zone mattress-style support, wherein each air duct provides a respective individual cooling zone and the cooling zones can be cooled independently of one another, by the means for cooling the multi- zone mattress- style support and wherein the means for heating the individual heating zones is configured as a plurality of heating yarns integrated in a textile.
A method of modulating the pH or ionic concentration in a biosensor, the method comprising: a) providing a biosensor comprising a multisite array of test sites, each test site comprising a support in an aqueous solution, the support comprising one or more electrodes, and a biomolecule interface layer having one or more immobilized probes thereon; b) adding an electrochemically active agent to the aqueous solution; and c) independently modulating the pH or ionic concentration at each of the test sites to vary a degree of biological interaction that can occur with a biomolecule analyte at the respective test site, to obtain a collection of varied signals, wherein the varying includes reacting the electrochemically active agent in the aqueous solution to produce H + ion or OH-ions; wherein the electrochemically active agent is a benzoquinone or benzoquinone derivative. a) providing a biosensor comprising a multisite array of test sites, each test site comprising a support in an aqueous solution, the support comprising one or more electrodes, and a biomolecule interface layer having one or more immobilized probes thereon; b) adding an electrochemically active agent to the aqueous solution; and c) independently modulating the pH or ionic concentration at each of the test sites to vary a degree of biological interaction that can occur with a biomolecule analyte at the respective test site, to obtain a collection of varied signals, wherein the varying includes reacting the electrochemically active agent in the aqueous solution to produce H + ion or OH-ions;
A method comprising: generating a first clock signal with a first frequency, wherein the first clock signal is formed from a plurality of base clock signals having a common frequency but a different phase and a first set of enable signals, wherein each enable signal governs whether a corresponding one of the plurality of base clock signals is used to generate the first clock signal, and wherein the forming of the first clock signal is carried out by a logical OR of the base clock signals that are enabled; in response to detecting a voltage drop at a processor, modifying the first set of enable signals to generate a second set of enable signals; and generating a second clock signal with a second frequency less than the first frequency, based on the second set of enable signals and a plurality of phase-shifted clock signals [220, 221, 222, 223, 224, 225, 226, 227] with the same frequency as the first frequency, wherein each of the plurality of phase-shifted clock signals [220, 221, 222, 223, 224, 225, 226, 227] is selected or deselected depending on the corresponding second set of enable signals and the selected clock signals are combined using logical OR such that said second clock signal is generated. generating a first clock signal with a first frequency, wherein the first clock signal is formed from a plurality of base clock signals having a common frequency but a different phase and a first set of enable signals, wherein each enable signal governs whether a corresponding one of the plurality of base clock signals is used to generate the first clock signal, and wherein the forming of the first clock signal is carried out by a logical OR of the base clock signals that are enabled; in response to detecting a voltage drop at a processor, modifying the first set of enable signals to generate a second set of enable signals; and generating a second clock signal with a second frequency less than the first frequency, based on the second set of enable signals and a plurality of phase-shifted clock signals [220, 221, 222, 223, 224, 225, 226, 227] with the same frequency as the first frequency,