mhurhangee/ep-ind-claims huggingface dataset:
Sealing assembly with a first component having a first sealing surface, a second component having a second sealing surface and a flat gasket arranged flat between the first sealing surface and the second sealing surface and having a through opening for a third component at least portions of which are arranged in the first component and/or the second component and which at least engages in the through-opening, characterized in that the flat gasket comprises retaining means for fastening the third component, wherein in a release position of the flat gasket the retaining means release the third component and in a retaining position the retaining means fix the third component relative to the first component and/or the second component in at least one direction, wherein the flat gasket is movable from the release position into the retaining position by shifting on the first sealing surface or the second sealing surface, and wherein fastening means are provided for fastening the flat gasket on the first component and/or the second component, wherein in the release position the flat gasket is displaceable relative to the first component and/or the second component in the at least one direction and is fixed in the retaining position.
Projection device for a motor vehicle headlamp, the projection device being set up for imaging light from at least one light source associated with the projection device in an area in front of a motor vehicle in the form of at least one light distribution, the projection device comprising: - an entrance optics, which has a number of micro-entrance optics, which are preferably arranged in an array, - an exit optics comprising a number of micro-exit optics, preferably arranged in an array, wherein each micro-entry optics is associated with exactly one micro-exit optics, wherein the micro-entry optics are configured and/or the micro-entry optics and the micro-exit optics are arranged relative to one another in such a way that substantially all of the light emerging from a micro-entry optic enters only the associated micro-exit optic, and wherein the light preformed by the micro-entry optics is imaged by the micro-exit optics into an area in front of the motor vehicle as at least one light distribution, wherein the entrance optics as well as the exit optics are fixedly connected to at least one light-transmitting carrier (5, 5', 5") arranged between the entrance optics and the exit optics, wherein the at least one carrier (5, 5', 5") consists at least partially of glass, characterized in that the at least one carrier (5, 5', 5") consists at least partially of glass, in that two mutually opposite supports (5', 5") spaced apart from one another for improved cooling of the optics (3, 4) are arranged between the entrance optics and the exit optics, the entrance optics and the exit optics each being firmly connected to one of the supports (5', 5") by means of a light-transmitting adhesive. - an entrance optics, which has a number of micro-entrance optics, which are preferably arranged in an array, - an exit optics comprising a number of micro-exit optics, preferably arranged in an array, wherein
Preparation for treating keratin fibres comprising a. a cationic polysiloxane polymer having quaternary ammonium groups, b. a dimethylsiloxane having a kinematic viscosity of 50 cSt to 5000 cSt, measured with a Haake Viscotester VT 550 with the NV measuring system at. 25°C, c. a cationic surfactant, d. one or more fatty compounds having a melting point >35°C and an aqueous carrier. a. a cationic polysiloxane polymer having quaternary ammonium groups, b. a dimethylsiloxane having a kinematic viscosity of 50 cSt to 5000 cSt, measured with a Haake Viscotester VT 550 with the NV measuring system at. 25°C, c. a cationic surfactant, d. one or more fatty compounds having a melting point >35°C
A system for diagnosing the technical operating state of an electrical high-voltage and medium-voltage installation having at least one current-carrying inner conductor in at least one gas-tight interior (2.1) of a housing, wherein a diagnostic module comprising at least an opto-electrical converter and amplifier unit (9, 9a, 9b) is provided for the optical detection of a light signal generated by electrical discharge phenomena in the at least one gas-tight interior (2.1) of the housing, and wherein the diagnostic module interacts with an evaluation unit, wherein the diagnostic module is designed for optical detection of partial discharges in a first operating mode and for optical detection of arcs in a second operating mode, wherein the light signal generated by the electrical discharge phenomena is amplified differently depending on the respective operating mode (BM1, BM2) and is evaluated differently by means of the evaluation unit integrated in the diagnostic module for diagnosing the technical operating state, characterized in that a photomultiplier is used as at least one opto-electrical converter and amplifier unit (9, 9a, 9b), wherein the different amplification of the generated light signal in the two operating modes (BM1, BM2) is generatable by a different operating voltage (BS1, BS2) of the photomultiplier.
A solid oxide fuel cell comprising: an anode; a cathode including a main phase and a sub phase, the main phase composed mostly of perovskite oxide which is expressed by the general formula ABO 3 and includes at least Sr at the A site, the sub phase composed mostly of strontium sulfate; and a solid electrolyte layer disposed between the anode and the cathode; characterized in that an occupied area ratio of the sub phase in a cross section of the cathode being no more than 10.2% and at least 0.35%, wherein the occupied area ratio of the sub phase in the cross section of the cathode is the proportion of the total surface area of the sub phase relative to the total surface area of the cross section of the cathode with the exception of the pores included in the cathode, the main phase and the sub phase being discriminated using scanning electron energy dispersive X-ray spectroscopy elemental mapping. an anode; a cathode including a main phase and a sub phase, the main phase composed mostly of perovskite oxide which is expressed by the general formula ABO 3 and includes at least Sr at the A site, the sub phase composed mostly of strontium sulfate; and a solid electrolyte layer disposed between the anode and the cathode; characterized in that an occupied area ratio of the sub phase in a cross section of the cathode being no more than 10.2% and at least 0.35%, wherein the occupied area ratio of the sub phase in the cross section of the cathode is the proportion of the total surface area of the sub phase relative to the total surface area of the cross section of the cathode with the exception of the pores included in the cathode, the main phase and the sub phase being discriminated using scanning electron energy dispersive X-ray spectroscopy elemental mapping.
A power generating device comprising: an element being deformable, that generates power when deforming; and a moving member that moves when receiving a vibration, configured to contact the element when moving, wherein, when the moving member contacts the element, the element deforms into another state or returns to a previous state; wherein the element includes: a pair of electrodes (6; 8); and an intermediate layer having elasticity, disposed between the electrodes (6; 8) in a thickness direction of the element; characterized in that the intermediate layer includes at least one of a rubber and a rubber composition, and the intermediate layer has a first side and a second side opposite the first side in the thickness direction of the element, and the first side has been subjected to at least one of a surface modification treatment and an inactivation treatment, which causes the first side and the second side to deform to different degrees of deformation when the same deformation imparting force is applied thereto and causes the first side to store charge. an element being deformable, that generates power when deforming; and a moving member that moves when receiving a vibration, configured to contact the element when moving, wherein, when the moving member contacts the element, the element deforms into another state or returns to a previous state; wherein the element includes: a pair of electrodes (6; 8); and an intermediate layer having elasticity, disposed between the electrodes (6; 8) in a thickness direction of the element; characterized in that the intermediate layer includes at least one of a rubber and a rubber composition, and the intermediate layer has a first side and a second side opposite the first side in the thickness direction of the element, and the first side has been subjected to at least one of a surface modification treatment and an inactivation treatment, which causes the first side and the second side to deform to different degrees of deformation when the same deformation imparting force is applied thereto and causes the first side to store charge. a pair of electrodes (6; 8); and an intermediate layer having elasticity, disposed between the electrodes (6; 8) in a thickness direction of the element; characterized in that the intermediate layer includes at least one of a rubber and a rubber composition, and the intermediate layer has a first side and a second side opposite the first side in the thickness direction of the element, and the first side has been subjected to at least one of a surface modification treatment and an inactivation treatment, which causes the first side and the second side to deform to different degrees of deformation when the same deformation imparting force is applied thereto and causes the first side to store charge.
A system comprising: one or more electrodes configured to measure physiological signals in response to electrical activity in a heart cavity having a surface, and a processing unit configured to determine, based at least in part on Laplace's equation, current density information at multiple locations of the surface based on physiological signals measured by the one or more electrodes and positions of the electrodes with respect to the surface; wherein the current density information is a normal component of the current density. one or more electrodes configured to measure physiological signals in response to electrical activity in a heart cavity having a surface, and a processing unit configured to determine, based at least in part on Laplace's equation, current density information at multiple locations of the surface based on physiological signals measured by the one or more electrodes and positions of the electrodes with respect to the surface; wherein the current density information is a normal component of the current density.
Ball pivoting module, in particular for a trailer coupling, which ball pivoting module has a ball pivot which has a joint ball, a housing being mounted such that it can be pivoted about the joint ball, the joint ball having a control surface, in particular a non-planar control surface, which is operatively connected to at least one control element which is provided in the housing, with the result that positive guidance of the housing with respect to the ball pivot is brought about by means of the control surface, in the case of which positive guidance the housing is pivoted about at least one rotational axis and about at least one tilting axis during a movement between an operating position and a rest position, a motor, in particular an electric motor, being provided which brings about the movement between the operating position and the rest position, characterized in that a pivot drive which is connected to the motor is provided in order to carry out the pivoting movement of the housing with respect to the ball pivot, which pivot drive has a first gearwheel which engages into a drive shaft, the first gearwheel being mounted rotatably on the ball pivot.
Sensor array, a) for the identification and/or quantification of a plurality of organic target compounds, such as biochemical substances and/or nucleic acid polymers, in a mixture of compounds, comprising at least two spatially separated functionalized sensor half elements (1, 2), b) wherein each sensor half element (1, 2) contains one or more surface regions (76, 77) which are functionalized with one or more sensor compounds (4, 5) each, c) wherein said sensor half elements (1, 2) are assembled in such a manner that respectively two or more sensor compounds (4, 5) from different sensor half elements (4, 5) are spaced and/or converge and/or contact each other in separate junction areas, d) wherein said junction areas form a plurality of single sensors for binding to specific kinds of organic target compounds, e) that a plurality of sensor half elements is aligned on or included in or are crafted of one common carrier, f) that the other sensor half elements are aligned on or included in or are crafted of a second common carrier g) wherein the surfaces of the sensor half elements (1, 2) are functionalized individually before the assembly of the sensor array. a) for the identification and/or quantification of a plurality of organic target compounds, such as biochemical substances and/or nucleic acid polymers, in a mixture of compounds, comprising at least two spatially separated functionalized sensor half elements (1, 2), b) wherein each sensor half element (1, 2) contains one or more surface regions (76, 77) which are functionalized with one or more sensor compounds (4, 5) each, c) wherein said sensor half elements (1, 2) are assembled in such a manner that respectively two or more sensor compounds (4, 5) from different sensor half elements (4, 5) are spaced and/or converge and/or contact each other in separate junction areas, d) wherein said junction areas form a plurality of single sensors for binding to specific kinds of organic target compounds, e) that a plurality of sensor half elements is aligned on or included in or are crafted of one common carrier, f) that the other sensor half elements are aligned on or included in or are crafted of a second common carrier g) wherein the surfaces of the sensor half elements (1, 2) are functionalized individually before the assembly of the sensor array.
An article of footwear, comprising: an upper configured to receive a foot; a sole component fixedly attached to a bottom portion of the upper, the sole component including; a baseplate having a bottom surface and a plurality of ground engaging members including at least a first ground engaging member extending substantially downward from the bottom surface of the baseplate and a second ground engaging member extending substantially downward from the bottom surface of the baseplate; and a plurality of elongate support members (1512, 1514, 1588) extending substantially downward from the bottom surface of the baseplate, abutting the first ground engaging member at a side portion, and extending horizontally from the side portion of the first ground engaging member; wherein the second ground engaging member includes a support member abutting the second ground engaging member; the second ground engaging member is lengthened and includes dual downward projections; the sole component further includes a textured traction surface disposed between at least two of the plurality of elongate support members (1512, 1514, 1588) abutting and extending from the first ground engaging member; and the first ground engaging member has a horizontal cross-sectional shape that is substantially elongate. an upper configured to receive a foot; a sole component fixedly attached to a bottom portion of the upper, the sole component including; a baseplate having a bottom surface and a plurality of ground engaging members including at least a first ground engaging member extending substantially downward from the bottom surface of the baseplate and a second ground engaging member extending substantially downward from the bottom surface of the baseplate; and a plurality of elongate support members (1512, 1514, 1588) extending substantially downward from the bottom surface of the baseplate, abutting the first ground engaging member at a side portion, and extending horizontally from the side portion of the first ground engaging member; wherein the second ground engaging member includes a support member abutting the second ground engaging member; the second ground engaging member is lengthened and includes dual downward projections; the sole component further includes a textured traction surface disposed between at least two of the plurality of elongate support members (1512, 1514, 1588) abutting and extending from the first ground engaging member; and the first ground engaging member has a horizontal cross-sectional shape that is substantially elongate.
Telescopic container for a waste collector, comprising a plurality of interengaged, telescopically expandable segments (22a, 22b, 22c), wherein the segments have a push-back inhibitor (40, 42) which prevents the segments, once they have been expanded, from being pushed back one into the other, wherein the push-back inhibitor between an outer segment and an inner segment engaged therein is formed by a snap pawl which snaps-in at a step at the internal surface of the outer segment, characterized in that the step delimits a recess in the wall of the outer segment and the snap pawl, when it is engaged in this recess, is visible on the outside of the container.
A welding method comprising: generating a control waveform (126, 130) for welding power output, the waveform (126, 130) comprising at least one peak phase followed by at least one knee phase, having a different current level than the preceding and the subsequent phase, and dabbing phase providing a brief short circuit, followed by at least one background phase; and converting incoming power to welding power based upon the control waveform (126, 130), characterized in that the peak phase is followed by an elevated current knee phase and a subsequent dabbing phase, or the peak phase is followed by the dabbing phase and a subsequent knee phase. generating a control waveform (126, 130) for welding power output, the waveform (126, 130) comprising at least one peak phase followed by at least one knee phase, having a different current level than the preceding and the subsequent phase, and dabbing phase providing a brief short circuit, followed by at least one background phase; and converting incoming power to welding power based upon the control waveform (126, 130), characterized in that the peak phase is followed by an elevated current knee phase and a subsequent dabbing phase, or the peak phase is followed by the dabbing phase and a subsequent knee phase.
An electronic sphygmomanometer comprising: a cuff band wrapped around a measurement site; a fluid bag included in the cuff band; pressurizing means for pressurizing an inside of the fluid bag by supplying a fluid into the fluid bag; an electric depressurizing valve for reducing a pressure in the fluid bag by discharging the fluid from the fluid bag pressurized to a specific pressure; an electric depressurizing valve drive circuit for regulating a drive energy amount of the electric depressurizing valve for controlling a discharge flow rate of the fluid discharged by the electric depressurizing valve, to thereby reduce a pressure in the fluid bag at a constant depressurizing speed; and circumferential length estimating means for obtaining a circumferential length of the measurement site by using the drive energy amount regulated by the electric depressurizing valve drive circuit and previously set basic data, wherein the basic data is configured to define a correlation between the pressure in the fluid bag and the drive energy amount of the electric depressurizing valve at a prescribed circumferential length, so that the circumferential length of the measurement site corresponding to the drive energy amount or information corresponding thereto is specified when the pressure value in the fluid bag and the drive energy amount or the information corresponding thereto are given. a cuff band wrapped around a measurement site; a fluid bag included in the cuff band; pressurizing means for pressurizing an inside of the fluid bag by supplying a fluid into the fluid bag; an electric depressurizing valve for reducing a pressure in the fluid bag by discharging the fluid from the fluid bag pressurized to a specific pressure; an electric depressurizing valve drive circuit for regulating a drive energy amount of the electric depressurizing valve for controlling a discharge flow rate of the fluid discharged by the electric depressurizing valve, to thereby reduce a pressure in the fluid bag at a constant depressurizing speed; and circumferential length estimating means for obtaining a circumferential length of the measurement site by using the drive energy amount regulated by the electric depressurizing valve drive circuit and previously set basic data, wherein the basic data is configured to define a correlation between the pressure in the fluid bag and the drive energy amount of the electric depressurizing valve at a prescribed circumferential length, so that the circumferential length of the measurement site corresponding to the drive energy amount or information corresponding thereto is specified when the pressure value in the fluid bag and the drive energy amount or the information corresponding thereto are given.
Optical measurement apparatus for a vehicle, having at least one optical transmitter, at least one optical receiver and a deflection mirror arrangement having at least one deflection mirror, characterized in that the measurement apparatus has a carrier, on which a first adjustment apparatus is formed, by way of which a receiving lens, which is arranged in a receiving beam path, of the measurement apparatus is adjustable in terms of its position relative to the carrier, and a second adjustment apparatus is formed, by way of which a deflection mirror, which is arranged in the receiving beam path, is adjustable in terms of its position relative to the carrier, wherein the receiving lens has a holding frame on which engagement elements (19, 20) for engagement in the first adjustment apparatus are formed, and the holding frame at least partially peripherally encloses the receiving lens. the measurement apparatus has a carrier, on which a first adjustment apparatus is formed, by way of which a receiving lens, which is arranged in a receiving beam path, of the measurement apparatus is adjustable in terms of its position relative to the carrier, and a second adjustment apparatus is formed, by way of which a deflection mirror, which is arranged in the receiving beam path, is adjustable in terms of its position relative to the carrier, wherein the receiving lens has a holding frame on which engagement elements (19, 20) for engagement in the first adjustment apparatus are formed, and the holding frame at least partially peripherally encloses the receiving lens.