mhurhangee/ep-ind-claims huggingface dataset:
Camera arm of a camera-based mirror substitute system for a motor vehicle, comprising a first structural element for connecting the camera arm to a motor vehicle and a second structural element, which comprises at least one camera, wherein the camera arm furthermore comprises a variable-volume fluid vessel, which connects the first structural element and the second structural element to one another directly or by way of one or more intermediary elements, in such a way that the second structural element can be moved relative to the first structural element by virtue of the amount of fluid located in the fluid vessel being changed, characterized in that the camera arm furthermore comprises at least one restoring element, which connects the first structural element and the second structural element to one another directly or by way of one or more intermediary elements and pulls the second structural element in the direction of the first structural element, and in that the fluid vessel comprises a rolling bellows or is embodied substantially in the form of a rolling bellows.
A reconfigurable ground penetrating radar, GPR, device for acquiring radar data about a medium, comprising - a radar antenna with a first polarization, - a processor unit connected to said antenna, - a casing around the antenna and the processor unit, - a wheel assembly comprising a holder, a wheel and a wheel rotation sensor, wherein the wheel rotation sensor is connected to the processor unit, wherein an axis of the wheel is pivotal relative to the first polarization, wherein the wheel rotation sensor is adapted to sense a path length of the movement of the device, wherein the device exhibits two preferred directions of movement in respect of the first polarization, characterized in that wherein the axis of the wheel exhibits two stable orientations, in respect to the casing, differing by a pivoting angle (α), wherein the stable orientations are achieved by means of a snap-in mechanism, implemented by an elastic force, or of a magnetic force, and wherein the device is a handheld device. - a radar antenna with a first polarization, - a processor unit connected to said antenna, - a casing around the antenna and the processor unit, - a wheel assembly comprising a holder, a wheel and a wheel rotation sensor, wherein the wheel rotation sensor is connected to the processor unit, wherein an axis of the wheel is pivotal relative to the first polarization, wherein the wheel rotation sensor is adapted to sense a path length of the movement of the device, wherein the device exhibits two preferred directions of movement in respect of the first polarization, wherein the wheel rotation sensor is adapted to sense a path length of the movement of the device, wherein the device exhibits two preferred directions of movement in respect of the first polarization, wherein the axis of the wheel exhibits two stable orientations, in respect to the casing, differing by a pivoting angle (α), wherein the stable orientations are achieved by means of a snap-in mechanism, implemented by an elastic force, or of a magnetic force, and wherein the device is a handheld device.
A method of transmitting level-1, L1, signaling from a Node B to a User Equipment, UE, in a UTRAN wireless communication network, the method comprising: encoding an L1 signaling flag in Part 1 of a High Speed Shared Control Channel, HS-SCCH, wherein the L1 signaling flag indicates that Part 2 of the HS-SCCH includes an L1 Discontinuous Reception, DRX, command to be decoded by a UE receiving the HS-SCCH; encoding the L1 DRX command indicated by the L1 signaling flag in Part 2 of the HS-SCCH; transmitting the HS-SCCH to a UE. encoding an L1 signaling flag in Part 1 of a High Speed Shared Control Channel, HS-SCCH, wherein the L1 signaling flag indicates that Part 2 of the HS-SCCH includes an L1 Discontinuous Reception, DRX, command to be decoded by a UE receiving the HS-SCCH; encoding the L1 DRX command indicated by the L1 signaling flag in Part 2 of the HS-SCCH; transmitting the HS-SCCH to a UE.
Variable turbine or compressor geometry for an exhaust gas turbocharger, comprising an adjusting ring for simultaneously adjusting guide vanes, wherein the adjusting ring is in operative connection with an articulated lever via a first contact surface and with adjusting levers of guide vanes via second contact surfaces, characterised in that the adjusting ring includes, at least in the region of the first contact surface, an additional component which is pressed into the adjusting ring and which increases the first contact surface in operative connection with the articulated lever.
An apparatus for treating laundry, comprising: a cabinet providing a laundry receiving space for receiving the laundry therein; a supply part configured to supply moisture to the laundry receiving space; a housing (310, 330) detachably coupled to an inner wall of the laundry receiving space and including a purifying space defined therein to communicate with the laundry receiving space; a photocatalytic member provided within the housing (310, 330) and including a photocatalytic substance; a light source assembly provided within the housing (310, 330) and applying light including Ultraviolet, UV rays through the purifying space to the photocatalytic member, an embedded portion recessed outwardly from an inner wall of the laundry receiving space; a power supply hole formed in the embedded portion and connected with the housing (310, 330), configured to through which an electrical cord transferring power to the light source assembly from an external power source passes; and a sealing part (370, 390) provided in the housing (310, 330) configured to cut off moisture leaking into the power supply hole. a cabinet providing a laundry receiving space for receiving the laundry therein; a supply part configured to supply moisture to the laundry receiving space; a housing (310, 330) detachably coupled to an inner wall of the laundry receiving space and including a purifying space defined therein to communicate with the laundry receiving space; a photocatalytic member provided within the housing (310, 330) and including a photocatalytic substance; a light source assembly provided within the housing (310, 330) and applying light including Ultraviolet, UV rays through the purifying space to the photocatalytic member, an embedded portion recessed outwardly from an inner wall of the laundry receiving space; a power supply hole formed in the embedded portion and connected with the housing (310, 330), configured to through which an electrical cord transferring power to the light source assembly from an external power source passes; and a sealing part (370, 390) provided in the housing (310, 330) configured to cut off moisture leaking into the power supply hole.
A crane comprising: a carrier having a carrier deck with a recessed section, at least a first axle and a second axle; a superstructure mounted to the carrier; an engine; a diesel exhaust fluid tank; and an engine exhaust aftertreatment system, fluidically connected to the engine and configured to receive exhaust gas from the engine, wherein the engine exhaust aftertreatment system comprises a selective catalytic reduction system, and is connected to the diesel exhaust fluid tank by a supply line so that diesel exhaust fluid is supplied to the selective catalytic reduction system; characterized in that the engine exhaust aftertreatment system is mounted in the recessed section to be positioned at least partially below an upper surface of the carrier deck between the first axle and the second axle. a carrier having a carrier deck with a recessed section, at least a first axle and a second axle; a superstructure mounted to the carrier; an engine; a diesel exhaust fluid tank; and an engine exhaust aftertreatment system, fluidically connected to the engine and configured to receive exhaust gas from the engine, wherein the engine exhaust aftertreatment system comprises a selective catalytic reduction system, and is connected to the diesel exhaust fluid tank by a supply line so that diesel exhaust fluid is supplied to the selective catalytic reduction system; characterized in that the engine exhaust aftertreatment system is mounted in the recessed section to be positioned at least partially below an upper surface of the carrier deck between the first axle and the second axle.
Ground treatment apparatus for loosening the ground, in particular in the case of ground with grass growth, comprising a support device and a holding device that is movably held thereon, on which a plurality of injection elements are held, a lifting device, by way of which the injection elements are insertable into the ground and are extractable therefrom, and a fluid provisioning device that comprises at least one reservoir (116, 118) for fluid, which can be supplied with fluid for intermediate storage and which is directly or indirectly in fluidic connection with a plurality of injection elements, wherein the support device and/or the holding device comprise(s) at least one frame made of interconnected structural elements (86, 92, 104, 106, 108, 110, 132, 134), wherein the at least one reservoir (116, 118) forms a structural element (108, 110) of the frame and the reservoir (116, 118) connects two further structural elements of the frame arranged at a distance from one another and passes through respective through-openings of the further structural elements.
A capacitor in an integrated circuit ("IC") comprising: a first plurality of conductive crosses (102, 104) formed in a first conductive layer of the IC, each of the first plurality of conductive crosses being electrically connected to and forming a first portion of a first node of the capacitor; a second plurality of conductive crosses (108, 110) formed in the first conductive layer of the IC, each of the second plurality of conductive crosses being electrically connected to and forming a first portion of a second node of the capacitor and capacitively coupling to the first node; and an interconnection layer formed in a second conductive layer of the IC separated from the first conductive layer by a dielectric layer of the IC, the interconnection layer having a first plurality of staggered interconnect traces (206, 208) connected to the first plurality of conductive crosses (102, 104, 248, 250) alternating with a second plurality of staggered interconnect traces connected to the second plurality of conductive crosses (108, 110, 240, 242), each staggered interconnect trace having wider sections alternating with narrower sections. a first plurality of conductive crosses (102, 104) formed in a first conductive layer of the IC, each of the first plurality of conductive crosses being electrically connected to and forming a first portion of a first node of the capacitor; a second plurality of conductive crosses (108, 110) formed in the first conductive layer of the IC, each of the second plurality of conductive crosses being electrically connected to and forming a first portion of a second node of the capacitor and capacitively coupling to the first node; and an interconnection layer formed in a second conductive layer of the IC separated from the first conductive layer by a dielectric layer of the IC, the interconnection layer having a first plurality of staggered interconnect traces (206, 208) connected to the first plurality of conductive crosses (102, 104, 248, 250) alternating with a second plurality of staggered interconnect traces connected to the second plurality of conductive crosses (108, 110, 240, 242), each staggered interconnect trace having wider sections alternating with narrower sections.
A diagnostic apparatus (190, 990), connected to a vortex flowmeter having a vortex generator and a detection unit configured to detect at least one detection signal according to a vortex generated by the vortex generator, the diagnostic apparatus (190, 990) comprising: a diagnostic unit (430, 990) configured to diagnose a condition of the vortex flowmeter using a determination result of a magnitude of a signal component of each of at least one target detection signal among the at least one detection signal detected by the vortex flowmeter or a magnitude of a signal component of at least one of combined signals being linear combination of two or more of the at least one detection signal; and a normalization unit configured to normalize, by a vortex frequency, (i) the magnitude of the signal component of each of the at least one target detection signal or (ii) an amplitude or signal intensity of the signal component of the at least one of combined signals, wherein the diagnostic unit (430, 990) is configured to diagnose the condition of the vortex flowmeter using the determination result based on a change in the normalized magnitude of the signal component of each of the at least one target detection signal or the determination result obtained by comparing the normalized amplitude or signal intensity of the signal component of the at least one of combined signals with a threshold. a diagnostic unit (430, 990) configured to diagnose a condition of the vortex flowmeter using a determination result of a magnitude of a signal component of each of at least one target detection signal among the at least one detection signal detected by the vortex flowmeter or a magnitude of a signal component of at least one of combined signals being linear combination of two or more of the at least one detection signal; and a normalization unit configured to normalize, by a vortex frequency, (i) the magnitude of the signal component of each of the at least one target detection signal or (ii) an amplitude or signal intensity of the signal component of the at least one of combined signals, wherein the diagnostic unit (430, 990) is configured to diagnose the condition of the vortex flowmeter using the determination result based on a change in the normalized magnitude of the signal component of each of the at least one target detection signal or the determination result obtained by comparing the normalized amplitude or signal intensity of the signal component of the at least one of combined signals with a threshold.
An airway adapter assembly comprising: a connector body portion having a first end and a second end, the connector body portion defining an elongate cavity having an axial center between the first and the second end; a valve coupled to the second end of the connector body portion, the valve comprising an outer rim section configured to engage with a valve retention structure and an inner resiliently flexible diaphragm section integrally connected to the outer rim section, the inner resiliently flexible diaphragm section comprising a plurality of valve segments defined by one or more slits, wherein one or more of the valve segments include one or more first regions and one or more second regions, wherein a primary seal is formed by the plurality of valve segments, and a secondary seal is formed by an arrangement of the one or more first regions of the plurality of the valve segments, and wherein the secondary seal has a first cracking pressure, and the primary seal has a second cracking pressure different from the first cracking pressure; and a ventilation base member comprising a tubular portion coupled to the second end of the connector body portion and a ventilator port, wherein the ventilator port comprises a conduit having a first conduit end and a second conduit end, wherein the first conduit end is coupled to the tubular portion through an articulable connection (132, 134) such that the ventilator port is articulable about the tubular portion in at least two axes. a connector body portion having a first end and a second end, the connector body portion defining an elongate cavity having an axial center between the first and the second end; a valve coupled to the second end of the connector body portion, the valve comprising an outer rim section configured to engage with a valve retention structure and an inner resiliently flexible diaphragm section integrally connected to the outer rim section, the inner resiliently flexible diaphragm section comprising a plurality of valve segments defined by one or more slits, wherein one or more of the valve segments include one or more first regions and one or more second regions, wherein a primary seal is formed by the plurality of valve segments, and a secondary seal is formed by an arrangement of the one or more first regions of the plurality of the valve segments, and wherein the secondary seal has a first cracking pressure, and the primary seal has a second cracking pressure different from the first cracking pressure; and a ventilation base member comprising a tubular portion coupled to the second end of the connector body portion and a ventilator port, wherein the ventilator port comprises a conduit having a first conduit end and a second conduit end, wherein the first conduit end is coupled to the tubular portion through an articulable connection (132, 134) such that the ventilator port is articulable about the tubular portion in at least two axes.
A photovoltaic device (100, 200, 300, 400, 500, 600), comprising: a front layer stack, wherein the front layer stack comprises a plurality of transparent layers; an absorber layer (160, 260, 360, 460, 560, 660) having a first surface disposed on the front layer stack and a second surface, the absorber layer comprising cadmium, tellurium, and selenium; an electron blocking layer (185, 285, 385, 465, 585, 685) having a first surface disposed on the second surface of the absorber layer and a second surface; and a back contact layer disposed on the second surface of the electron blocking layer; wherein: the electron blocking layer (185, 285, 385, 465, 585, 685) comprises cadmium, zinc, and tellurium; characterized in that the first surface of the electron blocking layer has a band gap that is at least 0.1 eV greater than a band gap of the second surface of the absorber layer; and a lattice mismatch between the electron blocking layer (185, 285, 385, 465, 585, 685) relative to the absorber layer (160, 260, 360, 460, 560, 660) is less than 4%. a front layer stack, wherein the front layer stack comprises a plurality of transparent layers; an absorber layer (160, 260, 360, 460, 560, 660) having a first surface disposed on the front layer stack and a second surface, the absorber layer comprising cadmium, tellurium, and selenium; an electron blocking layer (185, 285, 385, 465, 585, 685) having a first surface disposed on the second surface of the absorber layer and a second surface; and a back contact layer disposed on the second surface of the electron blocking layer; wherein: the electron blocking layer (185, 285, 385, 465, 585, 685) comprises cadmium, zinc, and tellurium; characterized in that the first surface of the electron blocking layer has a band gap that is at least 0.1 eV greater than a band gap of the second surface of the absorber layer; and a lattice mismatch between the electron blocking layer (185, 285, 385, 465, 585, 685) relative to the absorber layer (160, 260, 360, 460, 560, 660) is less than 4%.
A method of single strand RNA purification employing an anion exchanger comprising the steps - applying a sample containing single-stranded RNA to an anion exchanger, - washing the anion exchanger at a first temperature in the range of 18 °C to 25 °C with a first salt solution having a first ionic strength in the range 2 M to 8 M and wherein the washing with the first salt solution is conducted with a chaotropic salt, - eluting the single stranded RNA by a second salt solution having a second ionic strength at a second temperature, wherein the second salt solution employed for eluting the single-stranded RNA is applied at the second temperature in the range of 35 °C to 80 °C with the proviso that the first ionic strength is at least 0.5 M higher than the second ionic strength, wherein the anion exchanger is a strong anion exchanger bearing quaternary amino ion exchange groups. - applying a sample containing single-stranded RNA to an anion exchanger, - washing the anion exchanger at a first temperature in the range of 18 °C to 25 °C with a first salt solution having a first ionic strength in the range 2 M to 8 M and wherein the washing with the first salt solution is conducted with a chaotropic salt, - eluting the single stranded RNA by a second salt solution having a second ionic strength at a second temperature, wherein the second salt solution employed for eluting the single-stranded RNA is applied at the second temperature in the range of 35 °C to 80 °C
An electrolyte, comprising: an electrolyte salt; an organic solvent; and additives wherein the additives comprise a first additive and a second additive; the first additive is one or more selected from compounds shown as Formula 1, wherein in Formula 1, n is an integer from 1 to 4, and R 1 is one selected from H, C1-C5 alkyl, C1-C5 fluoroalkyl, C2-C5 alkenyl, C2-C5 alkynyl, and phenyl; and the second additive is one or more selected from compounds shown as Formula 2, wherein in Formula 2, R 21 and R 22 are each independently one selected from F, trifluoromethyl, pentafluoroethyl, and cyano, and R 21 and R 22 are not both F; wherein the electrolyte salt is one or more selected from the group consisting of lithium hexafluorophosphate, lithium bis(fluorosulfonyl)imide, lithium bis(trifluoromethanesulphonyl)imide, lithium trifluoromethanesulphonate, lithium hexafluoroarsenate, lithium bis(oxalato)borate, and lithium perchlorate, and preferably lithium hexafluorophosphate. an electrolyte salt; an organic solvent; and additives wherein the additives comprise a first additive and a second additive; the first additive is one or more selected from compounds shown as Formula 1, wherein in Formula 1, n is an integer from 1 to 4, and R 1 is one selected from H, C1-C5 alkyl, C1-C5 fluoroalkyl, C2-C5 alkenyl, C2-C5 alkynyl, and phenyl; and the second additive is one or more selected from compounds shown as Formula 2, wherein in Formula 2, R 21 and R 22 are each independently one selected from F, trifluoromethyl, pentafluoroethyl, and cyano, and R 21 and R 22 are not both F; wherein the electrolyte salt is one or more selected from the group consisting of lithium hexafluorophosphate, lithium bis(fluorosulfonyl)imide, lithium bis(trifluoromethanesulphonyl)imide, lithium trifluoromethanesulphonate, lithium hexafluoroarsenate, lithium bis(oxalato)borate, and lithium perchlorate, and preferably lithium hexafluorophosphate.
Tank apparatus for the temperature pressure release of a fuel cell tank, the tank apparatus comprising at least two tank containers and a feed line which can be connected to the tank containers, each tank container comprising at least one pressure-controlled overflow valve, which overflow valve is arranged between the respective tank container and the feed line, a central shut-off valve being arranged in the feed line, characterized in that the tank apparatus comprises a control line with longitudinal connections and a transverse connection, the longitudinal connections being arranged on the tank containers and being connected to one another via the transverse connection, the control line having a first line portion and a second line portion, it being possible for the first line portion to be connected via a first check valve to the feed line.
A polymerizable composition comprising a titanium black dispersion containing titanium black and an alkali-soluble resin having at least one unsaturated double bond, a polymerizable compound, and an oxime photopolymerization initiator.