mhurhangee/ep-ind-claims huggingface dataset:
Camshaft for the valve drive of an internal combustion engine having a variable valve opening time, having an outer shaft and having an inner shaft which extends through the outer shaft, the inner shaft being held rotatably with respect to the outer shaft, at least one cam being of multiple-piece configuration and comprising a first part cam and at least one second part cam, either the first part cam or the at least one second part cam being connected fixedly to the outer shaft so as to rotate with it, and the respectively other part cam (5, 4) being connected fixedly to the inner shaft so as to rotate with it, and a bearing inner ring of a shaft bearing being held on the outer shaft, and the second part cam comprising an axial attachment which forms at least one part of the bearing inner ring.
A vehicle wheel hub and bearing assembly comprising: a disc brake rotor having a braking surface and an attachment flange, wherein the attachment flange has a plurality of rotor tabs; a package wheel bearing hub having a hub and a disc brake rotor mounting flange with a surface for attachment to a disc brake rotor, wherein the disc brake rotor mounting flange has a shoulder with shoulder tabs for engagement with the rotor tabs, and the hub and disc brake rotor flange are integrally constructed as one piece; and a fastener assembly that couples the attachment flange of the disc brake rotor to the disc brake rotor mounting flange of the package wheel bearing hub to provide floating axial movement between the attachment flange and the mounting flange to accommodate thermal expansion, wherein the fastener assembly includes a bridge (42, 44; 60) and fastener, the fastener fastening the bridge to clamp over the rotor tabs and securing the rotor tabs between the shoulder tabs, characterised in that the fastener assembly includes a spring positioned on the bridge and disposed between the bridge and an associated rotor tab to resiliently retain the rotor tab axially with respect to the bridge; and wherein, in use, radially oriented surfaces of the rotor tabs and shoulder tabs contact one another. a disc brake rotor having a braking surface and an attachment flange, wherein the attachment flange has a plurality of rotor tabs; a package wheel bearing hub having a hub and a disc brake rotor mounting flange with a surface for attachment to a disc brake rotor, wherein the disc brake rotor mounting flange has a shoulder with shoulder tabs for engagement with the rotor tabs, and the hub and disc brake rotor flange are integrally constructed as one piece; and a fastener assembly that couples the attachment flange of the disc brake rotor to the disc brake rotor mounting flange of the package wheel bearing hub to provide floating axial movement between the attachment flange and the mounting flange to accommodate thermal expansion, wherein the fastener assembly includes a bridge (42, 44; 60) and fastener, the fastener fastening the bridge to clamp over the rotor tabs and securing the rotor tabs between the shoulder tabs, characterised in that the fastener assembly includes a spring positioned on the bridge and disposed between the bridge and an associated rotor tab to resiliently retain the rotor tab axially with respect to the bridge; and wherein, in use, radially oriented surfaces of the rotor tabs and shoulder tabs contact one another.
A wearable medical device in use being in contact with a user's skin for administering drug therapy to the user, the medical device comprising: a housing in use being in contact with a user's body, said housing containing: a microcontroller controlling a pump mechanism to deliver a drug at a contact site on the user's body; and a power supply system comprising an energy harvesting component to harvest energy from the user's body, a harvested energy storage unit to store the harvested energy, and a power distribution unit selectively providing the stored energy to the microcontroller and the pump mechanism, wherein the housing further contains a transceiver having a first electrode, to communicate with a host monitoring device having a second electrode, and at least one sensor in use being in contact with the user's body via a personal area network that transmits data across the user's body by modulating a displacement current using the user's body as a communication medium, wherein the transceiver is adapted to provide an oscillating potential on the first electrode which results in the displacement current that is transferred to the human body. a microcontroller controlling a pump mechanism to deliver a drug at a contact site on the user's body; and a power supply system comprising an energy harvesting component to harvest energy from the user's body, a harvested energy storage unit to store the harvested energy, and a power distribution unit selectively providing the stored energy to the microcontroller and the pump mechanism, wherein the housing further contains a transceiver having a first electrode, to communicate with a host monitoring device having a second electrode, and at least one sensor in use being in contact with the user's body via a personal area network that transmits data across the user's body by modulating a displacement current using the user's body as a communication medium, wherein the transceiver is adapted to provide an oscillating potential on the first electrode which results in the displacement current that is transferred to the human body.
A harvester having a self-propelled harvester, in particular a combine harvester, wherein the harvester has a plurality of working members (1, 2, 6, 7) for processing the crop material which is picked up from a field and a driver assist system for sensor-supported actuation of the working members (1, 2, 6, 7), wherein the driver assist system has a memory for the storage of data and a computing device for processing the data stored in the memory, wherein an environment sensor system is provided for detecting at least one item of environment information influencing the harvesting process with a spatial scope of application in the surroundings of the harvester, characterised in that stored in the memory is a functional system model which represents at least a part of the functional relationships within the harvester and for at least a part of the harvester, the computing device operates based on the system model as a characteristic set control and in particular autonomously ascertains machine parameters at least of a working member (1, 2, 6, 7) and presets same for the respective working member (1, 2, 6, 7) and the computing device in ascertaining the machine parameters defines or modifies the system model in dependence on at least one item of environment information and/or the computing device in ascertaining the machine parameters of the characteristic set control superimposes a control circle based on at least one item of environment information.
A positive electrode plate, comprising: a positive electrode current collector, a positive electrode active material layer disposed on at least one surface of the positive electrode current collector, and a safety layer disposed between the positive electrode current collector and the positive electrode active material layer; wherein the safety layer comprises a binding substance, a conductive substance, and a special sensitive substance; and the special sensitive substance comprises at least one product of esterification of polysaccharide, wherein a weight-average molecular weight M w of the special sensitive substance is from 1000 to 28000, wherein a single-sided capacity per unit area of the positive electrode plate is ≤ 4.1 mAh/cm 2, and wherein a degree of esterification of monosaccharide units in the product of esterification of polysaccharide is 50% to 98%. a positive electrode current collector, a positive electrode active material layer disposed on at least one surface of the positive electrode current collector, and a safety layer disposed between the positive electrode current collector and the positive electrode active material layer; wherein the safety layer comprises a binding substance, a conductive substance, and a special sensitive substance; and the special sensitive substance comprises at least one product of esterification of polysaccharide, wherein a weight-average molecular weight M w of the special sensitive substance is from 1000 to 28000, wherein a single-sided capacity per unit area of the positive electrode plate is ≤ 4.1 mAh/cm 2, and wherein a degree of esterification of monosaccharide units in the product of esterification of polysaccharide is 50% to 98%.
A computer-implemented method for testing and/or training visual, cognitive and/or eye-hand coordination functions or skills of a user, using a computer or data processing device having a touch-sensitive display, wherein at least one line-shaped object is presented on the touch-sensitive display, wherein the user has to retrace the line(s) of the presented object and wherein the retraced line(s) is (are) evaluated in order to determine a characteristic which relates to deviations and/or conformity between the presented at least one line-shaped object and the retraced line(s), wherein the characteristic is determined based on evaluating the time required for retracing the line(s) of the presented object, characterized in that the characteristic is furthermore determined based on the following evaluation steps: Evaluating an average pixel distance for pixels that are drawn away from a nearest originally presented pixel; evaluating an average variance that holds information about how consistently the drawing is made; evaluating a curve length in comparison with an original curve length; evaluating an average inverse pixel distance that holds information about how far an original pixel is away from the nearest drawn pixel. Evaluating an average pixel distance for pixels that are drawn away from a nearest originally presented pixel; evaluating an average variance that holds information about how consistently the drawing is made; evaluating a curve length in comparison with an original curve length; evaluating an average inverse pixel distance that holds information about how far an original pixel is away from the nearest drawn pixel.
Tool for unscrewing a connecting nut in a rotor of a gas-turbine engine module, comprising a tubular element including a plurality of fingers, which are moveable radially between a position in which they are retracted inside the tubular element and a position in which they are deployed and are able to come into contact laterally with the teeth of the connecting nut, characterised in that said tool comprises a disc that is transverse and rotatably movable with respect to the tubular element and with radial grooves for guiding fingers, and a mechanism for actuating the fingers with respect to the transverse disc, said mechanism for actuating the fingers comprising a central member, rotatably movable with respect to the movable disc, connected by connecting rods to the fingers, the rotation of the central member causing the fingers to move radially with respect to the movable disc.
A suspension module (10, 20) for an electric motor inside a tubular casing of an electromechanical actuator for a closure or sun protection facility (I 1, I 2), comprising a single-piece suspension member (100, 200), extending along a longitudinal axis (X100, X200) intended to be aligned on a rotation axis of a rotor of the electric motor, the suspension member comprising several annular plates (120, 220) arranged perpendicular to the longitudinal axis and juxtaposed along this axis, including at least one intermediate annular plate (120 i, 220 i), characterized in that each intermediate annular plate is connected to each of the two plates (120, 220) that are adjacent to it, by at least three connection bridges (128, 228).
An apparatus comprising: a first tubular member (740, 840) having a first diameter and configured to attach to a printed circuit board; and a second tubular member (750, 850) having a second diameter different from the first diameter and holding an environmental sensor (730, 830) for collecting data relating to an environment of the printed circuit board, wherein the second tubular member is vertically adjustable relative to the first tubular member to enable vertical adjustment of the environmental sensor relative to the printed circuit board. a first tubular member (740, 840) having a first diameter and configured to attach to a printed circuit board; and a second tubular member (750, 850) having a second diameter different from the first diameter and holding an environmental sensor (730, 830) for collecting data relating to an environment of the printed circuit board, wherein the second tubular member is vertically adjustable relative to the first tubular member to enable vertical adjustment of the environmental sensor relative to the printed circuit board.
Process for oxidative dyeing keratin fibers especially human hair characterized in that compositions A and B are mixed wherein composition A comprises at least one oxidative dye precursor and optionally at least one coupling agent and optionally at least one direct dye in a cosmetically acceptable medium and composition B comprises at least one oxidizing agent in a cosmetically acceptable medium, and applied onto hair and processed for 5 to 45 min at a temperature range of 20 to 45°C and rinsed off from hair, wherein at least one of the two compositions A and B comprises polyurethane-39.
A glass substrate, comprising at least one selected from the group consisting of Li, Na, K, Mg, Ca, Sr, Ba and Zn as a reaction factor component, the glass substrate having a refractive index (n d) of 1.68 or more, wherein the matrix composition in the glass contains, as represented by mass% based on oxides, as the glass-forming component, from 5 to 80 mass% of at least one selected from the group consisting of SiO 2, B 2 O 3 and P 2 O 5, as the modifier oxide, 5 to 70 mass% in total of at least one oxide selected from the group consisting of MgO, CaO, SrO, BaO, ZnO, Li 2 O, Na 2 O, K 2 O, Cs 2 O and Ln 2 O 3, where Ln is at least one selected from the group consisting of Y, La, Gd, Yb and Lu, and as the intermediate oxide, 0 to 50 mass% in total of at least one oxide selected from the group consisting of Al 2 O 3, TiO 2, ZrO 2, WO 3, Bi 2 O 3, TeO 2, Ta 2 O 5 and Nb 2 O 5, characterized in that the decrease rate (%) of the reaction factor component, which means a ratio, expressed as a percentage, of the difference between the average values of the total molar concentration (mol/cm 3) of the reaction factor component in an inside of the glass substrate and the total molar concentration (mol/cm 3) of the reaction factor component in an outermost surface layer being a region of 0 to 10 nm from a surface of the glass substrate, relative to the total molar concentration (mol/cm 3) of the reaction factor component in the inside of the glass substrate, is 35.0% or more and 90.0% or less, the inside of the glass substrate being a depth region in which the total molar concentration (mol/cm 3) of the reaction factor component becomes constant in the depth direction. wherein the matrix composition in the glass contains, as represented by mass% based on oxides, as the glass-forming component, from 5 to 80 mass% of at least one selected from the group consisting of SiO 2, B 2 O 3 and P 2 O 5, as the modifier oxide, 5 to 70 mass% in total of at least one oxide selected from the group consisting of MgO, CaO, SrO, BaO, ZnO, Li 2 O, Na 2 O, K 2 O, Cs 2 O and Ln 2 O 3, where Ln is at least one selected from the group consisting of Y, La, Gd, Yb and Lu, and as the intermediate oxide, 0 to 50 mass% in total of at least one oxide selected from the group consisting of Al 2 O 3, TiO 2, ZrO 2, WO 3, Bi 2 O 3, TeO 2, Ta 2 O 5 and Nb 2 O 5, characterized in that the decrease rate (%) of the reaction factor component, which means a ratio, expressed as a percentage, of the difference between the average values of the total molar concentration (mol/cm 3) of the reaction factor component in an inside of the glass substrate and the total molar concentration (mol/cm 3) of the reaction factor component in an outermost surface layer being a region of 0 to 10 nm from a surface of the glass substrate, relative to the total molar concentration (mol/cm 3) of the reaction factor component in the inside of the glass substrate, is 35.0% or more and 90.0% or less, the inside of the glass substrate being a depth region in which the total molar concentration (mol/cm 3) of the reaction factor component becomes constant in the depth direction.
An apparatus for forming an ophthalmic Lens, the apparatus comprising: a substrate comprising an arcuate surface, wherein at least a portion of the substrate includes an optical quality surface, wherein the optical quality surface is the only optical quality surface of the apparatus for forming the ophthalmic Lens; a source of actinic radiation controllable to cure a portion of a Reactive Mixture from the optical quality surface in a predefined pattern; a vessel for holding a volume of Reactive Mixture in contact with the optical quality surface, and in a volume which exceeds the volume of an ophthalmicLens Precursor; and a source of fixing actinic radiation for forming an ophthalmic lens from a lens precursor in addition to the source of actinic radiation controllable to cure a portion of a Reactive Mixture. a substrate comprising an arcuate surface, wherein at least a portion of the substrate includes an optical quality surface, wherein the optical quality surface is the only optical quality surface of the apparatus for forming the ophthalmic Lens; a source of actinic radiation controllable to cure a portion of a Reactive Mixture from the optical quality surface in a predefined pattern; a vessel for holding a volume of Reactive Mixture in contact with the optical quality surface, and in a volume which exceeds the volume of an ophthalmicLens Precursor; and a source of fixing actinic radiation for forming an ophthalmic lens from a lens precursor in addition to the source of actinic radiation controllable to cure a portion of a Reactive Mixture.
A device for protecting an original digital document, said device comprising: - document receiving means for receiving said original digital document; - associated data receiving means for receiving associated data comprising at least partially data visible on said original digital document; - hashing means for creating a hash of said associated data; - digital signature means for asymmetrically encrypting said hash with a private key to thereby generate digitally signed data; - encoding means for generating a machine-readable code containing said asymmetrically encrypted hash to therewith sign at least a portion of data in said digital document, said encoding means being adapted to encode in said machine-readable code also said associated data such that said hash can be reproduced from decoded associated data in a machine-readable code of a printed hardcopy of said original digital document and serve for comparison with the encrypted hash encoded in said machine-readable code of said printed hardcopy to verify authenticity of said decoded associated data, and said machine-readable code enables verification of the authenticity of said printed hardcopy of said original digital document through comparison of data in said printed hardcopy with said associated data decoded from said machine-readable code and verified; - recording means for recording said machine-readable code onto a protected digital version of said original digital document. - document receiving means for receiving said original digital document; - associated data receiving means for receiving associated data comprising at least partially data visible on said original digital document; - hashing means for creating a hash of said associated data; - digital signature means for asymmetrically encrypting said hash with a private key to thereby generate digitally signed data; - encoding means for generating a machine-readable code containing said asymmetrically encrypted hash to therewith sign at least a portion of data in said digital document, said encoding means being adapted to encode in said machine-readable code also said associated data such that said hash can be reproduced from decoded associated data in a machine-readable code of a printed hardcopy of said original digital document and serve for comparison with the encrypted hash encoded in said machine-readable code of said printed hardcopy to verify authenticity of said decoded associated data, and said machine-readable code enables verification of the authenticity of said printed hardcopy of said original digital document through comparison of data in said printed hardcopy with said associated data decoded from said machine-readable code and verified; - recording means for recording said machine-readable code onto a protected digital version of said original digital document.
An ethylene oligomerization catalyst pre-formation unit, comprising: a first vessel comprising a solution of co-catalyst and modifier; a second vessel comprising a chromium compound and a ligand; wherein the first and second vessels are connected via lines to a mixing unit, wherein each line has a flow control valve, wherein the flow control valves are independently a thermal mass flow controller or a coreolis flow meter; wherein the mixing unit is connected via a line having a flow control valve to an oligomerization reactor; wherein gas inlets are each connected to the first vessel and to the second vessel, and wherein the first vessel, the second vessel, the mixing unit and the flow control valves are completely within a temperature controlled enclosure. a first vessel comprising a solution of co-catalyst and modifier; a second vessel comprising a chromium compound and a ligand; wherein the first and second vessels are connected via lines to a mixing unit, wherein each line has a flow control valve, wherein the flow control valves are independently a thermal mass flow controller or a coreolis flow meter; wherein the mixing unit is connected via a line having a flow control valve to an oligomerization reactor; wherein gas inlets are each connected to the first vessel and to the second vessel, and wherein the first vessel, the second vessel, the mixing unit and the flow control valves are completely within a temperature controlled enclosure.
A method for preparing a filter material, characterised in that the method comprises the steps of: a) wetting crushed lightweight aggregate and/or a lightweight aggregate granule mixture with water such that the pores of the lightweight aggregate are filled with water, b) grinding the wetted crushed lightweight aggregate and/or lightweight aggregate granule mixture for 5 to 30 minutes with a mixing speed of 20-100 rpm, c) adding calcium hydroxide to the ground crushed lightweight aggregate and/or lightweight aggregate granule mixture while simultaneously continuing grinding for 10 to 40 minutes. a) wetting crushed lightweight aggregate and/or a lightweight aggregate granule mixture with water such that the pores of the lightweight aggregate are filled with water, b) grinding the wetted crushed lightweight aggregate and/or lightweight aggregate granule mixture for 5 to 30 minutes with a mixing speed of 20-100 rpm, c) adding calcium hydroxide to the ground crushed lightweight aggregate and/or lightweight aggregate granule mixture while simultaneously continuing grinding for 10 to 40 minutes.
Internally coolable component for a gas turbine, having at least one cooling duct, on the inner surface of which are arranged turbulence elements in the form of turbulators extending transversely with respect to the main flow direction of a coolant and between which are arranged pins of different heights, characterized in that the height of the pins is less than the height of the cooling ribs and that successive pins, as seen in the main flow direction of the coolant, are of different heights.