mhurhangee/ep-ind-claims huggingface dataset:
A method, performed by a terminal of a first user, for transmitting a digital room card to a terminal of a second user, the method comprising: receiving, via a sharing interface displayed on the terminal of the first user, a sharing operation for sharing the digital room card with the second user, wherein the digital room card is sent by a business server to the terminal of the first user in advance and enables to unlock a smart door lock of a corresponding room, in response, obtaining user information of the second user through short-range communication, comprising performing, through the short-range communication, information communication with the terminal of the second user to obtain the user information of the second user, wherein the short-range communication comprises near field communication, Bluetooth communication, radio frequency identification communication, or infrared communication and the user information of the second user comprises a mobile phone number, a business account, or identity certificate information; and sending a verification request comprising the obtained user information of the second user and identifier information of the digital room card to the business server, for the business server to perform a verification that the second user is a verified user that is allowed to use the digital room card to unlock the smart door lock of the room, the verification comprising matching on the user information of the second user according to pre-stored business information, and send the digital room card to the terminal of the second user after the verification succeeds. receiving, via a sharing interface displayed on the terminal of the first user, a sharing operation for sharing the digital room card with the second user, wherein the digital room card is sent by a business server to the terminal of the first user in advance and enables to unlock a smart door lock of a corresponding room, in response, obtaining user information of the second user through short-range communication, comprising performing, through the short-range communication, information communication with the terminal of the second user to obtain the user information of the second user, wherein the short-range communication comprises near field communication, Bluetooth communication, radio frequency identification communication, or infrared communication and the user information of the second user comprises a mobile phone number, a business account, or identity certificate information; and sending a verification request comprising the obtained user information of the second user and identifier information of the digital room card to the business server, for the business server to perform a verification that the second user is a verified user that is allowed to use the digital room card to unlock the smart door lock of the room, the verification comprising matching on the user information of the second user according to pre-stored business information, and send the digital room card to the terminal of the second user after the verification succeeds.
An electrical terminal comprising: a first connection section; and a second connection section which is connected to the first connection section, wherein the second connection section comprises at least two cantilevered deflectable contact arms configured to contact a mating electrical terminal, wherein a front end of each of the arms is outwardly flared including opposite sides of each front end being outwardly flared in general opposite directions (100, 102) relative to each other, wherein each front end flares out in three directions, flaring out in the first and second general opposite directions (100, 102) at its lateral edges, and the two front ends flaring out in opposite directions, wherein the front ends combine to form a general tulip shaped entrance into the electrical terminal for the mating electrical terminal, wherein each front end has a general semi-circular outer edge, wherein each front end slopes downward and inward from the general semi-circular outer edge to an interior generally crescent shaped inner side, wherein the front ends form a general bowl shape with a slot therethrough. a first connection section; and a second connection section which is connected to the first connection section, wherein the second connection section comprises at least two cantilevered deflectable contact arms configured to contact a mating electrical terminal, wherein a front end of each of the arms is outwardly flared including opposite sides of each front end being outwardly flared in general opposite directions (100, 102) relative to each other, wherein each front end flares out in three directions, flaring out in the first and second general opposite directions (100, 102) at its lateral edges, and the two front ends flaring out in opposite directions, wherein the front ends combine to form a general tulip shaped entrance into the electrical terminal for the mating electrical terminal, wherein each front end has a general semi-circular outer edge, wherein each front end slopes downward and inward from the general semi-circular outer edge to an interior generally crescent shaped inner side, wherein the front ends form a general bowl shape with a slot therethrough.
A resin composition comprising a bifunctional phenylene ether oligomer (a) having a polyphenylene ether skeleton, an aralkyl-based cyanate ester compound (b), a bisphenol-based cyanate ester compound (c), an epoxy resin (d), a brominated carbonate oligomer (e), an inorganic filler (f), an alkoxynaphthol-based polymerization inhibitor (g) and/or a thioether-based polymerization inhibitor (h).
A gas impingement device for drying a sheet of a printing substrate transported on transporting means underneath the gas impingement device through a gas impingement region comprising a hollow body, a gas inlet fluidly connected to the hollow body and a first surface comprising a first axis and a second axis, the second axis being substantially perpendicular to the first axis, wherein the first surface is provided with a plurality of gas outlets each having a diameter d outlet, the gas outlets being fluidly connected to the body, the plurality of gas outlets being arranged in a pattern, the pattern comprising a number of substantially parallel rows extending in a second direction, each row comprising a fraction of the plurality of gas outlets such that the plurality of gas outlets is substantially equally distributed across the first surface and such that the fraction of the plurality of gas outlets on each row is arranged at an equidistant stitch, d stitch, wherein the second direction is arranged at an angle α with the first axis of the first surface, wherein α ≥ arctan (d outlet /d stitch), wherein in operation the sheet of printing substrate is transported on the transporting means underneath the gas impingement device in a first direction such that an edge of the printing substrate is substantially parallel to the first axis of the first surface,
Drive chain having alternating inner and outer chain link (10, 11) connected to one another by means of a chain hinge, and having a running direction, each inner chain link comprising at least one inner link plate and each outer chain link comprising at least two outer link plates and two chain hinge pins interconnecting the same, each chain hinge pin being arranged in a rotationally fixed manner in a pin opening of the associated outer link plates and extending through a hinge opening (16.1) of the associated inner chain link so as to form a chain hinge, and the inner and/or outer chain links (10, 11) having link plate backs that are adapted to be brought into contact with a tensioning or guide rail (5, 6), wherein the link plate back from at least a part of the inner and/or link plates (12, 15) has a bipartite design and comprises a leading area viewed in the running direction and an adjoining trailing area, the leading area of the link plate back extending at an angle (α) to the plane projected between the center lines (M a, M i) of the pin openings and hinge opening (16.1), respectively, wherein the vertex of the angle (α) pointing in an opposite direction to the running direction, and the trailing area of the link plate backs extending substantially parallel to the plane projected between the center lines (M a, M i) characterized in that the angle (α) is in the range of 2° to 10° and the leading area of the link plate backs extends over a distance determined in the running direction, that distance corresponding to 50% to 90% of the pitch of the center lines (M a, M i) of the pin openings and of the hinge openings (16.1), respectively.
A technetium complex of Formula: where: X is -NR(C=O)-, -CONR- or a Q group; Y is independently 1-10 D- or L- amino acid(s), or a PEG group of formula (-OCH 2 CH 2 O-) w where w is an integer of value 3 to 25; Z is a synthetic biological targeting moiety chosen from a 3-30 mer peptide; n is an integer of value 1 to 8; R is H, C 1-4 alkyl, C 2-4 alkoxyalkyl, C 1-4 hydroxyalkyl, or C 1-4 fluoroalkyl; Q is A is a counterion; with the proviso that the X 1 -Y chain of atoms lacks bonds in which one heteroatom is directly bonded to another; X is -NR(C=O)-, -CONR- or a Q group; Y is independently 1-10 D- or L- amino acid(s), or a PEG group of formula (-OCH 2 CH 2 O-) w where w is an integer of value 3 to 25; Z is a synthetic biological targeting moiety chosen from a 3-30 mer peptide; n is an integer of value 1 to 8; R is H, C 1-4 alkyl, C 2-4 alkoxyalkyl, C 1-4 hydroxyalkyl, or C 1-4 fluoroalkyl; Q is A is a counterion; with the proviso that the X 1 -Y chain of atoms lacks bonds in which one heteroatom is directly bonded to another;
A tracked system for a work vehicle comprising a suspension having a driving wheel, an undercarriage beam hinged to a frame of the vehicle, at least one idler wheel, at least a first, a second and a third roller wheels (11, 12, 13) attached to the undercarriage beam and a rubber track wound about at least driving wheel, idler wheel, roller wheels (11, 12, 13), characterized by comprising a tilting linkage having a first and a second rocker (20, 22) to attach first and third roller wheels (11, 13) to the undercarriage beam and an intermediate rocker to attach the second roller to the first and third rollers (11, 13) so that first and second roller wheels (11, 12) are movable one with respect to the other at least in certain working conditions, and an elastic or visco-elastic connection to connect intermediate rocker to first and second rockers (20, 22) such that the intermediate rocker is longitudinally placed between the rockers (20, 22) and is connected to the beam via the rockers (20, 22) such that the intermediate rocker is floating with respect to the beam and such that a load applied to one roller wheel transfers to both other rollers (12, 13) through the connection to increase the pressure uniformity of the track on the ground.
Method of installing a foundation element, in particular a monopile, in an underwater ground formation by means of a driver, comprising the steps of placing the foundation element on the underwater ground formation, placing a first screen for reducing noise input from the driver into surrounding water, driving the foundation element into the ground formation by means of the driver while the first screen is positioned about the foundation element, and deploying, before driving the foundation element into the ground formation, a further screen (7, 9) about the first screen, and characterized by comprising deploying the further screen (7, 9) from the first screen, wherein the further screen (7, 9) is deployed at a distance, measured between the outer circumference of the first screen and the outer circumference of the further screen (7, 9), of at least 3 meters, wherein the further screen (7, 9) comprises a plurality of arms attached to the first screen and wherein these arms are translated and/or rotated to deploy the further screen (7, 9). placing the foundation element on the underwater ground formation, placing a first screen for reducing noise input from the driver into surrounding water, driving the foundation element into the ground formation by means of the driver while the first screen is positioned about the foundation element, and deploying, before driving the foundation element into the ground formation, a further screen (7, 9) about the first screen, and characterized by comprising deploying the further screen (7, 9) from the first screen, wherein the further screen (7, 9) is deployed at a distance, measured between the outer circumference of the first screen and the outer circumference of the further screen (7, 9), of at least 3 meters, wherein the further screen (7, 9) comprises a plurality of arms attached to the first screen and wherein these arms are translated and/or rotated to deploy the further screen (7, 9).
A method to blend components to form a lubricant having a predetermined characteristic comprising determining the characteristic from a model that relates that characteristic as a function of the amount of its components and properties of the components, wherein said predetermined characteristic include one or more of KV, CCS, HTHS, Noack Volatility, MRV, Brookfield Viscosity, Soot-Dispersancy, Oxidation, Deposit, Wear, Sulfur, Phosphorus, Base Number, Color, Ash Content, Aniline Point, Acid Number, Viscosity Index, Turbidity, Demulsibility, Foam Stability, Acute Toxicity, Biodegradability. Nitrogen, and Detergency, and are described as KV = f 1 X 1, X 2, X 3..., P 1, P 2, P 3... CCS = f 2 X 1, X 2, X 3..., P 1, P 2, P 3... HTHS = f 3 X 1, X 2, X 3..., P 1, P 2, P 3... Noack Volatility = f 4 X 1, X 2, X 3..., P 1, P 2, P 3... MRV = f 5 X 1, X 2, X 3..., P 1, P 2, P 3... Brookfield Viscosity = f 6 X 1, X 2, X 3..., P 1, P 2, P 3... Soot − dispersancy = f 7 X 1, X 2, X 3..., P 1, P 2, P 3... Oxidation = f 8 X 1, X 2, X 3..., P 1, P 2, P 3... Deposit = f 9 X 1, X 2, X 3..., P 1, P 2, P 3... Wear = f 10 X 1, X 2, X 3..., P 1, P 2, P 3... Sulfur = f 11 X 1, X 2, X 3..., P 1, P 2, P 3... Phosphorus = f 12 X 1, X 2, X 3..., P 1, P 2, P 3... Base Number BN = f 13 X 1, X 2, X 3..., P 1, P 2, P 3... Color = f 14 X 1, X 2, X 3..., P 1, P 2, P 3... Ash Content = f 15 X 1, X 2, X 3..., P 1, P 2, P 3... Aniline Point = f 16 X 1, X 2, X 3..., P 1, P 2, P 3... Acid Number AN = f 17 X 1, X 2, X 3..., P 1, P 2, P 3... Viscosity Index = f 18 X 1, X 2, X 3..., P 1, P 2, P 3... Turbidity = f 19 X 1, X 2, X 3..., P 1, P 2, P 3... Demulsibility = f 20 X 1, X 2, X 3..., P 1, P 2, P 3... Foam Stability = f 21 X 1, X 2, X 3..., P 1, P 2, P 3... Acute Toxicity = f 22 X 1, X 2, X 3..., P 1, P 2, P 3... Biodegradability = f 23 X 1, X 2, X 3..., P 1, P 2, P 3... Nitrogen = f 24 X 1, X 2, X 3..., P 1, P 2, P 3... Detergency = f 25 X 1, X 2, X 3..., P 1, P 2, P 3... where X 1, X 2, X 3... are the wt%, vol%, or the mole fractions of components 1, 2, 3..., and P 1, P 2, P 3... are a subset of the properties of the corresponding components;wherein the following functions are used for rheological properties ln η = Σ X i ln η i + A i + A 0. where η is the rheological property of the mixture, η i is the rheological property of the components and A i and A 0 are constants, or ln η = ∑ i X i ln η i + ∑ ij X i X j g δ i, δ j + A 0 where i or j are all or a subset of 1 to n, δ i and δ j are solubility or other function, and wherein linear functions are used for the properties related to the components in the blend.
A battery separator comprising: a wettable, uniform mat of melt blown fibers, said fibers being thermally bonded to one another, said fibers being made of a thermoplastic material, said fibers having diameters in the range of 0.1 to 13 microns with 50% of said fibers having diameters less than 0.5 microns, said fibers having lengths greater than 12 millimeters, said mat having a basis weight ranging from 6 to 160 grams per square meter and a thickness of less than 75 microns, and an average pore size ranging from 0.3 to 50 microns. a wettable, uniform mat of melt blown fibers, said fibers being thermally bonded to one another, said fibers being made of a thermoplastic material, said fibers having diameters in the range of 0.1 to 13 microns with 50% of said fibers having diameters less than 0.5 microns, said fibers having lengths greater than 12 millimeters, said mat having a basis weight ranging from 6 to 160 grams per square meter and a thickness of less than 75 microns, and an average pore size ranging from 0.3 to 50 microns.
A disposable absorbent product including a liquid pervious topsheet, a liquid impervious backsheet, and an absorbent core positioned between the topsheet and the backsheet, the absorbent core having a liquid receiving surface directed towards said topsheet, wherein: - the absorbent core is provided with at least one embossing forming a channel for liquid drainage at said receiving surface; - a resilient absorbent member is provided, being selected from materials made of fibrous cross-linked cellulosic fibers, nonwoven highlofts, synthetic fiber batts or scrims, and having a region of higher liquid permeability in correspondence with said at least one embossing; - an acquisition layer is provided between said topsheet and said absorbent core, said acquisition layer extending into said at least one embossing to form an internal lining thereof; and - wherein the resilient absorbent member comprises stripes, the stripes each have a length in the range of 80% to 20% of the absorbent core length, a width in the range of 45% to 5% of the width of the product at the crotch portion, and a thickness in the range of 1 mm to 10 mm, wherein the stripes are longitudinally spaced along the longitudinal sides of the channel formed by the embossing and the spacing between the stripes defines the region of higher liquid permeability in correspondence with the embossing. - the absorbent core is provided with at least one embossing forming a channel for liquid drainage at said receiving surface; - a resilient absorbent member is provided, being selected from materials made of fibrous cross-linked cellulosic fibers, nonwoven highlofts, synthetic fiber batts or scrims, and having a region of higher liquid permeability in correspondence with said at least one embossing; - an acquisition layer is provided between said topsheet and said absorbent core, said acquisition layer extending into said at least one embossing to form an internal lining thereof; and - wherein the resilient absorbent member comprises stripes, the stripes each have a length in the range of 80% to 20% of the absorbent core length, a width in the range of 45% to 5% of the width of the product at the crotch portion, and a thickness in the range of 1 mm to 10 mm, wherein the stripes are longitudinally spaced along the longitudinal sides of the channel formed by the embossing and the spacing between the stripes defines the region of higher liquid permeability in correspondence with the embossing.
A vehicle boundary layer air flow control structure comprising: a vehicle body including an exterior contoured surface with an air flow deflector; and a side view mirror attached to the vehicle body to provide a diagonally rearward direction to be viewed from a driver's seat; characterized in that the air flow deflector having a downward air flow guiding surface provided in a vehicle body region of the exterior contoured surface of the vehicle body along which an air flow heading toward the side view mirror passes, the downward air flow guiding surface extending in an air flow direction of the air flow with respect to the side view mirror to divert the air flow along the exterior contoured surface of the vehicle body underneath the side view mirror. a vehicle body including an exterior contoured surface with an air flow deflector; and a side view mirror attached to the vehicle body to provide a diagonally rearward direction to be viewed from a driver's seat; characterized in that the air flow deflector having a downward air flow guiding surface provided in a vehicle body region of the exterior contoured surface of the vehicle body along which an air flow heading toward the side view mirror passes, the downward air flow guiding surface extending in an air flow direction of the air flow with respect to the side view mirror to divert the air flow along the exterior contoured surface of the vehicle body underneath the side view mirror.
A catalyst system for electrocatalyzing conversion of CO 2 into multi-carbon hydrocarbons and/or alcohols, characterised in that it comprises a core-shell structure comprising a core that is composed of a metal sulphide and a shell having a lower sulphur content than the core and that is composed of a metal with vacancies; in that the metal of the core and the metal of the shell are the same metal; and in that the shell has a thickness that is ranging between 1 nm to 3 nm as determined by EDS line scan measurement, wherein EDS line scan is carried out using a JEM-ARM 200F Atomic Resolution Analytical Microscope operating at an accelerating voltage of 200 kV.
Drive apparatus (1, 30, 40, 44, 110, 130, 131) having at least one electric machine, having at least one planetary drive, having a differential and having an operative connection between a drive shaft of the electric machine and the planetary drive, which operative connection transmits torques about a rotational axis, and a further operative connection between the planetary drive and the differential, which operative connection transmits torques, the planetary drive being formed at least from a first connecting shaft, a second connecting shaft, from at least one set of planets on the second connecting shaft and from a third connecting shaft, the drive shaft and the first connecting shaft of the planetary drive being oriented coaxially with respect to one another on the rotational axis, it being possible for an operative connection which transmits torques about the rotational axis to be established between the two connecting shafts (15, 16, 29) such that it can be engaged and disengaged by way of a clutch (13, 113) which can be engaged and disengaged between two of the connecting shafts (15, 16, 29) of the planetary drive, characterized by a brake (12, 112) which is arranged concentrically and so as to lie radially on the outside with respect to the clutch between one of the connecting shafts and a housing, by means of which brake (12, 112) the connecting shaft can be braked and fixed with respect to the housing.