mhurhangee/ep-ind-claims huggingface dataset:
A locking system for a sliding door relative to a constraint structure, for example relative to a side post, to an opposite door, to a translation guide (30, 38') of said door or the like, said system comprising: - a latch, associable with the sliding door or with the constraint structure and rotatable about a primary rotation axis, or roto-translatable, between a locking configuration and a release configuration of said door; - a keyhole member, connectable to the constraint structure or to the sliding door, delimiting a holding edge that in the locking configuration is engaged by the latch to prevent the sliding door from moving relative to said structure; said locking system being characterized in that the keyhole member is manually operable to distance the holding edge from the latch, when the latter is in the locking configuration. - a latch, associable with the sliding door or with the constraint structure and rotatable about a primary rotation axis, or roto-translatable, between a locking configuration and a release configuration of said door; - a keyhole member, connectable to the constraint structure or to the sliding door, delimiting a holding edge that in the locking configuration is engaged by the latch to prevent the sliding door from moving relative to said structure;
Display device comprising a display panel and a multilayer actuator, the multilayer actuator comprises a plurality of unit actuators (410, 430, 450, 470) disposed on each other, each of these unit actuators (410, 430, 450, 470) comprising an electroactive layer (416, 436, 456, 476), a lower electrode (412, 432, 452, 472) and an upper electrode (414, 434, 454, 474) facing each other with the electroactive layer (416, 436, 456, 476) interposed therebetween, each electroactive layer (416, 436, 456, 476) comprising a ferroelectric polymer (416, 436, 456, 476), wherein the multilayer actuator further comprises a plurality of adhesive layers (420, 440, 460), with each one adhesive layer (420, 440, 460), disposed between two adjacent unit actuators (410, 430, 450, 470) to bond these two adjacent unit actuators (410, 430, 450, 470) together, wherein the polarization directions of all electroactive layers (416, 436, 456, 476) are the same, wherein the multilayer actuator is disposed under the display panel, and each of the plurality of adhesive layers (420, 440, 460) includes a dielectric elastomer and has a high permittivity to form another electroactive layer that is deformed by an electric field applied by adjacent electrodes.
Device for use in handling a load, the device comprising a three-dimensional scaffold that comprises multiple individual components (143 to 149, 122 to 125; 35, 36, 38), wherein at least one part of the individual components (143 to 149, 122 to 125; 35, 36, 38) are planar elements which comprise at least one plug means (30, 31) with which the individual components (143, 144, 122 to 125; 35, 36, 38) can be assembled as the three-dimensional scaffold, a coating made from a fibre-reinforced plastics with which the scaffold is coated, and at least one mounting means (111, 121, 131) for a handling means for handling a part which is usable in a production of an object and which forms the load.
A method for assaying for alpha-L-iduronidase, comprising: (a) contacting a sample with a first solution to provide a solution comprising one or more lysosomal enzymes; (b) contacting the solution comprising one or more lysosomal enzymes with an enzyme substrate for alpha-L-iduronidase and incubating the substrate for alpha-L-iduronidase with the solution comprising one or more lysosomal enzymes for a time sufficient to provide a solution comprising an enzyme product for alpha-L-iduronidase, wherein the substrate for alpha-L-iduronidase is a compound having a carbohydrate moiety and an aglycone moiety and having the formula: wherein L 2 is a linker comprising 1-20 carbon atoms in which one or more carbon atoms may be replaced with a heteroatom selected from N, O, and S, and/or one or more of carbon atoms may be substituted with a C 1 -C 6 alkyl group or halogen; L 3 is a linker comprising 1-20 carbon atoms in which one or more carbon atoms may be replaced with a heteroatom selected from N, O, or S, and/or one or more carbon atoms may be substituted with a C 1 -C 6 alkyl group or halogen; R 4 is a C 1 -C 10 alkyl group; and (c) determining the quantity of alpha-L-iduronidase product. (a) contacting a sample with a first solution to provide a solution comprising one or more lysosomal enzymes; (b) contacting the solution comprising one or more lysosomal enzymes with an enzyme substrate for alpha-L-iduronidase and incubating the substrate for alpha-L-iduronidase with the solution comprising one or more lysosomal enzymes for a time sufficient to provide a solution comprising an enzyme product for alpha-L-iduronidase, wherein the substrate for alpha-L-iduronidase is a compound having a carbohydrate moiety and an aglycone moiety and having the formula: wherein L 2 is a linker comprising 1-20 carbon atoms in which one or more carbon atoms may be replaced with a heteroatom selected from N, O, and S, and/or one or more of carbon atoms may be substituted with a C 1 -C 6 alkyl group or halogen; L 3 is a linker comprising 1-20 carbon atoms in which one or more carbon atoms may be replaced with a heteroatom selected from N, O, or S, and/or one or more carbon atoms may be substituted with a C 1 -C 6 alkyl group or halogen; R 4 is a C 1 -C 10 alkyl group; and L 2 is a linker comprising 1-20 carbon atoms in which one or more carbon atoms may be replaced with a heteroatom selected from N, O, and S, and/or one or more of carbon atoms may be substituted with a C 1 -C 6 alkyl group or halogen; L 3 is a linker comprising 1-20 carbon atoms in which one or more carbon atoms may be replaced with a heteroatom selected from N, O, or S, and/or one or more carbon atoms may be substituted with a C 1 -C 6 alkyl group or halogen; R 4 is a C 1 -C 10 alkyl group; and (c) determining the quantity of alpha-L-iduronidase product.
Method for filling a type IV composite tank, delimited by a wall of a generally-cylindrical shape and known dimensions, with pressurised combustible gas, in particular gaseous hydrogen, the gas being injected into the tank through an injector with a known diameter (di), wherein the average gas temperature T(t) inside the tank is estimated in real time according to time t during the filling, the method comprising, before filling, a step of determining the initial temperature T of the gas inside the tank, a step of determining the initial pressure P of the gas inside the tank, a step of determining the initial average temperature of the tank wall T w, and a step determining the initial mass of gas inside the tank m, the method comprising, during filling, a step of determining the enthalpy h e (t) of the gas entering into the tank according to time, and a step of determining the mass of the gas m(t) introduced into the tank according to time or, respectively, a step of determining the average pressure P(t) inside the tank according to time, the method comprising a step of determining the average temperature of the gas T(t) at the moment t inside the tank in degrees K, this average temperature T(t) being expressed as a first degree function of the average temperature of the gas T(t-1) at the preceding moment (t-1) and of a convective heat transfer coefficient k g (t-1) between the gas and the inner wall of the tank at the moment (t-1) in W.m -2.K -1, wherein the heat transfer coefficient k g (t-1) is given by the relationship k g =(λg/Dint).Nuint wherein λg is the thermal conductivity of the gas inside the tank in W.m -1.K -1, Dint is the inner diameter of the tank in metres and Nuint is the Nusselt number of the gas inside the tank (without dimension), and wherein the Nusselt number of the gas is expressed as a function of the Reynolds number (Red) (without dimension) relating to the forced convection inside the tank and of the Rayleigh number (Radint) (without dimension) relating to the natural internal convection inside the tank according to a formula Nuint= a.Radint b + c.Red d wherein a is a coefficient without dimension according to the ratio (Lint/Dint) between the inner length of the tank Lint in metres and the inner diameter of the tank Dint in metres, c being the coefficient without dimension according to the ratio (Dint/di) between the inner diameter of the tank Dint in metres and the diameter of the injector di in metres, a, b, c and d being real positive numbers without dimension, a being between 0 and 0.2, b being between 0.2 and 0.5, c being between 0 and 0.3 and d being between 0.5 and 0.9.
A compound of formula I wherein R 1 represents (C 1 -C 3)alkyl, or (C 3 -C 5)cycloalkyl; U represents CH or N; V represents O or S; and A represents a group selected from the following groups or a pharmaceutically acceptable salt thereof. R 1 represents (C 1 -C 3)alkyl, or (C 3 -C 5)cycloalkyl; U represents CH or N; V represents O or S; and A represents a group selected from the following groups or a pharmaceutically acceptable salt thereof.
Measuring instrument with a control device, at least two connections (6, 7, 8, 9), at least two measuring channels, wherein the control device allocates connections (6, 7, 8, 9) to the measuring channels and connects the measuring channels internally at least logically with these connections (6, 7, 8, 9), characterised in that the measuring instrument also exhibits at least two display devices (10c, 11c, 12c, 13c), in that each connection (6, 7, 8, 9) is allocated just one display device (10c, 11c, 12c, 13c), in that the display devices (10c, 11c, 12c, 13c) allocated to the connections (6, 7, 8, 9) display information relating to the present allocation and/or use of the respective connections (6, 7, 8, 9) and in that the display devices (10c, 11c, 12c, 13c) are in each case embodied in the form of a ring around the associated connections (6, 7, 8, 9).
A laser generator comprising: a laser source producing a beam of light; and an optical assembly downstream of the laser source, wherein the optical assembly receives the beam of light, wherein the optical assembly comprises: a waveplate receiving the beam of light; a thin film polarizer downstream of the waveplate and receiving the beam of light and reflecting a first portion of the beam of light and allowing a second portion of the beam of light to pass therethrough characterised in that the optical assembly further comprises: a beam dump receiving the first portion of the beam of light; a beam expander downstream of the waveplate and receiving the second portion of the beam of light; a diffuser downstream of the beam expander and receiving the second portion of the beam of light; and a mixing fiber downstream of the diffuser and receiving the second portion of the beam of light, wherein the mixing fiber emits the second portion of the beam of light. a laser source producing a beam of light; and an optical assembly downstream of the laser source, wherein the optical assembly receives the beam of light, wherein the optical assembly comprises: a waveplate receiving the beam of light; a thin film polarizer downstream of the waveplate and receiving the beam of light and reflecting a first portion of the beam of light and allowing a second portion of the beam of light to pass therethrough a waveplate receiving the beam of light; a thin film polarizer downstream of the waveplate and receiving the beam of light and reflecting a first portion of the beam of light and allowing a second portion of the beam of light to pass therethrough characterised in that the optical assembly further comprises: a beam dump receiving the first portion of the beam of light; a beam expander downstream of the waveplate and receiving the second portion of the beam of light; a diffuser downstream of the beam expander and receiving the second portion of the beam of light; and a mixing fiber downstream of the diffuser and receiving the second portion of the beam of light, wherein the mixing fiber emits the second portion of the beam of light. a beam dump receiving the first portion of the beam of light; a beam expander downstream of the waveplate and receiving the second portion of the beam of light; a diffuser downstream of the beam expander and receiving the second portion of the beam of light; and a mixing fiber downstream of the diffuser and receiving the second portion of the beam of light, wherein the mixing fiber emits the second portion of the beam of light.
Mounting attachment with a connecting area for a forming gas line, characterised by a first cylindrical mounting means and a second cylindrical mounting means which can be detachably attached to each other and in particular screwed into each other, the first mounting means and/or the second mounting means being adapted In a 3D plastic printing process in such a way that, by means of an essentially central passage in the first mounting means, a weldable insert is inserted in the first mounting means. The pipe is to be held, with a cylindrical area of application for the pipe to be welded in the second mounting means, the area of application having a stop area and a connection area for a gas passage bore for the supply of forming gas to a gas application point through a forming gas line in the pipe to be welded, whereby the pipe used in relation to the cylindrical mountings (4,5) is provided with one or more flexible seals, in particular, sealed, which are specially adapted in a 3D-Plastic printing process.
A method for determining a first steering angle of a forklift truck, the method comprising the steps of: - determining a first position and a first orientation of the truck; - moving the truck; - determining a second position and a second orientation of the truck; and - determining a first steering angle of the truck based on the first position and orientation of the truck and based on the second position and orientation of the truck. - determining a first position and a first orientation of the truck; - moving the truck; - determining a second position and a second orientation of the truck; and - determining a first steering angle of the truck based on the first position and orientation of the truck and based on the second position and orientation of the truck.
An imaging processing program that causes a computer to execute a process, the process comprising: detecting an inclination of a terminal that is in an imaging mode, wherein the terminal comprises the computer; issuing a first notice when the inclination of the terminal falls within a predetermined inclination range (S103: YES); issuing a second notice or capturing a still image when the inclination of the terminal is within the predetermined inclination range and a number of pixels corresponding to an Augmented Reality, AR, marker contained in a captured image falls within a predetermined range (S108: YES); expanding the predetermined inclination range when a time during which the inclination of the terminal is not within the predetermined inclination range exceeds a predetermined time; and issuing the first notice and/or issuing the second notice based on the predetermined inclination range that has been expanded. detecting an inclination of a terminal that is in an imaging mode, wherein the terminal comprises the computer; issuing a first notice when the inclination of the terminal falls within a predetermined inclination range (S103: YES); issuing a second notice or capturing a still image when the inclination of the terminal is within the predetermined inclination range and a number of pixels corresponding to an Augmented Reality, AR, marker contained in a captured image falls within a predetermined range (S108: YES); expanding the predetermined inclination range when a time during which the inclination of the terminal is not within the predetermined inclination range exceeds a predetermined time; and issuing the first notice and/or issuing the second notice based on the predetermined inclination range that has been expanded.
A conductive film, comprising: a glass substrate; a first conductive layer formed directly on the glass substrate; and a patterned second conductive layer directly formed on the first conductive layer, wherein the second conductive layer includes a metal from the group of copper (Cu), aluminum (Al), molybdenum (Mb), chromium (Cr), magnesium (Mg), calcium (Ca), sodium (Na), potassium, titanium (Ti), indium (In), yttrium, lithium (Li), gadolinium (Gd), silver (Ag), tin (Sn), lead (Pb) or an alloy containing two or more thereof; the conductive film characterized in that oxide layers (40, 41) provided by oxides of the metal or alloy included in the second conductive layer are formed on top and side surfaces of the second conductive layer; and in that the oxide layers (40, 41) have a thickness of 1 to 100 nm. a glass substrate; a first conductive layer formed directly on the glass substrate; and a patterned second conductive layer directly formed on the first conductive layer, wherein the second conductive layer includes a metal from the group of copper (Cu), aluminum (Al), molybdenum (Mb), chromium (Cr), magnesium (Mg), calcium (Ca), sodium (Na), potassium, titanium (Ti), indium (In), yttrium, lithium (Li), gadolinium (Gd), silver (Ag), tin (Sn), lead (Pb) or an alloy containing two or more thereof; the conductive film characterized in that oxide layers (40, 41) provided by oxides of the metal or alloy included in the second conductive layer are formed on top and side surfaces of the second conductive layer; and in that the oxide layers (40, 41) have a thickness of 1 to 100 nm.
A sulfide-based solid electrolyte particle, comprising a crystal phase of a cubic argyrodite-type crystal structure composed of lithium, phosphorus, sulfur and a halogen, wherein a ratio Z Ha2 /Z Ha1 of an element ratio Z Ha2 of the halogen at the position in terms of SiO 2 sputter rate of 5 nm in depth from the particle surface to an element ratio Z Ha1 of the halogen at the position in terms of SiO 2 sputter rate of 100 nm in depth from the particle surface is 0.5 or lower, as measured by X-ray photoelectron spectroscopy; and a ratio Z O2 /Z A2 of an element ratio Z O2 of oxygen to a total Z A2 of element ratios of phosphorus, sulfur, oxygen and the halogen at the position in terms of SiO 2 sputter rate of 5 nm in depth from the particle surface is 0.5 or higher, as measured by XPS, wherein the XPS measurement are realised with a XPS apparatus whose the excitation X-ray is set to monochromatic AlKα line of 1,486.7 eV, the output is set to 50 W, X-ray diameter is set to 200 μm, the pass energy is set to 26 eV, the photoelectron escape angle is set to 45°, the accelerating voltage is set to 2 kV, the sputter area is set to 2 mm × 2 mm, and the etching rate is set to 8.0 nm/min in terms of SiO2. wherein a ratio Z Ha2 /Z Ha1 of an element ratio Z Ha2 of the halogen at the position in terms of SiO 2 sputter rate of 5 nm in depth from the particle surface to an element ratio Z Ha1 of the halogen at the position in terms of SiO 2 sputter rate of 100 nm in depth from the particle surface is 0.5 or lower, as measured by X-ray photoelectron spectroscopy; and a ratio Z O2 /Z A2 of an element ratio Z O2 of oxygen to a total Z A2 of element ratios of phosphorus, sulfur, oxygen and the halogen at the position in terms of SiO 2 sputter rate of 5 nm in depth from the particle surface is 0.5 or higher, as measured by XPS,
An isolated peptide comprising an amino acid segment comprising the amino acid sequence of SEQ ID NO: 1, SEQ ID NO: 2, SEQ ID NO: 3, SEQ ID NO: 290, one of the amino acid sequences CRGDR/K/HGVD/E/HC (SEQ ID NO: 329), or one of the amino acid sequences CRGDHGPD/E/HC (SEQ ID NO: 330), wherein the peptide has a length of less than 50 residues and selectively homes to a site of angiogenesis, to a tumor, to a site of arthritis, a cell or tissue expressing one or more αv integrins, or to a cell or tissue expressing one or more αv integrins and neuropilin-1.
A wireless barcode scanner device comprising: a device housing including a head, the head including a first surface and a second surface, the first surface being distinct from the second surface; a first receive coil extending in a first plane in alignment with the first surface; and a second receive coil spaced apart from the first receive coil, the second receive coil extending in a second plane different from the first plane and aligned with the second surface, the first and second coils (702, 704) being configured to inductively receive wireless power signals. a device housing including a head, the head including a first surface and a second surface, the first surface being distinct from the second surface; a first receive coil extending in a first plane in alignment with the first surface; and a second receive coil spaced apart from the first receive coil, the second receive coil extending in a second plane different from the first plane and aligned with the second surface, the first and second coils (702, 704) being configured to inductively receive wireless power signals.
A damping apparatus for an exhaust valve in a compressor comprising a fixed body, wherein the fixed body comprises an exhaust hole through which a compression cavity and an exhaust cavity are in fluid communication with each other, the exhaust hole comprises an inlet, an outlet and an intermediate cavity arranged between the inlet and the outlet and allowing the inlet and the outlet to be in fluid communication with each other, the intermediate cavity is configured to enable a backflow of a gas from the exhaust cavity to form a vortex in the intermediate cavity, characterized in that a lowest point of the intermediate cavity along a longitudinal center axis of the exhaust hole from the exhaust cavity towards the compression cavity extends beyond a plane perpendicular to the gas flow direction at an intersection of the contour of the intermediate cavity and the contour of the inlet.
An intervertebral stabilization system, comprising: a tissue-engineered intervertebral disc configured to fit within an intervertebral space between a first vertebra and a second vertebra, wherein the tissue-engineered intervertebral disc comprises: a nucleus pulposus structure comprising a first population of cells; an annulus fibrosis structure surrounding and in contact with the nucleus pulposus structure; a bioresorbable plate to secure the tissue-engineered intervertebral disc between the first vertebra and the second vertebra, wherein the bioresorbable plate is configured to couple with the first vertebra and the second vertebra; and characterized by a plurality of bioresorbable screws to secure the bioresorbable plate with the first vertebra and the second vertebra, wherein the plurality of bioresorbable screws are configured to degrade at a slower rate or over a longer period of time relative to the bioresorbable plate. a nucleus pulposus structure comprising a first population of cells; an annulus fibrosis structure surrounding and in contact with the nucleus pulposus structure; a bioresorbable plate to secure the tissue-engineered intervertebral disc between the first vertebra and the second vertebra, wherein the bioresorbable plate is configured to couple with the first vertebra and the second vertebra; and characterized by a plurality of bioresorbable screws to secure the bioresorbable plate with the first vertebra and the second vertebra, wherein the plurality of bioresorbable screws are configured to degrade at a slower rate or over a longer period of time relative to the bioresorbable plate.