mhurhangee/ep-ind-claims huggingface dataset:
Electrical plug-in connector for high-voltage connections, comprising an outer body having a plug opening for receiving a mating plug-in connector, a terminal housing (8, 8', 8", 13, 13', 13", 13"') for fastening an electrical contact, and a finger protection member projecting into the plug-in direction towards the plug opening, wherein the finger protection member is a separate piece engageable with the terminal housing (8, 8', 8", 13, 13', 13", 13"') and wherein a retention end of the finger protection member is plugged into a protection member receptacle formed in the terminal housing (8, 8', 8", 13, 13', 13", 13"') and running in the plug-in direction, characterized in that the terminal housing (13, 13', 13") is provided with a receptacle (75', 90) accommodating a detent and/or a stabilizing element formed at the finger protection member.
A method of forming texture on a polymeric surface comprising: providing a polymeric layer with a first side and a second side, wherein the polymeric layer is made from a polymeric material that gels on contact with a gelling agent, and wherein the first side of the polymeric layer is gelled, with gelling extending into the polymeric layer but not to the second side; contacting the second side of the polymeric layer with a foamy aqueous solution of one or more surfactants, the aqueous foam being in the process of collapsing during the contacting, wherein the aqueous solution of surfactant is effective to gel the polymeric material; thereafter applying an aqueous medium to the second side with sufficient force or agitation so as to remove a portion of the polymeric material; and curing the remaining polymeric material without, following the contacting step, further contacting the polymer layer with a gelling component. providing a polymeric layer with a first side and a second side, wherein the polymeric layer is made from a polymeric material that gels on contact with a gelling agent, and wherein the first side of the polymeric layer is gelled, with gelling extending into the polymeric layer but not to the second side; contacting the second side of the polymeric layer with a foamy aqueous solution of one or more surfactants, the aqueous foam being in the process of collapsing during the contacting, wherein the aqueous solution of surfactant is effective to gel the polymeric material; thereafter applying an aqueous medium to the second side with sufficient force or agitation so as to remove a portion of the polymeric material; and curing the remaining polymeric material without, following the contacting step, further contacting the polymer layer with a gelling component.
A compound of the formula: wherein: R1a is hydrogen, methyl, ethenyl, cyano, fluoro, chloro, fluoromethyl, or difluoromethyl; R1b is hydrogen, fluoro, or chloro; R1c is hydrogen, hydroxy, fluoro, benzyloxy, or hydroxyethylamino; R2 is hydrogen or methyl; R2a is hydrogen or methyl; and R3a is tetrahydropyranyl. R1a is hydrogen, methyl, ethenyl, cyano, fluoro, chloro, fluoromethyl, or difluoromethyl; R1b is hydrogen, fluoro, or chloro; R1c is hydrogen, hydroxy, fluoro, benzyloxy, or hydroxyethylamino; R2 is hydrogen or methyl; R2a is hydrogen or methyl; and R3a is tetrahydropyranyl.
A method for joining a multi-segment core intravascular guide wire, comprising: providing multiple, discrete portions (106,104,102) of the guide wire core made from different materials including a proximal high modulus core portion made of a first material selected from the list comprising at least one of stainless steel, tungsten, and tungsten-rhenium alloy (W-25Re), an intermediate medium modulus core portion made of a second superelastic nitinol material and a low modulus distal core portion made of a third material selected from the list comprising at least one of cold worked stainless steel, cold worked linear elastic nitinol, and beta titanium, the method further comprising, axially aligning the discrete core portions (106,104,102); rotating one portion at a fixed speed; butting the rotating portion and an adjacent core portion together while applying a fixed axial force creating upset material to join the core portions; increasing rotation speed of the joined core portions; increasing axial force; increasing resistance weld energy; holding resistance weld energy constant; decreasing resistance weld energy; and decreasing rotational speed to zero. providing multiple, discrete portions (106,104,102) of the guide wire core made from different materials including a proximal high modulus core portion made of a first material selected from the list comprising at least one of stainless steel, tungsten, and tungsten-rhenium alloy (W-25Re), an intermediate medium modulus core portion made of a second superelastic nitinol material and a low modulus distal core portion made of a third material selected from the list comprising at least one of cold worked stainless steel, cold worked linear elastic nitinol, and beta titanium, the method further comprising, axially aligning the discrete core portions (106,104,102); rotating one portion at a fixed speed; butting the rotating portion and an adjacent core portion together while applying a fixed axial force creating upset material to join the core portions; increasing rotation speed of the joined core portions; increasing axial force; increasing resistance weld energy; holding resistance weld energy constant; decreasing resistance weld energy; and decreasing rotational speed to zero.
A compound having a structure represented by the following general formula: in the above-mentioned general formula, "l" and "n" are molar fractions when l+n=1.0, and 0≤l<1.0 and 0<n≤1.0, the structure represented by A is at least one selected from the group consisting of: and B represents a structure represented by the following general formula, the respective structural units are random copolymerized, and at least one benzene ring in the formula has at least one sulfo group. in the above-mentioned general formula, "l" and "n" are molar fractions when l+n=1.0, and 0≤l<1.0 and 0<n≤1.0, the structure represented by A is at least one selected from the group consisting of: and B represents a structure represented by the following general formula, the respective structural units are random copolymerized, and at least one benzene ring in the formula has at least one sulfo group.
A network (100, 200) for providing air-to-ground, ATG, wireless communication in various cells (360, 365), comprising: an in-flight aircraft including an antenna assembly; a plurality of ATG base stations (202, 204, 206, 350, 355), each of which defines a corresponding radiation pattern, wherein the base stations are spaced apart from each other to define at least partially overlapping coverage areas (102, 104, 106, 108, 110, 112, 114, 116, 212, 214, 216) to communicate with the antenna assembly in an ATG communication layer defined between a first altitude and a second altitude, and wherein the ATG base stations are aligned front to back along a first direction such that the corresponding radiation patterns are also aligned to define the at least partially overlapping coverage areas; and a plurality of terrestrial base stations configured to communicate primarily in a ground communication layer below the first altitude; wherein the terrestrial base stations and the ATG base stations are each configured to communicate using the same radio frequency, RF, spectrum in the ground communication layer and ATG communication layer, respectively, and wherein a serving ATG base station in communication with the in-flight aircraft is geographically located outside a coverage area of each of the terrestrial base stations in a portion of the ground communication layer above which the in-flight aircraft is located. an in-flight aircraft including an antenna assembly; a plurality of ATG base stations (202, 204, 206, 350, 355), each of which defines a corresponding radiation pattern, wherein the base stations are spaced apart from each other to define at least partially overlapping coverage areas (102, 104, 106, 108, 110, 112, 114, 116, 212, 214, 216) to communicate with the antenna assembly in an ATG communication layer defined between a first altitude and a second altitude, and wherein the ATG base stations are aligned front to back along a first direction such that the corresponding radiation patterns are also aligned to define the at least partially overlapping coverage areas; and a plurality of terrestrial base stations configured to communicate primarily in a ground communication layer below the first altitude; wherein the terrestrial base stations and the ATG base stations are each configured to communicate using the same radio frequency, RF, spectrum in the ground communication layer and ATG communication layer, respectively, and wherein a serving ATG base station in communication with the in-flight aircraft is geographically located outside a coverage area of each of the terrestrial base stations in a portion of the ground communication layer above which the in-flight aircraft is located.
A bracket adapted to be mounted to a pane of a motor vehicle, said bracket comprising a base part and at least one fixation arrangement (12a, 12b, 12c) configured to fixate a camera carrier carrying at least one camera to the bracket, wherein each of said at least one fixation arrangement (12a, 12b, 12c) comprises a holder (13a, 13b, 13c) and a spring element configured to exert an elastic locking force on a pin of the camera carrier, wherein the spring element comprises a base element configured to be held in said holder, wherein the spring element comprises an angled leg in the region of a first end of the base element, wherein said holder (13a, 13b, 13c) comprises a hole configured to receive said angled leg in a mounted state, wherein in the mounted state said hole limits the movement of the angled leg and thus of the spring element in both longitudinal directions of the elongate base element, characterized in that the first end of the base element is a proximal end arranged proximal to an insertion opening of the holder (13a, 13b, 13c).
A passive method for protecting taut cables from vibrations comprising the perpendicularly attachment of a device comprising a unilateral spring or a shape memory alloy wire to a taut cable at an attachment position characterized in that the device acts on the taut cable only when the vibrating taut cable exceeds a switch position which is determined by the following equation, equation: SP A opt = A opt 1 − 2 / 1 + Rk wherein: - Aopt is the amplitude reached by the taut cable with the device optimized at SP opt, - R k is the dynamic stiffness ratio between the taut cable with the device (K ssi) and the taut cable without the unilateral spring (K cable) and can be determined - by measuring the resonance frequency of the cable alone f c(i) and the frequency f (c+s)(i) of the cable connected permanently, Rk is defined by either the following equation, equation: R k = f c + s i f c i 2 or - or by the following equation, equation: R k = 1 + k s. sin i. π. ap / L 2 k c i with K s is the stiffness of the unilateral spring or the stiffness of the shape memory alloy wire in the austenite phase, i corresponds to the resonant mode number, L is the cable length and ap is the attachment position of the device. - Aopt is the amplitude reached by the taut cable with the device optimized at SP opt, - R k is the dynamic stiffness ratio between the taut cable with the device (K ssi) and the taut cable without the unilateral spring (K cable) and can be determined - by measuring the resonance frequency of the cable alone f c(i) and the frequency f (c+s)(i) of the cable connected permanently, Rk is defined by either the following equation, equation: R k = f c + s i f c i 2 or - or by the following equation, equation: R k = 1 + k s. sin i. π. ap / L 2 k c i with K s is the stiffness of the unilateral spring or the stiffness of the shape memory alloy wire in the austenite phase, i corresponds to the resonant mode number, L is the cable length and ap is the attachment position of the device. - by measuring the resonance frequency of the cable alone f c(i) and the frequency f (c+s)(i) of the cable connected permanently, Rk is defined by either the following equation, equation: R k = f c + s i f c i 2 or - or by the following equation, equation: R k = 1 + k s. sin i. π. ap / L 2 k c i with K s is the stiffness of the unilateral spring or the stiffness of the shape memory alloy wire in the austenite phase, i corresponds to the resonant mode number, L is the cable length and ap is the attachment position of the device.
A method for manufacturing a composite structure comprising: manufacturing an interlayer-toughened reinforcing fabric; laying up at least one layer of the interlayer-toughened reinforcing fabric onto a mold; infusing said interlayer-toughened reinforcing fabric with a matrix material; and curing said matrix material; wherein the step of manufacturing an interlayer-toughened reinforcing fabric comprises: providing a reinforcing layer (402, 1002) formed of structural tows; providing a plurality of fiber-modified interlayers; disposing or arranging the reinforcing layer and the fiber-modified interlayers in an alternating configuration; bonding or otherwise securing together the reinforcing layer and the fiber-modified interlayers; and forming the interlayer-toughened reinforcing fabric; wherein the step of providing a plurality of fiber-modified interlayers comprises: drawing a nonwoven fabric formed of continuous fibers through a slurry of discontinuous fibers suspended in a dispersive liquid; forming a network of said discontinuous fibers attached to said nonwoven fabric; and forming said fiber-modified interlayer. manufacturing an interlayer-toughened reinforcing fabric; laying up at least one layer of the interlayer-toughened reinforcing fabric onto a mold; infusing said interlayer-toughened reinforcing fabric with a matrix material; and curing said matrix material; wherein the step of manufacturing an interlayer-toughened reinforcing fabric comprises: providing a reinforcing layer (402, 1002) formed of structural tows; providing a plurality of fiber-modified interlayers; disposing or arranging the reinforcing layer and the fiber-modified interlayers in an alternating configuration; bonding or otherwise securing together the reinforcing layer and the fiber-modified interlayers; and forming the interlayer-toughened reinforcing fabric; wherein the step of providing a plurality of fiber-modified interlayers comprises: drawing a nonwoven fabric formed of continuous fibers through a slurry of discontinuous fibers suspended in a dispersive liquid; forming a network of said discontinuous fibers attached to said nonwoven fabric; and forming said fiber-modified interlayer. providing a reinforcing layer (402, 1002) formed of structural tows; providing a plurality of fiber-modified interlayers; disposing or arranging the reinforcing layer and the fiber-modified interlayers in an alternating configuration; bonding or otherwise securing together the reinforcing layer and the fiber-modified interlayers; and forming the interlayer-toughened reinforcing fabric; wherein the step of providing a plurality of fiber-modified interlayers comprises: drawing a nonwoven fabric formed of continuous fibers through a slurry of discontinuous fibers suspended in a dispersive liquid; forming a network of said discontinuous fibers attached to said nonwoven fabric; and forming said fiber-modified interlayer. drawing a nonwoven fabric formed of continuous fibers through a slurry of discontinuous fibers suspended in a dispersive liquid; forming a network of said discontinuous fibers attached to said nonwoven fabric; and forming said fiber-modified interlayer.
A composition comprising: (a) leucine; and (b) a sub-therapeutic amount of metformin wherein the molar ratio of leucine to metformin is greater than 2, wherein the combination when administered to a subject synergistically increases insulin sensitivity in said subject as compared to administering to a subject component (a) or component (b) alone. (a) leucine; and (b) a sub-therapeutic amount of metformin wherein the molar ratio of leucine to metformin is greater than 2,
A phosphor which exhibits a luminescence peak within a wavelength range of 500 to 600 nm when it is excited with light having an emission peak within a wavelength range of 250 to 500 nm, characterized by comprising a composition represented by Formula 1 below: (M 1-x Ce x) 2y Al z Si 10-z O u N w B S Formula 1 wherein M represents Sr and a part of Sr may be substituted by at least one selected from the group consisting of Ba, Ca and Mg; and x, y, z, u, w and s satisfy the following conditions: 0 < x ≤ 1, 0.8 ≤ y ≤ 1.1, 2 ≤ z ≤ 3.5, 1 < u ≤ 1 1.5 ≤ z - u, 13 ≤ u + w ≤ 15, and 0.02 ≤ s ≤ 0.14.
A method for controlling at least one transmission of data between a travelling agricultural working machine and at least one external transceiver unit, wherein the working machine moves on an agricultural work area at least periodically along a travel route which follows a predetermined route plan, wherein the transmission of data is carried out by means of at least one mobile phone network, wherein the transmission of data is controlled by means of a control device, characterized in that by means of the control device, information from at least one network coverage map associated with the work area which contains information regarding a coverage of the work area by the mobile phone network and from the route plan are combined together so that at least one transmission of data is carried out as a function of a position of the working machine along its travel route, wherein at least one transmission of data is planned by means of the control device in a manner such that it is completed immediately prior to a transfer of the working machine from a good region of the work area to a poor region of the work area, wherein in the good region according to the network coverage map, coverage for the mobile phone network is sufficient for reliable data transmission and in the poor region according to the network coverage map, coverage for the mobile phone network is insufficient for reliable data transmission. wherein the working machine moves on an agricultural work area at least periodically along a travel route which follows a predetermined route plan, wherein the transmission of data is carried out by means of at least one mobile phone network, wherein the transmission of data is controlled by means of a control device, characterized in that by means of the control device, information from at least one network coverage map associated with the work area which contains information regarding a coverage of the work area by the mobile phone network and from the route plan are combined together so that at least one transmission of data is carried out as a function of a position of the working machine along its travel route, wherein at least one transmission of data is planned by means of the control device in a manner such that it is completed immediately prior to a transfer of the working machine from a good region of the work area to a poor region of the work area, wherein in the good region according to the network coverage map, coverage for the mobile phone network is sufficient for reliable data transmission and in the poor region according to the network coverage map, coverage for the mobile phone network is insufficient for reliable data transmission.
A solid adduct comprising magnesium chloride and ethanol in which the moles of ethanol per mole of magnesium chloride range from 2 to 5 and in which the ratio between the average pore radius of the adduct measured in Angstrom, determined by mercury porosity and due to pores up to 1 μm, and the moles of ethanol per mole of magnesium chloride, is higher than 500, the mercury porosity being determined by intrusion of mercury under pressure using a "Pascal 240" series porosimeter by Carlo Erba.
A method for detecting gastric cancer, comprising: (i) providing a blood, plasma or serum sample; (ii) detecting the protein levels of human zymogen granule protein 16 ("ZG16") in said sample; and (iii) comparing the amount of ZG16 in said sample with a value obtained from one or more control samples not having gastric cancer, wherein the overexpression of ZG16 in the biological sample is indicative of gastric cancer. (i) providing a blood, plasma or serum sample; (ii) detecting the protein levels of human zymogen granule protein 16 ("ZG16") in said sample; and (iii) comparing the amount of ZG16 in said sample with a value obtained from one or more control samples not having gastric cancer,
An ex vivo method for the diagnosis of a disease or a risk for the development of a disease in a living being, comprising the following steps: Examination of a biological sample provided from a living being for the presence of at least one isoform of the complement factor D (isoCFD), which in comparison with CFD is extended at its N terminus by 1 to 4 amino acids, and/or in comparison with proCFD is shortened at its N terminus by 1 to 4 amino acids (isoCFD), Making a positive diagnosis in case of a positive detection of at least one isoCFD in the biological sample, or making a negative diagnosis in case of a negative detection of at least one isoCFD in the biological sample. Examination of a biological sample provided from a living being for the presence of at least one isoform of the complement factor D (isoCFD), which in comparison with CFD is extended at its N terminus by 1 to 4 amino acids, and/or in comparison with proCFD is shortened at its N terminus by 1 to 4 amino acids (isoCFD), Making a positive diagnosis in case of a positive detection of at least one isoCFD in the biological sample, or making a negative diagnosis in case of a negative detection of at least one isoCFD in the biological sample.