mhurhangee/ep-ind-claims huggingface dataset:
Earthing contact for the electrical contacting of an earthing cable with a component that has an electrically conductive component surface, having an electrically conductive contact plate and a fastening element, wherein the contact plate has a first contact surface for areal bearing contact of the contact plate on the component surface, has a second contact surface for bearing contact of an earthing cable against the contact plate and has a passage for the fastening element, wherein the fastening element has a fastening section for fastening of the fastening element in the component, has a pressing element for pressing of the contact plate against the component surface and has a holding section for arrangement in the passage of the contact plate when the pressing element presses the contact plate against the component surface, wherein the passage is in the form of a circular-cylindrical bore with a bore diameter and a bore length, and wherein the holding section is in the form of a circular-cylindrical shaft section with a shaft diameter, characterized in that the ratio of the difference between the bore diameter and the shaft diameter and the bore length is at least 0.05, so that the first contact surface is tiltable through a tilting angle of at least 6° in relation to the fastening section when the holding section is arranged in the passage.
A lightning arrester comprising: a housing; a mainbody partially mounted in the housing; an encapsulation cap mounted at a first end of the housing; an elastic apparatus compressed between the encapsulation cap and the mainbody, and a directional pressure relief apparatus, wherein the encapsulation cap comprises: a circular base mounted at the first end of the housing; characterized in that a mounting portion is formed at a substantial center of the base, and in that a first end of the elastic apparatus is mounted on the mounting portion and in that a second end thereof is abutted against the mainbody, and in that the mounting portion is configured to be a cylinder projecting from the base, and in that a part of the elastic apparatus is mounted in the cylinder. a housing; a mainbody partially mounted in the housing; an encapsulation cap mounted at a first end of the housing; an elastic apparatus compressed between the encapsulation cap and the mainbody, and a directional pressure relief apparatus, wherein the encapsulation cap comprises: a circular base mounted at the first end of the housing; characterized in that a mounting portion is formed at a substantial center of the base, and in that a first end of the elastic apparatus is mounted on the mounting portion and in that a second end thereof is abutted against the mainbody, and in that the mounting portion is configured to be a cylinder projecting from the base, and in that a part of the elastic apparatus is mounted in the cylinder. a circular base mounted at the first end of the housing; characterized in that a mounting portion is formed at a substantial center of the base, and in that a first end of the elastic apparatus is mounted on the mounting portion and in that a second end thereof is abutted against the mainbody, and in that the mounting portion is configured to be a cylinder projecting from the base, and in that a part of the elastic apparatus is mounted in the cylinder.
Stable solution of molecular material, comprising: - a first type of organic or organometallic molecules; - the first type at least having groups allowing electron delocalization; - a third type of molecules that may be a surfactant or a solvent, characterized in that it also comprises a second type of organic or organometallic molecules or of ions; - said third type being capable of combining with the first or the second type of molecules or of ions (M1, M2) to form an adduct in solution whose presence prevents the precipitation of the compound M1-M2 formed by reaction between M1 and M2 and makes it possible to obtain a solution whose concentration of compound M1-M2 is greater than that governed by the precipitation constant of the compound M1-M2 in the absence of molecules of the third type M3, and - the third type of molecules charged with defining adducts in solution with the first or second types of molecules being organosoluble molecules bearing at least one coordinating group, which may be a compound belonging to one of the following families: - amines, which may be 1-octylamine or 1-pentylamine; - carboxylic acids; - esters; - siloxanes; - phosphines; - molecules bearing a π coordinating system, which may be 3-hexylthiophene. - a first type of organic or organometallic molecules; - the first type at least having groups allowing electron delocalization; - a third type of molecules that may be a surfactant or a solvent, characterized in that it also comprises a second type of organic or organometallic molecules or of ions; - said third type being capable of combining with the first or the second type of molecules or of ions (M1, M2) to form an adduct in solution whose presence prevents the precipitation of the compound M1-M2 formed by reaction between M1 and M2 and makes it possible to obtain a solution whose concentration of compound M1-M2 is greater than that governed by the precipitation constant of the compound M1-M2 in the absence of molecules of the third type M3, and - the third type of molecules charged with defining adducts in solution with the first or second types of molecules being organosoluble molecules bearing at least one coordinating group, which may be a compound belonging to one of the following families: - amines, which may be 1-octylamine or 1-pentylamine; - carboxylic acids; - esters; - siloxanes; - phosphines; - molecules bearing a π coordinating system, which may be 3-hexylthiophene. - amines, which may be 1-octylamine or 1-pentylamine; - carboxylic acids; - esters; - siloxanes; - phosphines; - molecules bearing a π coordinating system, which may be 3-hexylthiophene.
An interferometric apparatus (10; 100; 200; 300; 400; 500; 600) having an optical axis and comprising: means for locating an object (102; 504; 548) to be measured along the optical axis; a detector (50; 122); an optical arrangement adapted to at least in part cooperate with the object (102; 504; 548) to form an interferometer cavity and facilitate the generation of interfering wavefronts in which phase information about the object (102; 504; 548) is encoded and imaged on to the detector (50; 122); and radiation directing means for directing radiation onto the object (102; 504; 548) to be measured, the apparatus (10; 100; 200; 300; 400; 500; 600) being characterized in that the radiation directing means is adapted to direct radiation at the object (102; 504; 548) from at least two different off-axis points of illumination that are distant from the optical axis such that radiation from each of the different off-axis points of illumination is incident to the same points on the object (102; 504; 548) along optical paths having identical optical path differences within the interferometer cavity to generate interfering wavefronts corresponding to each of the off-axis points of illumination, each wavefront containing substantially identical phase information about the object (102; 504; 548) and being added together incoherently at the same point on the detector (50; 122), each of the interfering wavefronts corresponding to each of the different off-axis points of illumination also including unwanted phase information that is averaged on the detector (50; 122). means for locating an object (102; 504; 548) to be measured along the optical axis; a detector (50; 122); an optical arrangement adapted to at least in part cooperate with the object (102; 504; 548) to form an interferometer cavity and facilitate the generation of interfering wavefronts in which phase information about the object (102; 504; 548) is encoded and imaged on to the detector (50; 122); and radiation directing means for directing radiation onto the object (102; 504; 548) to be measured, the apparatus (10; 100; 200; 300; 400; 500; 600) being characterized in that the radiation directing means is adapted to direct radiation at the object (102; 504; 548) from at least two different off-axis points of illumination that are distant from the optical axis such that radiation from each of the different off-axis points of illumination is incident to the same points on the object (102; 504; 548) along optical paths having identical optical path differences within the interferometer cavity to generate interfering wavefronts corresponding to each of the off-axis points of illumination, each wavefront containing substantially identical phase information about the object (102; 504; 548) and being added together incoherently at the same point on the detector (50; 122), each of the interfering wavefronts corresponding to each of the different off-axis points of illumination also including unwanted phase information that is averaged on the detector (50; 122).
A cathode active material for a lithium secondary battery comprising: a lithium-transition metal composite oxide particle including a plurality of primary particles having a hexagonal close-packed structure, wherein the lithium-transition metal composite oxide particle comprises a lithium-potassium-containing portion including LiKSO 4 formed between the primary particles, wherein each of the plurality of primary particles include nickel, cobalt and manganese as transition metals, wherein each of the plurality of primary particles have a composition represented by Formula 1: [Formula 1] Li a Ni x M 1-x O 2+y wherein, in Formula 1, 0.9≤a≤1.2, 0.5≤x≤0.99, and - 0.1≤y≤0.1, and M represents at least one element selected from Na, Mg, Ca, Y, Ti, Hf, V, Nb, Ta, Cr, Mo, W, Mn, Co, Fe, Cu, Ag, Zn, B, Al, Ga, C, Si, Sn, Ba and Zr. a lithium-transition metal composite oxide particle including a plurality of primary particles having a hexagonal close-packed structure, wherein the lithium-transition metal composite oxide particle comprises a lithium-potassium-containing portion including LiKSO 4 formed between the primary particles, wherein each of the plurality of primary particles include nickel, cobalt and manganese as transition metals, wherein each of the plurality of primary particles have a composition represented by Formula 1: [Formula 1] Li a Ni x M 1-x O 2+y wherein, in Formula 1, 0.9≤a≤1.2, 0.5≤x≤0.99, and - 0.1≤y≤0.1, and M represents at least one element selected from Na, Mg, Ca, Y, Ti, Hf, V, Nb, Ta, Cr, Mo, W, Mn, Co, Fe, Cu, Ag, Zn, B, Al, Ga, C, Si, Sn, Ba and Zr.
The invention relates to a clutch device for a drive train of a motor vehicle, comprising a torsional vibration damper, a disconnect clutch and a fastening unit which detachably connects the disconnect clutch to the torsional vibration damper, wherein the fastening unit has a first toothing region fixed to a clutch component of the disconnect clutch, a second toothing region which is fixed to the output side of the torsional vibration damper and which is in an interlocking rotational connection with the first toothing region, and a clamping element which preloads the toothing regions (6, 8) relative to one another with a preloading force in a circumferential direction, and wherein the clamping element is designed such that it preloads the output side of the torsional vibration damper with an axial contact force relative to the clutch component, characterised in that the disconnect clutch has a first clutch component receiving the first toothing region and a second clutch component which can be coupled to the first clutch component.
An apparatus, comprising: a housing; a chip assembly pad being encapsulated by the housing, the chip assembly pad being configured for coupling to a semiconductor chip; one or more leads (114, 116, 118), at least partially encapsulated by the housing; a clip including one or more terminals (124, 126) and a chip linker, the one or more terminals (124,126) being configured for coupling to the one or more leads (114, 116, 118),; and a heat dissipation block, wherein the chip linker being coupled between the semiconductor chip and the heat dissipation block, the heat dissipation block being configured for removing heat from the semiconductor chip during operation, wherein the housing encapsulates the semiconductor chip, the chip assembly pad, the clip, and the heat dissipation block, and at least a portion of the leads (114, 116, 118), where at least a portion of one or more of the leads (114, 116, 118), may be configured to extend outside of the housing. a housing; a chip assembly pad being encapsulated by the housing, the chip assembly pad being configured for coupling to a semiconductor chip; one or more leads (114, 116, 118), at least partially encapsulated by the housing; a clip including one or more terminals (124, 126) and a chip linker, the one or more terminals (124,126) being configured for coupling to the one or more leads (114, 116, 118),; and a heat dissipation block, wherein the chip linker being coupled between the semiconductor chip and the heat dissipation block, the heat dissipation block being configured for removing heat from the semiconductor chip during operation, wherein the housing encapsulates the semiconductor chip, the chip assembly pad, the clip, and the heat dissipation block, and at least a portion of the leads (114, 116, 118), where at least a portion of one or more of the leads (114, 116, 118), may be configured to extend outside of the housing.
A method for selecting a working area of a gas chromatography column for using said column in analytical chromatography in predetermined conditions of mobile phase composition, mobile phase flow rate and control in a single linear temperature ramp, characterized in that it comprises the following steps: i) performing chromatography of several members of a homologous series on said column in said predetermined conditions in order to obtain the retention times of said members of the homologous series specific to said column, ii) using tables containing the boiling points of the different members of the homologous series and using the retention times obtained in step i), establishing the data pair {retention time; boiling point} for each member of the homologous series, iii) selecting a correlation coefficient or coefficient of determination (R 2) with a satisfactory estimated value, iv) applying linear regression to groups of data pairs {retention time; boiling point} of consecutive members of the homologous series obtained in step ii), v) selecting the group of data pairs {retention time; boiling point} of consecutive members of the homologous series displaying linearity with a correlation coefficient or coefficient of determination (R 2) with a value at least equal to the value of the coefficient of linear regression or coefficient of determination selected in step iii), vi) selecting the working area corresponding to the time interval between the retention time of the member of the homologous series having the shortest carbon chain and the retention time of the member of the homologous series having the longest carbon chain of the group of data pairs {retention time; boiling point} selected in step v). i) performing chromatography of several members of a homologous series on said column in said predetermined conditions in order to obtain the retention times of said members of the homologous series specific to said column, ii) using tables containing the boiling points of the different members of the homologous series and using the retention times obtained in step i), establishing the data pair {retention time; boiling point} for each member of the homologous series, iii) selecting a correlation coefficient or coefficient of determination (R 2) with a satisfactory estimated value, iv) applying linear regression to groups of data pairs {retention time; boiling point} of consecutive members of the homologous series obtained in step ii), v) selecting the group of data pairs {retention time; boiling point} of consecutive members of the homologous series displaying linearity with a correlation coefficient or coefficient of determination (R 2) with a value at least equal to the value of the coefficient of linear regression or coefficient of determination selected in step iii), vi) selecting the working area corresponding to the time interval between the retention time of the member of the homologous series having the shortest carbon chain and the retention time of the member of the homologous series having the longest carbon chain of the group of data pairs {retention time; boiling point} selected in step v).
A fence comprising posts (11, 11') and at least one sheet-metal panel, said panel being mounted between the posts (11, 11') to form said fence, said fence comprising assembly end members for assembling said panel to said posts (11, 11'), characterized in that said panel comprises a web and two curved flanges (14, 14') respectively extending along two upper and lower longitudinal edges of said web, an assembly end member being accommodated at one end of said two curved flanges (14, 14') for the fastening of said panel to a post, said web comprising a sheet-metal tongue extending heightwise of said panel and extending beyond the end of said two curved flanges (14, 14') of said upper and lower longitudinal edges of said web of said panel.
An electrolyzer comprising a catalyst layer comprising a catalytically active element and an ion conducting polymer, wherein said catalytic active element is selected from the group consisting of V, Cr, Mn, Fe, Co, Ni, Cu, Sn, Zr, Nb, Mo, Ru, Rh, Pd, Ag, Cd, Hf, Ta, W, Re, Ir, Pt, Au, Hg, Al, Si, In, Tl, Pb, Bi, Sb, Te, U, Sm, Tb, La, Ce, and Nd; and wherein said ion conducting polymer comprises: a copolymer of styrene and a ligand comprising positively charged cyclic amine groups, wherein said ligand comprising positively charged cyclic amine groups comprises at least one of tetra-methyl-imidazolium, a pyrazolium, a pyrrolidinium, a pyrrolium, a pyrimidium, a piperidinium, an indolium, and a triazinium, the electrolyzer having a reactant stream input, wherein the electrolyzer is arranged to contact a reactant stream comprising CO 2 with said catalyst layer, the electrolyzer having an anode and a cathode, wherein said catalyst layer is in electrical contact with the cathode. wherein said catalytic active element is selected from the group consisting of V, Cr, Mn, Fe, Co, Ni, Cu, Sn, Zr, Nb, Mo, Ru, Rh, Pd, Ag, Cd, Hf, Ta, W, Re, Ir, Pt, Au, Hg, Al, Si, In, Tl, Pb, Bi, Sb, Te, U, Sm, Tb, La, Ce, and Nd; and wherein said ion conducting polymer comprises: a copolymer of styrene and a ligand comprising positively charged cyclic amine groups, wherein said ligand comprising positively charged cyclic amine groups comprises at least one of tetra-methyl-imidazolium, a pyrazolium, a pyrrolidinium, a pyrrolium, a pyrimidium, a piperidinium, an indolium, and a triazinium, the electrolyzer having a reactant stream input, wherein the electrolyzer is arranged to contact a reactant stream comprising CO 2 with said catalyst layer, the electrolyzer having an anode and a cathode, wherein said catalyst layer is in electrical contact with the cathode. a copolymer of styrene and a ligand comprising positively charged cyclic amine groups, wherein said ligand comprising positively charged cyclic amine groups comprises at least one of tetra-methyl-imidazolium, a pyrazolium, a pyrrolidinium, a pyrrolium, a pyrimidium, a piperidinium, an indolium, and a triazinium, the electrolyzer having a reactant stream input, wherein the electrolyzer is arranged to contact a reactant stream comprising CO 2 with said catalyst layer, the electrolyzer having an anode and a cathode, wherein said catalyst layer is in electrical contact with the cathode.
A continuous method of forming a layered pack of glass fibers, the method comprising: forming glass fibers from molten glass; forming binderless webs from the glass fibers; forming a layered pack of the glass fibers from the binderless webs by lapping a binderless web in the machine direction or by cross-lapping a binderless web at ninety degrees to the machine direction; and mechanically entangling the glass fibers in the layered pack; wherein the glass fibers have a diameter in a range of 2.28 microns to 8.89 microns; and wherein the glass fibers have a length in a range of 25.4 millimeters to 127 millimeters. forming glass fibers from molten glass; forming binderless webs from the glass fibers; forming a layered pack of the glass fibers from the binderless webs by lapping a binderless web in the machine direction or by cross-lapping a binderless web at ninety degrees to the machine direction; and mechanically entangling the glass fibers in the layered pack; wherein the glass fibers have a diameter in a range of 2.28 microns to 8.89 microns; and wherein the glass fibers have a length in a range of 25.4 millimeters to 127 millimeters.
Device for cardiopulmonary massage and/or resuscitation, having a massage stamp which can be reversibly driven by a drive apparatus in an actuation direction and which has a pressure surface that can be positioned on the chest of a patient, having the following features: - the massage stamp has a stamp upper part and a stamp lower part which is operatively connected to the stamp upper part; - the stamp upper part and the stamp lower part can be adjusted relative to one another in the actuation direction at least between a first position which defines a working length and a second position in which an effective length of the massage stamp is shortened compared to the working length; - in the first position, the stamp upper part is locked to the stamp lower part by means of a releasable locking mechanism; and - the locking mechanism is released upon reaching/exceeding a predetermined compression force (K max) transmitted by the massage stamp, characterised in that the locking mechanism is substantially formed by a magnetic holding device effective between the stamp upper part and the stamp lower part, the magnetic holding force of which corresponds to the predetermined compression force (K max). - the massage stamp has a stamp upper part and a stamp lower part which is operatively connected to the stamp upper part; - the stamp upper part and the stamp lower part can be adjusted relative to one another in the actuation direction at least between a first position which defines a working length and a second position in which an effective length of the massage stamp is shortened compared to the working length; - in the first position, the stamp upper part is locked to the stamp lower part by means of a releasable locking mechanism; and - the locking mechanism is released upon reaching/exceeding a predetermined compression force (K max) transmitted by the massage stamp, characterised in that the locking mechanism is substantially formed by a magnetic holding device effective between the stamp upper part and the stamp lower part, the magnetic holding force of which corresponds to the predetermined compression force (K max).