mhurhangee/ep-ind-claims huggingface dataset:
A liquid packaging container, comprising: a film for a liquid packaging container comprising: at least one of a layer containing a resin composition containing a polypropylene resin (a) and at least one of a hydrogenated block copolymer (b), the hydrogenated block copolymer (b) being a hydrogenated product of a block copolymer containing a polymer block mainly containing an aromatic vinyl compound unit, and a polymer block mainly containing an isoprene (Ip) unit, a butadiene (Bd) unit, or isoprene (Ip) and butadiene (Bd) units, in the resin composition, the hydrogenated block copolymer (b) having a phase separation structure having formed therein both (i) an island phase having a long axis of 1 μm or more, or a bicontinuous structure, and (ii) an island phase having a long axis of 300 nm or less, and in the resin composition, the mass ratio ((a)/((a)+(b))) of the polypropylene resin (a) arid the hydrogenated block copolymer (b) being from 61/100 to 95/100, wherein the film has a structure containing three or more layers including at least one layer of an intermediate layer between an inner layer and an outer layer, the outer layer contains a resin composition containing 70% by mass or more of a polypropylene resin (c) having a content of a propylene monomer unit of 60% by mol or more, the resin composition forms any of the inner layer and intermediate layer, the inner layer, and the intermediate layer, and a melting point MP in of a resin component constituting the inner layer and a melting point MP mid of a resin component constituting the intermediate layer satisfy a following inequality: MP in < MP mid. at least one of a layer containing a resin composition containing a polypropylene resin (a) and at least one of a hydrogenated block copolymer (b), the hydrogenated block copolymer (b) being a hydrogenated product of a block copolymer containing a polymer block mainly containing an aromatic vinyl compound unit, and a polymer block mainly containing an isoprene (Ip) unit, a butadiene (Bd) unit, or isoprene (Ip) and butadiene (Bd) units, in the resin composition, the hydrogenated block copolymer (b) having a phase separation structure having formed therein both (i) an island phase having a long axis of 1 μm or more, or a bicontinuous structure, and (ii) an island phase having a long axis of 300 nm or less, and in the resin composition, the mass ratio ((a)/((a)+(b))) of the polypropylene resin (a) arid the hydrogenated block copolymer (b) being from 61/100 to 95/100, wherein the film has a structure containing three or more layers including at least one layer of an intermediate layer between an inner layer and an outer layer, the outer layer contains a resin composition containing 70% by mass or more of a polypropylene resin (c) having a content of a propylene monomer unit of 60% by mol or more, the resin composition forms any of the inner layer and intermediate layer, the inner layer, and the intermediate layer, and a melting point MP in of a resin component constituting the inner layer and a melting point MP mid of a resin component constituting the intermediate layer satisfy a following inequality: MP in < MP mid.
A flush toilet having a toilet seat, a pivot axis that is on a side of a rear end of the toilet seat, and a toilet body having a rim, said flush toilet being configured so that the toilet seat is placed on the rim of the toilet body with the toilet seat free to open and close on the pivot axis, wherein a projection rib for preventing dirty water from flowing out is formed on a front upper face of the rim so that it extends along an outer periphery of the rim, and the projection rib is provided so that the projection rib is outside a front periphery of the toilet seat when the toilet seat is in closing state as seen in a horizontal plane, said flush toilet being characterized in that an upper lend of the projection rib is at a lower height than an upper face of the toilet seat when the toilet seat is in closing state, and in that the upper end of the projection rib is at a height substantially the same as a height of an upper end of a gap between the front upper face of the rim and a front lower face of the toilet seat when the toilet seat is in closing state. a projection rib for preventing dirty water from flowing out is formed on a front upper face of the rim so that it extends along an outer periphery of the rim, and the projection rib is provided so that the projection rib is outside a front periphery of the toilet seat when the toilet seat is in closing state as seen in a horizontal plane, said flush toilet being characterized in that an upper lend of the projection rib is at a lower height than an upper face of the toilet seat when the toilet seat is in closing state, and in that the upper end of the projection rib is at a height substantially the same as a height of an upper end of a gap between the front upper face of the rim and a front lower face of the toilet seat when the toilet seat is in closing state.
A heterophasic propylene polymer composition, comprising - a matrix comprising a propylene homo- and/or copolymer, - an elastomeric ethylene/alpha-olefin copolymer phase dispersed in the matrix, wherein the elastomeric/alpha-olefin phase is present in an amount of not more than 30 wt.% based on the weight of the heterophasic polymer composition, the heterophasic propylene polymer composition comprising monomer units derived from an oligomeric diene compound, and having a tensile modulus of at least 1600 MPa, measured according to ISO 527-2, a hexane extractable fraction in an amount of not more than 4 wt.%, measured according to the method as described herein, a puncture energy determined in instrumented falling weight at 23 °C according to ISO 6603-2 of at least 15.0 J, a Charpy notched impact strength of at least 4.0 kJ/m 2, determined according to ISO 179/1eA:2000 at 23 °C, and a MFR (2.16 kg, 230 °C, ISO 1133) of at least 50 g/10min. - a matrix comprising a propylene homo- and/or copolymer, - an elastomeric ethylene/alpha-olefin copolymer phase dispersed in the matrix, wherein the elastomeric/alpha-olefin phase is present in an amount of not more than 30 wt.% based on the weight of the heterophasic polymer composition,
Honeycomb component for forming a patchboard, having a boxshaped housing with two end faces (4a, 4b) and four side faces (5a, 5b, 5c, 5d) extending between the end faces (4a, 4b) wherein at least two conductor insertion openings are formed in each of the two end faces (4a, 4b), to each of which a conductor connection element arranged in the housing is assigned, wherein the side faces (5a, 5b, 5c, 5d) each have at least one connecting element (8, 9) for connection to another honeycomb component, and wherein the connecting elements (8, 9) are formed and arranged on opposite side faces (5a, 5c; 5b, 5d) so as to correspond to one another, wherein at least two busbars are arranged in the housing, wherein, in each case, one busbar is electrically conductively connected to a conductor connection element, characterized in that at least two functional shafts are formed in at least one end face, and that at least one opening corresponding to a functional shaft is formed in each of the at least two busbars, so that a plug (13, 23) of a jumper (14, 24) can be inserted through a functional shaft in the end face into the opening in a busbar. wherein at least two conductor insertion openings are formed in each of the two end faces (4a, 4b), to each of which a conductor connection element arranged in the housing is assigned, wherein the side faces (5a, 5b, 5c, 5d) each have at least one connecting element (8, 9) for connection to another honeycomb component, and wherein the connecting elements (8, 9) are formed and arranged on opposite side faces (5a, 5c; 5b, 5d) so as to correspond to one another, wherein at least two busbars are arranged in the housing, wherein, in each case, one busbar is electrically conductively connected to a conductor connection element, characterized in that at least two functional shafts are formed in at least one end face, and that at least one opening corresponding to a functional shaft is formed in each of the at least two busbars, so that a plug (13, 23) of a jumper (14, 24) can be inserted through a functional shaft in the end face into the opening in a busbar.
A dual mobility acetabular implant comprising: an acetabular cup arranged and configured to be positioned within a patient's acetabulum, the acetabular cup including a body having an interior cavity; a liner arranged and configured to be inserted into the interior cavity of the acetabular cup, the liner including a body having an interior cavity; and an insert arranged and configured to be inserted into the interior cavity of the liner, the insert including a body extending from an annular rim to a polar end, the body including an interior cavity, a convex exterior surface arranged and configured to articulate relative to an inner surface of the interior cavity of the liner, and a concave interior surface arranged and configured to receive and articulate relative to an outer surface of a femoral head; characterized in that the annular rim includes at least three chamfers, the at least three chamfers include at least a first, second, and third chamfer defining first, second, and third surfaces (260, 262, 264) configured to contact the femoral head or femoral neck. an acetabular cup arranged and configured to be positioned within a patient's acetabulum, the acetabular cup including a body having an interior cavity; a liner arranged and configured to be inserted into the interior cavity of the acetabular cup, the liner including a body having an interior cavity; and an insert arranged and configured to be inserted into the interior cavity of the liner, the insert including a body extending from an annular rim to a polar end, the body including an interior cavity, a convex exterior surface arranged and configured to articulate relative to an inner surface of the interior cavity of the liner, and a concave interior surface arranged and configured to receive and articulate relative to an outer surface of a femoral head; characterized in that the annular rim includes at least three chamfers, the at least three chamfers include at least a first, second, and third chamfer defining first, second, and third surfaces (260, 262, 264) configured to contact the femoral head or femoral neck.
Method for treating a bipolar plate for a fuel cell, this plate having opposite faces (15, 16) and comprising two stamped metal sheets fixed to each other and having grooves in the opposite faces of the bipolar plate, the method comprising: passing the bipolar plate between two rows (25, 26) of straightening parallel rollers (27, 28), the straightening rollers of one of the rows of rollers being, in the direction of the movement of the bipolar plate to be treated, offset with respect to those of the other row of rollers, said grooves being suitable to deform as the bipolar plate passes between said rows of straightening rollers, such that said opposite faces (15, 16) of the bipolar plate tend to parallel planes.
A sander comprising: an upper portion configured as a holding portion; a pad; and a motor configured to drive the pad, wherein a battery configured to power the motor is installable in the sander, characterized in that the battery has an elongated shape, wherein the longitudinal direction of the elongated shape of the battery is angled at an angle greater than 0 degrees and not greater than 30 degrees with respect to the vertical direction, and the longitudinal direction is angled such that, a lower portion of the battery is in a position shifted inward farther than an upper portion of the battery. an upper portion configured as a holding portion; a pad; and a motor configured to drive the pad, wherein a battery configured to power the motor is installable in the sander, characterized in that the battery has an elongated shape, wherein the longitudinal direction of the elongated shape of the battery is angled at an angle greater than 0 degrees and not greater than 30 degrees with respect to the vertical direction, and the longitudinal direction is angled such that, a lower portion of the battery is in a position shifted inward farther than an upper portion of the battery.
A color ceramic, wherein a content of zirconia that includes a stabilizer is 80% by mass or greater, and a zirconia crystal and a solid solution crystal where manganese is incorporated into a cobalt aluminate crystal to provide a solid solution are contained therein, and wherein no grain of manganese oxide is contained therein and a dark blue color is presented where, in CIE 1976 L*a*b* color space, a lightness index L* is 5 or greater and 25 or less, a chromaticness index a* is -20 or greater and 10 or less, and a chromaticness index b* is -40 or greater and -5 or less.
Method for controlling a local vehicle having a brake system, a drive system and a distance-control system, the distance-control system being designed to adjust an actual following distance (Dlst) between the local vehicle and a front vehicle traveling ahead to a predetermined target following distance (DSoll), the target following distance (DSoll) being predetermined depending on an activated operating mode of the distance-control system, a first target following distance (DSoll1) being predetermined depending on a reaction time (tR) of a driver of the local vehicle in an activated first operating mode, a second target following distance (DSoll2) being predetermined independently of the reaction time (tR) of the driver of the local vehicle in an activated second operating mode, whether V2X data are exchanged or can be exchanged between the front vehicle and the local vehicle via a V2X connection being checked in order to activate the second operating mode in a plausibility check step, characterized in that the first target following distance (DSoll1) is compared with the second target following distance (DSoll2) and/or the reaction time (tR) of the driver of the local vehicle is compared with the latency time (tL), and when the second operating mode is activated, the second target following distance (DSoll2) is selected to be equal to the first target following distance (DSoll1) or the first operating mode is automatically activated if it is determined that the second target following distance (DSoll2) is greater than the first target following distance (DSoll1) and/or the latency time (tL) is greater than the reaction time (tR) of the driver of the local vehicle. a second target following distance (DSoll2) being predetermined independently of the reaction time (tR) of the driver of the local vehicle in an activated second operating mode, whether V2X data are exchanged or can be exchanged between the front vehicle and the local vehicle via a V2X connection being checked in order to activate the second operating mode in a plausibility check step, characterized in that the first target following distance (DSoll1) is compared with the second target following distance (DSoll2) and/or the reaction time (tR) of the driver of the local vehicle is compared with the latency time (tL), and when the second operating mode is activated, the second target following distance (DSoll2) is selected to be equal to the first target following distance (DSoll1) or the first operating mode is automatically activated if it is determined that the second target following distance (DSoll2) is greater than the first target following distance (DSoll1) and/or the latency time (tL) is greater than the reaction time (tR) of the driver of the local vehicle.
A connection assembly comprising: a first connection part (32, 35, 37, 42) and a second connection part (32, 35, 37, 42), said first and second connection part being configured to realize a gas tight connection; one or more gas sensitive parts (34, 36, 41, 44) arranged at a connection interface between the first connection part and the second connection part, wherein the one or more gas sensitive parts (34, 36, 41, 44) are configured to undergo a modification when a gas passes along the connection interface; and one or more detection modules configured to detect a modification of the one or more gas sensitive parts, characterized in that the connection assembly further comprises a seal arranged between the first connection part and the second connection part and in that the connection assembly comprises at least one of the one or more gas sensitive parts provided downstream of the seal. a first connection part (32, 35, 37, 42) and a second connection part (32, 35, 37, 42), said first and second connection part being configured to realize a gas tight connection; one or more gas sensitive parts (34, 36, 41, 44) arranged at a connection interface between the first connection part and the second connection part, wherein the one or more gas sensitive parts (34, 36, 41, 44) are configured to undergo a modification when a gas passes along the connection interface; and
Method of welding a sleeve to a tube, where the tube has at least one outer layer in a first material and at least one lumen in fluid communication with the outside of the tube through at least one lateral opening, and where the sleeve has two end portions opposite and open at respective ends and is made of a second material not suitable for fusion with the first material of the outer layer of the tube; the method comprising the steps of: - covering at least a tract, including the lateral opening, of the outer layer of the tube with an outer coating of a third material compatible with fusion with the second material of the sleeve; - putting the sleeve onto said coated tract of the tube at the lateral opening; - applying on at least one part of each end portion of the sleeve a respective heat-shrink element; - supplying each heat-shrink element with a quantity of heat which by heating it causes it to shrink and compress the respective end portion of the sleeve against the tube, where this quantity of heat is transmitted to the end portion of the sleeve bringing it to a temperature equal to or higher than its melting temperature, obtaining the welding of the sleeve to the tube and producing a device comprising the tube with the sleeve; - optionally removing the heat-shrink elements from the device; the method being characterized in that it further comprises the steps of: - prior to the application of the heat-shrink elements, putting onto the portions of the sleeve and possibly of the tube assigned for these heat-shrink elements respective protective elements, of a material that cannot be fused with the materials of the sleeve and of the outer coating of the tube; - removing the protective elements from the device. - covering at least a tract, including the lateral opening, of the outer layer of the tube with an outer coating of a third material compatible with fusion with the second material of the sleeve; - putting the sleeve onto said coated tract of the tube at the lateral opening; - applying on at least one part of each end portion of the sleeve a respective heat-shrink element; - supplying each heat-shrink element with a quantity of heat which by heating it causes it to shrink and compress the respective end portion of the sleeve against the tube, where this quantity of heat is transmitted to the end portion of the sleeve bringing it to a temperature equal to or higher than its melting temperature, obtaining the welding of the sleeve to the tube and producing a device comprising the tube with the sleeve; - optionally removing the heat-shrink elements from the device; - prior to the application of the heat-shrink elements, putting onto the portions of the sleeve and possibly of the tube assigned for these heat-shrink elements respective protective elements, of a material that cannot be fused with the materials of the sleeve and of the outer coating of the tube; - removing the protective elements from the device.
Machining head for bottle boring a workpiece by chip removal, comprising: a housing, a housing-side coupling region for coupling a machining tool to be coupled to the machining head, wherein the housing-side coupling region comprises at least one coupling interface for directly coupling a machining tool to be coupled to the machining head, wherein the direct coupling between the machining tool and the housing-side coupling interface is effected by mechanical cooperation of coupling interface-side coupling elements (10a, 10b) and machining tool-side coupling elements, wherein corresponding coupling elements are form-fitting elements, i.e. protruding elements or receiving elements, whereby rapid coupling is implemented, so that a machining tool to be coupled to the housing can be coupled to the housing in an automatable or automated manner, or a machining tool to be uncoupled from the housing can be uncoupled from the housing in an automatable or automated manner, characterised in that the machining head comprises a further housing-side coupling region for coupling the housing to a support device supporting the housing, wherein the further housing-side coupling region comprises at least one further coupling interface for supporting the housing on the support device, wherein the housing can be or is supported on the support device so as to be movable with a rotational or pivotal degree of freedom of movement. a housing, a housing-side coupling region for coupling a machining tool to be coupled to the machining head, wherein the housing-side coupling region comprises at least one coupling interface for directly coupling a machining tool to be coupled to the machining head, wherein the direct coupling between the machining tool and the housing-side coupling interface is effected by mechanical cooperation of coupling interface-side coupling elements (10a, 10b) and machining tool-side coupling elements, wherein corresponding coupling elements are form-fitting elements, i.e. protruding elements or receiving elements, whereby rapid coupling is implemented, so that a machining tool to be coupled to the housing can be coupled to the housing in an automatable or automated manner, or a machining tool to be uncoupled from the housing can be uncoupled from the housing in an automatable or automated manner, characterised in that the machining head comprises a further housing-side coupling region for coupling the housing to a support device supporting the housing, wherein the further housing-side coupling region comprises at least one further coupling interface for supporting the housing on the support device, wherein the housing can be or is supported on the support device so as to be movable with a rotational or pivotal degree of freedom of movement.
A method for mapping a colour in a digital document to a spot colour name, the digital document containing an object with a solid colour, the method comprising the steps of: - receiving a digital document, containing objects; and - obtaining a source colour and an associated spot colour name by referring to a predetermined list of colours, the predetermined list including information on a source colour and a spot colour name to be associated with the source colour; characterized in that the method additionally comprises the steps of: - inspecting each of the objects in the digital document to determine whether it has a solid colour in accordance with the source colour; - substituting the solid colour by the associated spot colour name, if the result of the step of inspecting is true; and - leaving the colour of the object as it is, if the result is false. - receiving a digital document, containing objects; and - obtaining a source colour and an associated spot colour name by referring to a predetermined list of colours, the predetermined list including information on a source colour and a spot colour name to be associated with the source colour; - inspecting each of the objects in the digital document to determine whether it has a solid colour in accordance with the source colour; - substituting the solid colour by the associated spot colour name, if the result of the step of inspecting is true; and - leaving the colour of the object as it is, if the result is false.