mhurhangee/ep-ind-claims huggingface dataset:
A method of manufacturing an orthopedic prosthesis comprising the steps of: providing a porous metal layer positioned against a metal substrate at an interface between the porous metal layer and the metal substrate; providing an electrode (132a, 132b); providing an intermediate element (300a, 300b) positioned between and in contact with the electrode and the porous metal layer, wherein the intermediate element includes tantalum in contact with tantalum of the porous metal layer; and directing an electrical current to the interface between the porous metal layer and the metal substrate to bond the porous metal layer to the metal substrate. providing a porous metal layer positioned against a metal substrate at an interface between the porous metal layer and the metal substrate; providing an electrode (132a, 132b); providing an intermediate element (300a, 300b) positioned between and in contact with the electrode and the porous metal layer, wherein the intermediate element includes tantalum in contact with tantalum of the porous metal layer; and directing an electrical current to the interface between the porous metal layer and the metal substrate to bond the porous metal layer to the metal substrate.
A grain-oriented electrical steel sheet comprising a forsterite film and a tension coating on both surfaces of the steel sheet, wherein magnetic domain refining treatment has been performed to apply linear thermal strain to the grain-oriented electrical steel sheet, a magnitude of deflection in a rolling direction of the steel sheet is 600 mm or more and 6000 mm or less as a curvature radius of a deflected surface with a surface having the thermal strain applied thereto being an inner side, the magnitude of deflection in the rolling direction being a curvature radius obtained by cutting out a sample measuring 300 mm in the rolling direction and 100 mm in the direction orthogonal to the rolling direction from the grain-oriented electrical steel sheet, standing the 100 mm side of the sample in a vertical direction, and then performing measurements of the magnitude of deflection in the rolling direction, and a magnitude of deflection in the direction orthogonal to the rolling direction is 2000 mm or more as the curvature radius of the deflected surface with the surface having the strain applied thereto being the inner side, the magnitude of deflection in the direction orthogonal to the rolling direction being a curvature radius obtained by cutting out a sample measuring 300 mm in the direction orthogonal to the rolling direction and 100 mm in the rolling direction from the grain-oriented electrical steel sheet, standing the 100 mm side of the sample in the vertical direction, and then performing measurements of the magnitude of deflection in the direction orthogonal to the rolling direction.
A liquid composition comprising a) a (meth)acrylic polymer, b) a (meth)acrylic monomer, c) at least one flame-retardant substance chosen from a phosphorus-based additive comprising a dialkylphosphinic acid or diphosphinic acid or mixtures thereof or therewith, said liquid composition is having a dynamic viscosity of between 10 mPa*s and 10 000 mPa*s at 25°C, as measured in the description. a) a (meth)acrylic polymer, b) a (meth)acrylic monomer, c) at least one flame-retardant substance chosen from a phosphorus-based additive comprising a dialkylphosphinic acid or diphosphinic acid or mixtures thereof or therewith,
A method for providing capacitive sensor detection with at least one capacitive sensor comprising a transmitting electrode and a receiving electrode capacitively coupled with the transmitting electrode, the method comprising: generating a stimulus at the transmitting electrode, wherein the stimulus comprises a sequence of pulses, receiving a signal from the receiving electrode in response to the stimulus at the transmitting electrode and generating a data packet (p n) comprising a plurality of samples of the signal received from the receiving electrode, the samples being generated between a start and a stop time (ti, ti+i) of the data packet (p n); weighting the plurality of samples by providing less gain at a beginning and end of the data packet (p n) with respect to a center of the data packet (p n), in such a way as to reduce but not entirely cancel the contribution of the beginning and end of the packet (p n); and integrating the weighted samples to generate a single output value for the data packet (p n). generating a stimulus at the transmitting electrode, wherein the stimulus comprises a sequence of pulses, receiving a signal from the receiving electrode in response to the stimulus at the transmitting electrode and generating a data packet (p n) comprising a plurality of samples of the signal received from the receiving electrode, the samples being generated between a start and a stop time (ti, ti+i) of the data packet (p n); weighting the plurality of samples by providing less gain at a beginning and end of the data packet (p n) with respect to a center of the data packet (p n), in such a way as to reduce but not entirely cancel the contribution of the beginning and end of the packet (p n); and integrating the weighted samples to generate a single output value for the data packet (p n).
A monolithic membrane-type filtration structure for filtering liquids, comprising: - a support formed of a porous inorganic material of permeability K s, said support having a tubular overall shape with a main axis, an upstream base, a downstream base, a peripheral wall delimiting an internal part; - a plurality of passages parallel to the main axis of the support, formed in the internal part of the support, said passages being separated from one another by internal walls formed of the porous inorganic material; - all said passages being open at their upstream or downstream ends in the direction in which said liquid circulates, - the filtered liquid being removed via said peripheral wall, - a membrane of permeability K m and of mean thickness t m covering the internal surface of the passages; characterized in that its external hydraulic diameter Ø f satisfies the relationship: ∅ f = α × A + B × log 10 K s × t m / K m in which α is a coefficient comprised between 0.85 and 1.15, and A = − 21570 × e int 2 − 18.6 × D h + 19.0 × e int − 2.5 × e ext + 0.1244 B = − 11760 × D h × e int + 9.7 × e int + 3.1 × e ext + 0.04517 in which: D h is the mean hydraulic diameter of the passages, e int is the minimum thickness of the internal walls between the passages, e ext is the minimum thickness of the peripheral wall of the filter, t m, Ø f, e int, e ext and D h being expressed in meters and K s and Km being expressed in m 2 the permeabilities of the support Ks and the membrane Km being defined on the basis of the Kozeny-Carman relationship by the following formula: K = (PO 3 ×D 50 2)/[180 × (1-PO) 2] where PO is the open porosity and D 50 is the median pore diameter, said open porosity and median pore diameter being determined by mercury porosimetry in accordance with the present description. - a support formed of a porous inorganic material of permeability K s, said support having a tubular overall shape with a main axis, an upstream base, a downstream base, a peripheral wall delimiting an internal part; - a plurality of passages parallel to the main axis of the support, formed in the internal part of the support, said passages being separated from one another by internal walls formed of the porous inorganic material; - all said passages being open at their upstream or downstream ends in the direction in which said liquid circulates, - the filtered liquid being removed via said peripheral wall, - a membrane of permeability K m and of mean thickness t m covering the internal surface of the passages; D h is the mean hydraulic diameter of the passages, e int is the minimum thickness of the internal walls between the passages, e ext is the minimum thickness of the peripheral wall of the filter, t m, Ø f, e int, e ext and D h being expressed in meters and K s and Km being expressed in m 2 the permeabilities of the support Ks and the membrane Km being defined on the basis of the Kozeny-Carman relationship by the following formula: K = (PO 3 ×D 50 2)/[180 × (1-PO) 2] where PO is the open porosity and D 50 is the median pore diameter, said open porosity and median pore diameter being determined by mercury porosimetry in accordance with the present description.
Device for tensioning a connecting element fastened to a component (18, 20) to be tightened, comprising an engagement element connectable to the connecting element, and an actuating unit for translating a rotational movement applied to an actuating element into a translational movement of the engagement element relative to the component (18, 20), wherein the device further comprises a gear unit configured to transform an input torque applied to a transmission input element into an output torque applied to the actuating element which absolute value is higher compared to the input torque, characterized in that the gear unit comprises a reaction arm coupled to the engagement element such that a translational movement of the reaction arm relative to the engagement element is enabled and a rotational movement of the reaction arm relative to the engagement element is locked. the device further comprises a gear unit configured to transform an input torque applied to a transmission input element into an output torque applied to the actuating element which absolute value is higher compared to the input torque, characterized in that the gear unit comprises a reaction arm coupled to the engagement element such that a translational movement of the reaction arm relative to the engagement element is enabled and a rotational movement of the reaction arm relative to the engagement element is locked.
A method for fabricating a semiconductor device (100, 200), comprising: bonding a first die (D1, D1') and a second die face to face, the first die (D1, D1') including a first substrate, an insulating layer (103, 203) on a face side of the first substrate, a first contact structure (121, 221) on the face side of the first die (D1, D1') extending through a first portion of the insulating layer (103, 203), and a semiconductor layer (105, 205) on a face side of a second portion of the insulating layer (103, 203) and first transistors formed on a face side of the semiconductor layer (105, 205); exposing the first contact structure (121, 221) from the back side of the first die (D1, D1') by removing the first substrate from a back side of the first die (D1, D1'); forming, from the back side of the first die (D1, D1'), a contact hole in the second portion of the insulating layer (103, 203), the contact hole exposing the semiconductor layer (105, 205); and forming, on the back side of the first die (D1, D1'), a first pad-out structure (171a, 161a) conductively connected with the first contact structure (121, 221) and a second pad-out structure (171b, 161b) on the contact hole that is conductively connected with the semiconductor layer (105, 205), wherein exposing the first contact structure (121, 221) from the back side of the first die (D1, D1') further comprises: removing an etch stop layer after removing the first substrate, the etch stop layer being sandwiched between the first substrate and the insulating layer (103, 203). bonding a first die (D1, D1') and a second die face to face, the first die (D1, D1') including a first substrate, an insulating layer (103, 203) on a face side of the first substrate, a first contact structure (121, 221) on the face side of the first die (D1, D1') extending through a first portion of the insulating layer (103, 203), and a semiconductor layer (105, 205) on a face side of a second portion of the insulating layer (103, 203) and first transistors formed on a face side of the semiconductor layer (105, 205); exposing the first contact structure (121, 221) from the back side of the first die (D1, D1') by removing the first substrate from a back side of the first die (D1, D1'); forming, from the back side of the first die (D1, D1'), a contact hole in the second portion of the insulating layer (103, 203), the contact hole exposing the semiconductor layer (105, 205); and forming, on the back side of the first die (D1, D1'), a first pad-out structure (171a, 161a) conductively connected with the first contact structure (121, 221) and a second pad-out structure (171b, 161b) on the contact hole that is conductively connected with the semiconductor layer (105, 205), wherein exposing the first contact structure (121, 221) from the back side of the first die (D1, D1') further comprises: removing an etch stop layer after removing the first substrate, the etch stop layer being sandwiched between the first substrate and the insulating layer (103, 203).
A compensated current cell, the cell comprising: a first switching transistor for switching an input current to a first output based on a first input signal; a second switching transistor for switching the input current to a second output based on a second input signal; a first compensation transistor for generating a first compensation current in response to the first input signal, wherein the first input signal is connected to a gate terminal of the first compensation transistor and the first compensation current is coupled to the second output; and a second compensation transistor for generating a second compensation current in response to the second input signal, wherein the second input signal is connected to a gate terminal of the second compensation transistor and the second compensation current is coupled to the first output, characterised by the first and the second compensation transistors having source terminals that are connected together. a first switching transistor for switching an input current to a first output based on a first input signal; a second switching transistor for switching the input current to a second output based on a second input signal; a first compensation transistor for generating a first compensation current in response to the first input signal, wherein the first input signal is connected to a gate terminal of the first compensation transistor and the first compensation current is coupled to the second output; and a second compensation transistor for generating a second compensation current in response to the second input signal, wherein the second input signal is connected to a gate terminal of the second compensation transistor and the second compensation current is coupled to the first output, characterised by the first and the second compensation transistors having source terminals that are connected together.
A label fitting system that fits a cylindrical label to an outer periphery of a cylindrical container, the label fitting system comprising: a label arrangement mechanism that arranges the cylindrical label supplied above the cylindrical container, on the outer periphery of the cylindrical container by pushing down the cylindrical label, wherein the label arrangement mechanism includes: a base in an annular shape capable of ascending and descending; and a plurality of legs extending downward from the base, each of the plurality of legs has elasticity so that the leg is capable of being displaced in a radial direction and further has a lower end portion that comes into contact with an upper end of the cylindrical label, and when the base descends, the lower end portion of the leg pushes down the cylindrical label as descending along an outer peripheral surface of the cylindrical container. a label arrangement mechanism that arranges the cylindrical label supplied above the cylindrical container, on the outer periphery of the cylindrical container by pushing down the cylindrical label, wherein the label arrangement mechanism includes: a base in an annular shape capable of ascending and descending; and a plurality of legs extending downward from the base, each of the plurality of legs has elasticity so that the leg is capable of being displaced in a radial direction and further has a lower end portion that comes into contact with an upper end of the cylindrical label, and when the base descends, the lower end portion of the leg pushes down the cylindrical label as descending along an outer peripheral surface of the cylindrical container. a base in an annular shape capable of ascending and descending; and a plurality of legs extending downward from the base, each of the plurality of legs has elasticity so that the leg is capable of being displaced in a radial direction and further has a lower end portion that comes into contact with an upper end of the cylindrical label, and when the base descends, the lower end portion of the leg pushes down the cylindrical label as descending along an outer peripheral surface of the cylindrical container.
An airbag module-equipped seat comprising an airbag module for storing an airbag therein, comprising: a side frame that extends along a side portion of the seat; the airbag module attached to the side frame; a guide member that guides a deployment direction of the airbag module; and an attachment member (50, 70) for attaching the guide member to the side frame, wherein the attachment member (50, 70) comprises a holding space (59, 71) in which an end of the guide member is held in a detachable manner, a hole contacting portion (51, 74) comprising an outer shape following a shape of the attachment hole, and a protruding portion (52, 72a) that protrudes outward from the hole contacting portion (51, 74), characterized in that the side frame comprises an attachment hole for the attachment member (50, 70) at a position different from a shaft portion for attaching the airbag module, the attachment member (50, 70) is inserted into the attachment hole in a state in which the end of the guide member is held in the holding space (59, 71), and the end of the guide member is disposed in an inner space of the side frame and at least a portion of the protruding portion (52, 72a) is pressed toward the side frame side by another member that is provided on the airbag module side. a side frame that extends along a side portion of the seat; the airbag module attached to the side frame; a guide member that guides a deployment direction of the airbag module; and an attachment member (50, 70) for attaching the guide member to the side frame, wherein the attachment member (50, 70) comprises a holding space (59, 71) in which an end of the guide member is held in a detachable manner, a hole contacting portion (51, 74) comprising an outer shape following a shape of the attachment hole, and a protruding portion (52, 72a) that protrudes outward from the hole contacting portion (51, 74), characterized in that the side frame comprises an attachment hole for the attachment member (50, 70) at a position different from a shaft portion for attaching the airbag module, the attachment member (50, 70) is inserted into the attachment hole in a state in which the end of the guide member is held in the holding space (59, 71), and the end of the guide member is disposed in an inner space of the side frame and at least a portion of the protruding portion (52, 72a) is pressed toward the side frame side by another member that is provided on the airbag module side.
A phosphor material comprising individual particles of manganese (Mn 4+) doped fluoride phosphor, wherein each particle is encapsulated with a manganese-free layer of the fluoride phosphor.
Active ingredient combination consisting of benzethonium chloride and one or more diol(s), characterized in that the diol(s) is/are 2-methyl-1,3-propanediol and/or 1,2-hexanediol.
A method of producing an embolic material comprising: preparing a molten raw material by mixing polycaprolactone and a liposoluble contrast medium of ethyl ester of iodinated poppy-seed oil fatty acid (Lipiodol) at a ratio of one to one in a nitrogen atmosphere at 80°C; extruding the molten raw material, maintained at 80°C, from a tip of an injection cylinder into a pipe filled with warm water at 80°C; and cooling the molten raw material to solidify the molten raw material by sending the molten raw material to a cold water tank reserving cold water at 0°C through the pipe. preparing a molten raw material by mixing polycaprolactone and a liposoluble contrast medium of ethyl ester of iodinated poppy-seed oil fatty acid (Lipiodol) at a ratio of one to one in a nitrogen atmosphere at 80°C; extruding the molten raw material, maintained at 80°C, from a tip of an injection cylinder into a pipe filled with warm water at 80°C; and cooling the molten raw material to solidify the molten raw material by sending the molten raw material to a cold water tank reserving cold water at 0°C through the pipe.
A method of using a copper-containing multimetallic catalyst comprising copper and one or more additional metals selected from the group consisting of rhenium, palladium, platinum, ruthenium, manganese, and molybdenum on a carbon support, in which the catalyst is used to catalyze a chemical process involving hydrogen and wherein the catalyst is treated by exposure to an alkali metal source at least for a time in the carrying out of the process; wherein (i) said chemical process involving hydrogen is a process of reacting a glycerol feed with hydrogen to produce a biobased 1,2-propanediol product, wherein said feed is an aqueous glycerol solution; (ii) said carbon support has a surface oxygen group concentration corresponding to a desorption of at least 800 μmol/g combined of carbon monoxide and carbon dioxide through temperature-programmed desorption and analysis with an associated mass spectrometer; (iii) the quantity of copper in said catalyst is from 1 to 10 percent based on the total weight of the metals and support; (iv) the alkali metal source is continuously co-fed to a reactor for carrying out the process with a reactant or reactants for the process; and (v) wherein the exposure to the alkali metal source is controlled to maintain the alkali metal content of the catalyst within a range of from 0.5 percent by weight to 4.8 percent by weight. (i) said chemical process involving hydrogen is a process of reacting a glycerol feed with hydrogen to produce a biobased 1,2-propanediol product, wherein said feed is an aqueous glycerol solution; (ii) said carbon support has a surface oxygen group concentration corresponding to a desorption of at least 800 μmol/g combined of carbon monoxide and carbon dioxide through temperature-programmed desorption and analysis with an associated mass spectrometer; (iii) the quantity of copper in said catalyst is from 1 to 10 percent based on the total weight of the metals and support; (iv) the alkali metal source is continuously co-fed to a reactor for carrying out the process with a reactant or reactants for the process; and (v) wherein the exposure to the alkali metal source is controlled to maintain the alkali metal content of the catalyst within a range of from 0.5 percent by weight to 4.8 percent by weight.