mhurhangee/ep-ind-claims huggingface dataset:
Method for producing synthesis gas from a hydrocarbon containing feed, comprising the steps of: (i) subjecting the hydrocarbon containing feed to catalytic partial oxidation yielding a first gas mixture, (ii) subjecting 5 to 50 vol.% of the first gas mixture to a water gas shift reaction yielding a second gas mixture, the untreated part of the first gas mixture being a first remaining gas mixture, (iii) subjecting 20-80 vol.% of the second gas mixture to hydrogen purification yielding a hydrogen containing gas mixture, the untreated part of the second gas mixture being a second remaining gas mixture, (iv) combining at least part of the hydrogen containing gas mixture with the first remaining gas mixture and the second remaining gas mixture to yield synthesis gas for methanol synthesis. (i) subjecting the hydrocarbon containing feed to catalytic partial oxidation yielding a first gas mixture, (ii) subjecting 5 to 50 vol.% of the first gas mixture to a water gas shift reaction yielding a second gas mixture, the untreated part of the first gas mixture being a first remaining gas mixture, (iii) subjecting 20-80 vol.% of the second gas mixture to hydrogen purification yielding a hydrogen containing gas mixture, the untreated part of the second gas mixture being a second remaining gas mixture, (iv) combining at least part of the hydrogen containing gas mixture with the first remaining gas mixture and the second remaining gas mixture to yield synthesis gas for methanol synthesis.
A polymer scaffold (200; 300) comprising a set of longitudinally spaced rings (212, 212a, 212b, 212c, 212d; 312, 312a, 312b, 312c, 312d) formed by struts (230; 330) connected at crowns (207, 209, 210; 307, 309, 310), and the struts being configured to fold and unfold, the set of longitudinally spaced rings including a proximal end ring (212d; 312d), a distal end ring opposing the proximal end ring, and interior rings (212a, 212b, 212c; 312a, 312b, 312c) positioned between the end rings, wherein each ring is associated with its direct neighboring ring by links (234, 234a, 234b, 234c; 334; 334a, 334b, 334c, 334d), and further characterized in that a pair of longitudinally spaced neighboring rings is connected by exactly three or four circumferentially spaced links, and in that a marker structure includes a pair of markers arranged, in a planar view along a vertical axis (B-B) perpendicular to a longitudinal axis (A-A) on a connecting link and spaced from adjacent rings of the scaffold so that a crimped profile defined by a minimum crimped diameter of the polymer scaffold is the same with or without the marker structure.
A saddle-riding motor vehicle (1; 107; 207) with at least one rear driving wheel (5; 105; 205) and at least a first front steered wheel (7; 107; 207X, 207Y), which is connected to a rotatable arm (9; 109; 209X, 209Y) provided with a rotary motion about a steering axis (A-A); wherein a wheel support (37; 137) is connected to the rotatable arm (9; 109; 209X, 209Y) with the interposition of a suspension (17; 117; 217X, 217Y) comprising a shock absorber (22; 122), said wheel support (37; 137) supporting the front steered wheel (7; 107; 207X, 207Y) and defining a rotation axis (B-B) of said front steered wheel (7; 107; 207); characterized in that the suspension (17; 117) comprises a Watt four-bar linkage.
Bottom bracket bearing with a torque sensor unit, comprising at least one pedal crank (3, 5), a shaft consisting of one material, which shaft is connected to the at least one pedal crank (3, 5) in a rotationally fixed manner, and a torque detection apparatus for detecting a torque in the region of the shaft, with the torque detection apparatus comprising a first magnetization element which is embossed on the material of the shaft and a sensor which detects a change in the first magnetization element on the basis of the torque introduced into the shaft, characterized in that the shaft is in the form of a hollow shaft having at least one cavity, and in that the first magnetization element is arranged at least on a portion of the shaft, which portion surrounds the at least one cavity.
A ventilation cover assembly for a downlight in which a can of the downlight includes ventilation holes, said cover assembly comprising:- (i) cover means comprising two substantially C-shaped support elements (21, 22, 23; 24, 25, 26) rotatably mounted one on top of each other adapted to distance insulation material or the like away from the ventilation holes in the downlight can; (ii) attachment means adapted to attach the ventilation cover over ventilation holes in the downlight can; characterized in that the attachment means comprises a plurality of resilient clips, (27, 28, 29, 30) a clip is provided at the end of each leg of the C-shaped support elements, the clips being adapted to engage with ventilation holes in the downlight can. (i) cover means comprising two substantially C-shaped support elements (21, 22, 23; 24, 25, 26) rotatably mounted one on top of each other adapted to distance insulation material or the like away from the ventilation holes in the downlight can; (ii) attachment means adapted to attach the ventilation cover over ventilation holes in the downlight can;
A process for layer manufacturing a three-dimensional work piece comprising the steps of: (a) feeding raw material in a solid state as a wire to a first predetermined location; (b) exposing the raw material to an electron beam to liquefy the raw material; (c) depositing the raw material onto a substrate as a molten pool deposit, the deposit having a forward edge region in an x-y plane with a forward edge region width and a trailing edge region in the x-y plane with a trailing edge region width, under at least one first processing condition; (d) monitoring the molten pool deposit for at least one preselected condition, such as width, using detecting of scatter from a scanning electron beam contemporaneously with the depositing step, optionally using a detector (18, 116) that is in a housing configured so that the detector (18, 116) detects electrons of a preselected characteristic, wherein the scanning electron beam is consecutively switched back and forth between a first condition for melting and a second condition for monitoring at a rate of at least 5 times per second; (e) solidifying the molten pool deposit; (f) automatically altering the first processing condition to a different processing condition based upon information obtained from the monitoring step (d); and (g) repeating steps (a) through (f) at one or more second locations for building up layer by layer, generally along a z-axis that is orthogonal to the x-y plane, a three-dimensional work piece. (a) feeding raw material in a solid state as a wire to a first predetermined location; (b) exposing the raw material to an electron beam to liquefy the raw material; (c) depositing the raw material onto a substrate as a molten pool deposit, the deposit having a forward edge region in an x-y plane with a forward edge region width and a trailing edge region in the x-y plane with a trailing edge region width, under at least one first processing condition; (d) monitoring the molten pool deposit for at least one preselected condition, such as width, using detecting of scatter from a scanning electron beam contemporaneously with the depositing step, optionally using a detector (18, 116) that is in a housing configured so that the detector (18, 116) detects electrons of a preselected characteristic, wherein the scanning electron beam is consecutively switched back and forth between a first condition for melting and a second condition for monitoring at a rate of at least 5 times per second; (e) solidifying the molten pool deposit; (f) automatically altering the first processing condition to a different processing condition based upon information obtained from the monitoring step (d); and (g) repeating steps (a) through (f) at one or more second locations for building up layer by layer, generally along a z-axis that is orthogonal to the x-y plane, a three-dimensional work piece.
A radio frequency IC device comprising: a radio IC; an annular electrode (25; 50) coupled to the radio IC and having at least a pair of end portions (26a, 26b; 51a, 51b); and a dipole radiation plate coupled to the annular electrode (25; 50), wherein the annular electrode (25; 50) and the radiation plate are designed such that f1 is lower than f2, where f1 is a resonant frequency of the annular electrode (25; 50) alone and f2 is a resonant frequency of the radiation plate alone, characterized by a connecting part electrically connecting a point at which a current passing through the annular electrode (25; 50) reaches a maximum value and a point at which a current passing through the dipole radiation plate reaches a maximum value, and a feed circuit board, on which the radio IC is mounted, the feed circuit board including a resonant circuit including an inductance element and having a predetermined resonant frequency f0, wherein the resonant circuit is electromagnetically coupled to the pair of end portions (26a, 26b; 51a, 51b), wherein the resonant frequency f0 of the resonant circuit is lower than the resonant frequency f1 of the annular electrode alone. a radio IC; an annular electrode (25; 50) coupled to the radio IC and having at least a pair of end portions (26a, 26b; 51a, 51b); and a dipole radiation plate coupled to the annular electrode (25; 50), wherein the annular electrode (25; 50) and the radiation plate are designed such that f1 is lower than f2, where f1 is a resonant frequency of the annular electrode (25; 50) alone and f2 is a resonant frequency of the radiation plate alone, characterized by a connecting part electrically connecting a point at which a current passing through the annular electrode (25; 50) reaches a maximum value and a point at which a current passing through the dipole radiation plate reaches a maximum value, and a feed circuit board, on which the radio IC is mounted, the feed circuit board including a resonant circuit including an inductance element and having a predetermined resonant frequency f0, wherein the resonant circuit is electromagnetically coupled to the pair of end portions (26a, 26b; 51a, 51b), wherein the resonant frequency f0 of the resonant circuit is lower than the resonant frequency f1 of the annular electrode alone.
A plastic film formed in a co-extrusion method including at least three layers, comprising: a first layer that contains a polyamide obtained from a ring-opening polymerization of a lactam having 11 or more carbon atoms or from polycondensation of an ω-amino acid having 11 or more carbon atoms, or a polyamide obtained from copolycondensation of a dicarboxylic acid having 10 or more carbon atoms and a diamine having 6 or more carbon atoms; a second layer that contains as the main component a copolymer of an α-olefin and an anhydride monomer of an unsaturated carboxylic acid or an unsaturated dicarboxylic acid; and a sealing layer that contains a polyethylene as the main component, wherein the sealing layer includes two layers which are a layer adjacent to the second layer constituted by a mixture of 60 to 95 mass% of a linear low-density polyethylene and 5 to 40 % of high-density polyethylene, and a layer which is adjacent to the layer adjacent to the second layer and constituted by a high-density polyethylene. a first layer that contains a polyamide obtained from a ring-opening polymerization of a lactam having 11 or more carbon atoms or from polycondensation of an ω-amino acid having 11 or more carbon atoms, or a polyamide obtained from copolycondensation of a dicarboxylic acid having 10 or more carbon atoms and a diamine having 6 or more carbon atoms; a second layer that contains as the main component a copolymer of an α-olefin and an anhydride monomer of an unsaturated carboxylic acid or an unsaturated dicarboxylic acid; and a sealing layer that contains a polyethylene as the main component, wherein the sealing layer includes two layers which are a layer adjacent to the second layer constituted by a mixture of 60 to 95 mass% of a linear low-density polyethylene and 5 to 40 % of high-density polyethylene, and a layer which is adjacent to the layer adjacent to the second layer and constituted by a high-density polyethylene.
A device for rectifying a three-phase alternating voltage comprising an auto-transformer fed with three-phase voltage and feeding a plurality of three-phase systems (S1, S2, S3), each system comprising three phases phase-shifted by 120° one relative to the other, means for rectifying the three-phase systems (S1, S2, S3), characterised in that the rectifying means comprise, specific to each system, a rectifier bridge (P1, P2, P3) and smoothing means (L1, L2, L3), and in that the smoothing means (L1, L2, L3) that are associated with each system (S1, S2, S3) are independent of each other.
An optoelectronic device comprising a porous material, which porous material comprises a semiconductor comprising a perovskite, wherein the porous material: (a) consists of a porous semiconductor which is a porous perovskite wherein the perovskite comprises at least one halide anion; or (b) comprises a porous dielectric scaffold consisting of material having a band gap of equal to or greater than 4.0 eV and a coating disposed on the surface of said porous dielectric scaffold material, which coating comprises a semiconductor comprising a perovskite, wherein the perovskite comprises at least one halide anion. (a) consists of a porous semiconductor which is a porous perovskite wherein the perovskite comprises at least one halide anion; or (b) comprises a porous dielectric scaffold consisting of material having a band gap of equal to or greater than 4.0 eV and a coating disposed on the surface of said porous dielectric scaffold material, which coating comprises a semiconductor comprising a perovskite, wherein the perovskite comprises at least one halide anion.
An apparatus comprising: (a) a shaft assembly that includes: (i) an outer shaft having a distal opening and a slot at the distal opening, (ii) an inner tube positioned within the outer shaft, wherein a distal opening of the inner tube is longitudinally offset from the distal opening of the outer shaft and aligned with the slot, and (iii) an inner lumen positioned on an interior wall of the inner tube; (b) a position sensor; and a sensor wire configured to transmit signals from the position sensor, wherein the sensor wire: (i) is contained within the inner lumen and isolated from the interior of the inner tube, and (ii) exits the inner lumen via a distal opening of the inner lumen, passes through the slot, and couples with the position sensor. (a) a shaft assembly that includes: (i) an outer shaft having a distal opening and a slot at the distal opening, (ii) an inner tube positioned within the outer shaft, wherein a distal opening of the inner tube is longitudinally offset from the distal opening of the outer shaft and aligned with the slot, and (iii) an inner lumen positioned on an interior wall of the inner tube; (i) an outer shaft having a distal opening and a slot at the distal opening, (ii) an inner tube positioned within the outer shaft, wherein a distal opening of the inner tube is longitudinally offset from the distal opening of the outer shaft and aligned with the slot, and (iii) an inner lumen positioned on an interior wall of the inner tube; (b) a position sensor; and (i) is contained within the inner lumen and isolated from the interior of the inner tube, and (ii) exits the inner lumen via a distal opening of the inner lumen, passes through the slot, and couples with the position sensor.
A wall bead (10, 40, 50, 60), the wall bead (10, 40, 50, 60) comprising a central longitudinally extending portion and a first and second elongate flange which extend longitudinally of the bead (10, 40, 50, 60), and which separately comprise a front (11 a, 12a) and rear surface (11 b, 12b), the wall beard (10, 40, 50, 60) further comprising a plurality of teeth disposed upon the first and second flange at longitudinal positions thereon, wherein all the teeth extend in or substantially in the same direction, characterised in that: the teeth extend from a longitudinal edge of a respective flange (11, 12) at an acute angle to the respective flange (11, 12), substantially forwardly of the respective flange (11, 12) and generally in the longitudinal direction of the respective flange (11, 12); wherein the teeth are arranged to hook the wall bead (10, 40, 50, 60) into a plasterboard.
A demand target display device comprising: a dual-purpose scale for indicating time and electrical energy consumption; a time indication unit for indicating time via the dual-purpose scale; an electrical energy consumption acquisition unit for acquiring electrical energy consumed up to the current time within a predetermined time segment for a given target demand value, the predetermined time segment including the current time; a goal achievement indication unit for indicating the relationship between electrical energy consumption within a predetermined time segment recorded via the electrical energy consumption acquisition unit and a target demand value set for such predetermined time segment; an AC signal acquisition unit for acquiring AC signals based on the AC waveform of AC power from a power supply line; a time information generation unit for generating time information based on the acquired AC signals; a transmission unit for transmitting the generated time information via radio waves at least within a housing of the demand target display device; a reception unit for receiving the transmitted time information via radio waves within the housing; and a time indication unit control unit for controlling the time indication unit via the received time information. a dual-purpose scale for indicating time and electrical energy consumption; a time indication unit for indicating time via the dual-purpose scale; an electrical energy consumption acquisition unit for acquiring electrical energy consumed up to the current time within a predetermined time segment for a given target demand value, the predetermined time segment including the current time; a goal achievement indication unit for indicating the relationship between electrical energy consumption within a predetermined time segment recorded via the electrical energy consumption acquisition unit and a target demand value set for such predetermined time segment; an AC signal acquisition unit for acquiring AC signals based on the AC waveform of AC power from a power supply line; a time information generation unit for generating time information based on the acquired AC signals; a transmission unit for transmitting the generated time information via radio waves at least within a housing of the demand target display device; a reception unit for receiving the transmitted time information via radio waves within the housing; and a time indication unit control unit for controlling the time indication unit via the received time information.
A textile yarn, comprising: a first segment comprising a plurality of first strands braided together in a tubular braid, the first segment having a constant first denier; and a second segment comprising a plurality of second strands braided together in a tubular braid, the second segment having a constant second denier; wherein there are more second strands in the second segment than first strands in the first segment such that the second denier is at least twice as large as the first denier; wherein a first portion of the plurality of second strands is made from a first plurality of yarn elements that extend through the first segment and the second segment, and wherein a second portion of the plurality of second strands is made from a second plurality of yarn elements that are present in the second segment and not the first segment; and wherein the yarn elements in the second plurality of yarn elements terminate in a transition zone between the first segment and the second segment; and wherein ends of the strands in the second plurality of yarn elements are loose in the transition zone. a first segment comprising a plurality of first strands braided together in a tubular braid, the first segment having a constant first denier; and a second segment comprising a plurality of second strands braided together in a tubular braid, the second segment having a constant second denier; wherein there are more second strands in the second segment than first strands in the first segment such that the second denier is at least twice as large as the first denier; wherein a first portion of the plurality of second strands is made from a first plurality of yarn elements that extend through the first segment and the second segment, and wherein a second portion of the plurality of second strands is made from a second plurality of yarn elements that are present in the second segment and not the first segment; and wherein the yarn elements in the second plurality of yarn elements terminate in a transition zone between the first segment and the second segment; and wherein ends of the strands in the second plurality of yarn elements are loose in the transition zone.
A method for detecting transient repeating defects in a design pattern on a reticle for lithographic manufacture of microelectronic devices, wherein the transient repeating defects are defects that will print under only a portion of different values of a member of a set of lithographic variables, the method comprising: a. acquiring aerial images of a reticle containing a design pattern, wherein the aerial images are acquired for the different values, b. inspecting the reticle for non-transient defects characterized by determining the presence of transient repeating defects on the reticle and finding areas on the reticle in which the transient repeating defects are located by subtracting the non-transient defects from the aerial images and comparing at least one pair of the aerial images corresponding to at least two of the different values. a. acquiring aerial images of a reticle containing a design pattern, wherein the aerial images are acquired for the different values, b. inspecting the reticle for non-transient defects