mhurhangee/ep-ind-claims huggingface dataset:
A communication interface adapter that allows an RJ-type male plug (52, 53) of a first size having a resilient locking tab to be inserted and secured within the cavity of an RJ-type female receptacle of a second size, said adapter having: a top wall, bottom wall, opposing side walls (58, 60) defining an opening; a lip extending from said top wall; a tab (66, 68) extending from each of said opposing side walls (58, 60); and a pair of arms (70, 72) extending from said opposing side walls (58, 60) and adjacent to said top wall; wherein the interface adapter is configured to be received and anchored within said RJ-type female receptacle; and wherein the opening of the interface adapter is dimensioned to receive said RJ-type male plug (52, 53) characterised in that the bottom wall of the adapter is configured to engage with the resilient locking tab of the RJ-type male plug (52, 53) to maintain the RJ-type male plug (52, 53) within the adapter and the cavity of the RJ-type female receptacle. a top wall, bottom wall, opposing side walls (58, 60) defining an opening; a lip extending from said top wall; a tab (66, 68) extending from each of said opposing side walls (58, 60); and a pair of arms (70, 72) extending from said opposing side walls (58, 60) and adjacent to said top wall; wherein the interface adapter is configured to be received and anchored within said RJ-type female receptacle; and wherein the opening of the interface adapter is dimensioned to receive said RJ-type male plug (52, 53) characterised in that the bottom wall of the adapter is configured to engage with the resilient locking tab of the RJ-type male plug (52, 53) to maintain the RJ-type male plug (52, 53) within the adapter and the cavity of the RJ-type female receptacle.
A hydrotreatment catalyst comprising a support consisting of alumina, at least one metal from group VIB, at least one metal from group VIII and phosphorus, in which: • the specific surface area of the catalyst is in the range 40 to 95 m 2 /g; the density of the metal from group VIB, expressed as the number of atoms of metal from group VIB per unit surface area of catalyst, is in the range 7 to 30 atoms of metal from group VIB per nm 2 of catalyst; the density of the metal from group VIB is calculated from the following relationship: d metal from group VIB = X × N A 100 × 10 18 × S × M M in which: ∘ X = % by weight of metal from group VIB; ∘ N A = Avogadro's number, equal to 6.022 x 10 23; ∘ S = specific surface area of catalyst (m 2 /g), measured in accordance with the standard ASTM D3663; ∘ M M = molar mass of metal from group VIB; • the content of the metal from group VIB is in the range 3% to 35% by weight of oxide of said metal from group VIB with respect to the total catalyst weight; • the content of the metal from group VIII is in the range 0.1% to 10% by weight of oxide of said metal from group VIII with respect to the total catalyst weight; • the phosphorus content is in the range 0.3% to 10% by weight of P 2 O 5 with respect to the total catalyst weight, the catalyst being prepared by impregnation of the metals from group VIB, group VIII and phosphorus onto the support in order to obtain an impregnated catalyst precursor, then drying said impregnated catalyst precursor at a temperature of less than 200°C and without subsequent calcining under air at a temperature above 200 °C and said catalyst is sulphurized after drying. • the specific surface area of the catalyst is in the range 40 to 95 m 2 /g; the density of the metal from group VIB, expressed as the number of atoms of metal from group VIB per unit surface area of catalyst, is in the range 7 to 30 atoms of metal from group VIB per nm 2 of catalyst; the density of the metal from group VIB is calculated from the following relationship: d metal from group VIB = X × N A 100 × 10 18 × S × M M in which: ∘ X = % by weight of metal from group VIB; ∘ N A = Avogadro's number, equal to 6.022 x 10 23; ∘ S = specific surface area of catalyst (m 2 /g), measured in accordance with the standard ASTM D3663; ∘ M M = molar mass of metal from group VIB; ∘ X = % by weight of metal from group VIB; ∘ N A = Avogadro's number, equal to 6.022 x 10 23; ∘ S = specific surface area of catalyst (m 2 /g), measured in accordance with the standard ASTM D3663; ∘ M M = molar mass of metal from group VIB; • the content of the metal from group VIB is in the range 3% to 35% by weight of oxide of said metal from group VIB with respect to the total catalyst weight; • the content of the metal from group VIII is in the range 0.1% to 10% by weight of oxide of said metal from group VIII with respect to the total catalyst weight; • the phosphorus content is in the range 0.3% to 10% by weight of P 2 O 5 with respect to the total catalyst weight,
A converting machine used to convert fanfold material into packaging templates for assembly into boxes or other packaging, the converting machine comprising: a frame; a converting assembly cartridge selectively mounted on the frame, the converting assembly cartridge comprising: at least one longitudinal converting tool that performs one or more conversion functions on said fanfold material in a first, longitudinal direction; at least one transverse converting tool that performs one or more conversion functions on said fanfold material in a second, transverse direction that is generally perpendicular to the first, longitudinal direction; and one or more feed rollers that move said fanfold material through said converting machine in the first, longitudinal direction, a converting assembly movably connected to the frame such that the converting assembly cartridge may be selectively moved between an operating position and a servicing position; and an infeed guide mounted on the frame, the infeed guide being configured to direct said fanfold material into said converting assembly cartridge. a frame; a converting assembly cartridge selectively mounted on the frame, the converting assembly cartridge comprising: at least one longitudinal converting tool that performs one or more conversion functions on said fanfold material in a first, longitudinal direction; at least one transverse converting tool that performs one or more conversion functions on said fanfold material in a second, transverse direction that is generally perpendicular to the first, longitudinal direction; and one or more feed rollers that move said fanfold material through said converting machine in the first, longitudinal direction, at least one longitudinal converting tool that performs one or more conversion functions on said fanfold material in a first, longitudinal direction; at least one transverse converting tool that performs one or more conversion functions on said fanfold material in a second, transverse direction that is generally perpendicular to the first, longitudinal direction; and one or more feed rollers that move said fanfold material through said converting machine in the first, longitudinal direction, a converting assembly movably connected to the frame such that the converting assembly cartridge may be selectively moved between an operating position and a servicing position; and an infeed guide mounted on the frame, the infeed guide being configured to direct said fanfold material into said converting assembly cartridge.
A fluid dispenser head including a spray wall (26; 126; 226; 326; 426) that is perforated with holes (O1, O2, O3; O4; O5, O6; O7, O8, O9; O11, 012, 013) through which the fluid under pressure passes so as to be sprayed in small droplets, the holes (O1, O2, O3; O4; O5, O6; O7, O8, O9; O11, O12, 013) presenting a diameter lying in the range about 1 μm to 100 μm advantageously in the range about 5 μm to 30 μm, and preferably in the range about 5 μm to 20 μm, the spray wall (26; 126; 226; 326; 426) defining a central axis X and presenting two faces (26a, 26b; 126a, 126b; 226a, 226b; 326a, 326b; 426a, 426b) that are interconnected via the holes (O1, O2, O3; O4; O5, O6; O7, O8, O9; O11, O12, O13), the holes (O1, O2, O3; O4; O5, O6; O7, O8, O9; O11, O12, O13) presenting orientations that diverge relative to the central axis X, the dispenser head being characterized in that the spray wall (26; 126; 226; 326; 426) presents a thickness that varies, resulting from its deformation causing a reduction in thickness, such that the two faces (26a, 26b; 126a, 126b; 226a, 226b; 326a, 326b; 426a, 426b) are spaced apart from each other to a greater or lesser extent, and so the holes (O1, O2, O3; O4; O5, O6; O7, O8, O9; O11, O12, O13) present diameters that are different, lengths that are different, and/or sections that are different.
A guide wire insertion aid for attaching onto a proximal end of a catheter or an implantable electrode lead and for facilitating the insertion of a guide wire, designed as a horn- or funnel-shaped body comprising a tubular fixing section and an expanding section extending therefrom, the fixing section having an inner wall without contour and being slotted and elastically expandable at least across the majority of the longitudinal extension thereof, characterized in that the slot is only provided in the fixing section of the insertion aid.
A method utilising electrosorption of charged substances on a polymer membrane having a planar and porous coating of metal for determining the occupancy of the binding sites of said polymer membrane by the charged substances and/or for determining at least one at least relative concentration of the charged substances in a liquid, the method comprising the following steps: a. Providing the polymer membrane with a flat and porous coating of metal at least on a first side of the polymer membrane; b. Providing a counter electrode; c. Applying a voltage between the metal coating of the polymer membrane and the counter electrode; d. Contacting the polymer membrane and the counter electrode with the liquid, the contacting being such that the liquid creates at least one connection between the polymer membrane and the counter electrode wherein the current flow caused by the applied voltage is detected and/or analysed, in particular with regard to falling below a limit and/or exceeding a positive and/or negative rate of change and/or its course over time. a. Providing the polymer membrane with a flat and porous coating of metal at least on a first side of the polymer membrane; b. Providing a counter electrode; c. Applying a voltage between the metal coating of the polymer membrane and the counter electrode; d. Contacting the polymer membrane and the counter electrode with the liquid, the contacting being such that the liquid creates at least one connection between the polymer membrane and the counter electrode
An air handler (100, 200) for an HVACR system, comprising: a housing having a faceplate, a roof panel, a base panel, a first side panel, and a second side panel; a septum protruding into the housing from a first side of the faceplate; a heat exchange core (125, 225) disposed within the housing and having a front edge connected to an edge of the septum, a top edge connected to the roof panel, a bottom edge connected to the base panel, a first side plate (125C, 225C) connected to the first side panel, and a second side plate (125D, 225D) connected to the second side panel; a first tunnel connected to a first area on the faceplate from a second side of the faceplate, wherein the second side is opposite to the first side of the faceplate; a second tunnel connected to a second area of the faceplate from the second side, wherein the second area is disjointed from the first area; a first recirculation path (110A, 210A) defined by the faceplate, the roof panel, the septum, the first side panel, the second side panel, and the heat exchange core (125, 225) and configured to channel a first portion of airflow from the first tunnel to the second tunnel; a first damper disposed in the second area of the faceplate and configured to obstruct the first recirculation path (110A, 210A); and a first opening disposed in the first area of the faceplate and connecting the first tunnel to the first recirculation path (110A, 210A). a housing having a faceplate, a roof panel, a base panel, a first side panel, and a second side panel; a septum protruding into the housing from a first side of the faceplate; a heat exchange core (125, 225) disposed within the housing and having a front edge connected to an edge of the septum, a top edge connected to the roof panel, a bottom edge connected to the base panel, a first side plate (125C, 225C) connected to the first side panel, and a second side plate (125D, 225D) connected to the second side panel; a first tunnel connected to a first area on the faceplate from a second side of the faceplate, wherein the second side is opposite to the first side of the faceplate; a second tunnel connected to a second area of the faceplate from the second side, wherein the second area is disjointed from the first area; a first recirculation path (110A, 210A) defined by the faceplate, the roof panel, the septum, the first side panel, the second side panel, and the heat exchange core (125, 225) and configured to channel a first portion of airflow from the first tunnel to the second tunnel; a first damper disposed in the second area of the faceplate and configured to obstruct the first recirculation path (110A, 210A); and a first opening disposed in the first area of the faceplate and connecting the first tunnel to the first recirculation path (110A, 210A).
A reciprocating linear-rotating motion conversion device, comprising a main shaft, a linear motion guiding mechanism, a sector gear and a rack frame linearly moving along the linear motion guiding mechanism; the sector gear being fixedly connected with the main shaft; a rack pair being arranged on the inner wall of the rack frame; the rack pair comprising a first gear rack and a second gear rack separately arranged on both sides of the sector gear; and the reciprocating linear-rotating motion conversion device further comprises a reversing mechanism fixedly connected with the main shaft, a guiding curved surface and a guide member are arranged on the reversing mechanism, a reversing block is arranged on the rack frame, and a first curved surface and a second curved surface are arranged on the reversing block; the reciprocating linear-rotating motion conversion device enters a reversing state, a transitional state, and a transmission state in a successive manner, and wherein when the reciprocating linear-rotating motion conversion device is in a transmission state, the sector gear is completely engaged with the rack pair; when the reciprocating linear-rotating motion conversion device is in a reversing state, the sector gear is completely disengaged from the gear rack, the first curved surface of the reversing block is constrained by the external surface of the guide member, and the second curved surface of the reversing block is constrained by the guiding curved surface; the guide member comprises a guide shaft fixedly connected with the reversing mechanism and a roller wheel sleeved on the guide shaft, characterized in that when the reciprocating linear-rotating motion conversion device is in a transitional state, the sector gear is only partially engaged with a single tooth with the rack pair, and the first curved surface of the reversing block is constrained by an external surface of the guide member, and the second curved surface of the reversing block is constrained by the guiding curved surface. when the reciprocating linear-rotating motion conversion device is in a reversing state, the sector gear is completely disengaged from the gear rack, the first curved surface of the reversing block is constrained by the external surface of the guide member, and the second curved surface of the reversing block is constrained by the guiding curved surface; the guide member comprises a guide shaft fixedly connected with the reversing mechanism and a roller wheel sleeved on the guide shaft, characterized in that when the reciprocating linear-rotating motion conversion device is in a transitional state, the sector gear is only partially engaged with a single tooth with the rack pair, and the first curved surface of the reversing block is constrained by an external surface of the guide member, and the second curved surface of the reversing block is constrained by the guiding curved surface.
A composition comprising 20 to 60 parts by mass of a component derived from an ethylene-based copolymer rubber, 5 to 14 parts by mass of a component derived from a polypropylene resin, 5 to 12 parts by mass of a component derived from a styrene-based thermoplastic elastomer and 5 to 70 parts by mass of a component derived from a softening agent (with the total amount of the components,, and being 100 parts by mass), wherein a mass ratio of the component derived from the styrene-based thermoplastic elastomer to the component derived from the softening agent ( /) is 0.01 to 1, and at least the component derived from the ethylene-based copolymer rubber and the component derived from the styrene-based thermoplastic elastomer are crosslinked by a crosslinking agent comprising an organic peroxide.
A porous panel for a separator of a fuel cell, comprising: a plate-shaped material including uneven portions repeatedly arranged such that an entire surface of the plate-shaped material has an uneven shape, and through holes permitting passage of a gas in a direction of a gas flow from a gas inlet side to a gas outlet side, wherein each of the uneven portions has an upward side and a downward side, and an uneven line is formed at the contact of the upward side with the downward side in a shape of a continuous extending line when viewing from above, wherein the through holes are formed in the upward sides and the downward sides of the uneven portions, and wherein each of the uneven lines crosses the direction of the gas flow with an acute angle at least in a portion of the uneven line. a plate-shaped material including uneven portions repeatedly arranged such that an entire surface of the plate-shaped material has an uneven shape, and through holes permitting passage of a gas in a direction of a gas flow from a gas inlet side to a gas outlet side, wherein each of the uneven portions has an upward side and a downward side, and an uneven line is formed at the contact of the upward side with the downward side in a shape of a continuous extending line when viewing from above, wherein the through holes are formed in the upward sides and the downward sides of the uneven portions, and wherein each of the uneven lines crosses the direction of the gas flow with an acute angle at least in a portion of the uneven line.
A method of controlling a gas furnace comprising a gas valve for supplying a fuel gas to a manifold; a burner through which the fuel gas discharged from the manifold passes; an igniter for igniting a mixture of fuel gas passed through the burner and air; and an inducer for generating a flow in which a combustion gas generated by the burning of the mixture is discharged to an exhaust pipe via a heat exchanger, wherein the gas furnace performs a heating operation according to a heating signal and preferably a heating stop according to a stop signal, the method comprising the steps of: (a) receiving the heating signal and preferably the stop signal; (b) when the heating signal is received: transmitting a signal to operate the inducer; operating the igniter; transmitting a signal to open the gas valve; detecting whether the gas valve is opened or closed; detecting a flow rate of the fuel gas in the manifold; and displaying a normal or an abnormal operation of the heating operation, based on information detected in the steps and, wherein the step comprises displaying the normal operation of the heating operation, when it is detected that the gas valve is opened at step, and when it is detected that the flow rate of the fuel gas in the manifold exceeds '0' at step. (a) receiving the heating signal and preferably the stop signal; (b) when the heating signal is received: transmitting a signal to operate the inducer; operating the igniter; transmitting a signal to open the gas valve; detecting whether the gas valve is opened or closed; detecting a flow rate of the fuel gas in the manifold; and displaying a normal or an abnormal operation of the heating operation, based on information detected in the steps and, wherein the step comprises displaying the normal operation of the heating operation, when it is detected that the gas valve is opened at step, and when it is detected that the flow rate of the fuel gas in the manifold exceeds '0' at step. transmitting a signal to operate the inducer; operating the igniter; transmitting a signal to open the gas valve; detecting whether the gas valve is opened or closed; detecting a flow rate of the fuel gas in the manifold; and displaying a normal or an abnormal operation of the heating operation, based on information detected in the steps and, wherein the step comprises displaying the normal operation of the heating operation, when it is detected that the gas valve is opened at step, and when it is detected that the flow rate of the fuel gas in the manifold exceeds '0' at step.
A compound of formula wherein R is isobutyl at C-3 or C-4; R' is hydrogen at C-3 or C-4 and the bond between C-3 and C-4 together with the dotted line represents a double bond; or R' is -CH 2 - and together with C-3 and C-4 represents a cyclopropane ring and the bond between C-3 and C-4 together with the dotted line represents a single bond; R 1, and R 2 represent independently of each other a group selected from hydrogen, methyl and ethyl; R 3 is selected from methyl and ethyl; and R 4 is hydroxyl and R 5 is hydrogen; or R 1, R 2 and R 3 represent independently of each other a group selected from hydrogen, methyl and ethyl, wherein at least one is not hydrogen; and R 4 and R 5 together with the carbon atom to which they are attached represents a carbonyl. R is isobutyl at C-3 or C-4; R' is hydrogen at C-3 or C-4 and the bond between C-3 and C-4 together with the dotted line represents a double bond; or R' is -CH 2 - and together with C-3 and C-4 represents a cyclopropane ring and the bond between C-3 and C-4 together with the dotted line represents a single bond; R 1, and R 2 represent independently of each other a group selected from hydrogen, methyl and ethyl; R 3 is selected from methyl and ethyl; and R 4 is hydroxyl and R 5 is hydrogen; or R 1, R 2 and R 3 represent independently of each other a group selected from hydrogen, methyl and ethyl, wherein at least one is not hydrogen; and R 4 and R 5 together with the carbon atom to which they are attached represents a carbonyl.
An apparatus for processing a slurry with a high solids content or with solids of high specific weight and a gas fed into it, whereby the apparatus comprises at least one open vertical reactor, which consists of two tubes installed in nested fashion, an inner and outer tube (4,5), in which the inner tube is equipped with a downdraft mixer and elements for intensifying gas feed, characterised in that fixed to the lower section of the vertical reactor there is a cylindrical horizontal reactor, which is equipped with radial mixers that fluidise the solids and promote a circulation flow from the horizontal reactor to the outer tube of the vertical reactor.