mhurhangee/ep-ind-claims huggingface dataset:
A process for producing a TiCu alloy with the following analysis: 72.4% Ti, 25.3% Cu, 1.4% O, 0.02% H, 0.05% A1, 0.02% Fe, 0.005% Mg, Cd < 0.001%, Zn < 0.002%, Hg < 0.0002%, particle size distribution d 50: 17.7 μm, average particle size (FSSS): 9.4 μm, characterised in that 31.2 kg TiH 2, that is, powdered titanium hydride, having the following properties: TiH 2 at least 98.8%, H at least 3.8%, N maximally 0.3%, Mg maximally 0.04%, Fe maximally 0.09%, Cl maximally 0.06%, Ni maximally 0.05%, Si maximally 0.15%, C maximally 0.03%, average particle size determined according to FSSS 3 to 6 μm, and 10.0 kg Cu, that is, copper in powder form, having the following properties: Cu at least 99.3%, bulk density 2.6 to 2.8 kg/dm 3, sieve analysis 325 mesh 50 to 65%, sieve analysis 150 mesh 10 to 20%, are mixed together in a mixing vessel for 20 minutes under an argon atmosphere, the mixture is placed on metal sheets in 5 kg batches, the metal sheets are inserted into an oven, which is subsequently sealed and filled with argon to an excess pressure of 100 hPa, the oven is then evacuated, wherein the reaction oven is heated under vacuum in several stages over 6 hours to a maximum temperature of 800°C, and after 4 hours, depending on the pressure in the oven, the oven heating is switched off, and once the oven has cooled to room temperature the mass is removed and the agglomerates are broken up.
Composite wall construction for a building, comprising a wall layer (13, 31) extending along a flat or curved surface made of a number of stone elements (14a, 14b, 14c, 14d, 14e, 14f, 14g, 14h), such as bricks, closers, slabs or the like and a textile concrete layer, which has a textile reinforcement made of reinforcement fibres (26a, 26b, 26c) which is enclosed on both sides by concrete (17a, 17b) and which extends along the surface, wherein the dimensions (x1, y1) of the textile reinforcement along the surface at least correspond to the dimensions (x2, y2) of the wall layer along the surface.
A connector drip-proof member for a cable that has a connector connected to one end of the cable, comprising: a cylinder part configured to be attached to the cable such that a part of the cable is covered; and a barb portion linked to the cylinder part and configured to prevent droplets on the cable from reaching the connector, wherein the barb portion comprises: a concave upper surface configured to face to a back-side of the cable; and an under surface configured to face to the one end side of the cable at which the connector is connected, and wherein the cylinder part penetrates the barb portion from the upper surface to the under surface. characterized in that the barb portion further comprises a return portion linked to an outer edge of the upper surface and extending to the cylinder part side from the outer edge of the upper surface. a cylinder part configured to be attached to the cable such that a part of the cable is covered; and a barb portion linked to the cylinder part and configured to prevent droplets on the cable from reaching the connector, a concave upper surface configured to face to a back-side of the cable; and an under surface configured to face to the one end side of the cable at which the connector is connected, and
A simplex and duplex printer comprising: a printing section; a rolled substrate supply section configured to supply a continuous substrate, which is to be printed on one side, from a roll of the substrate to the printing section; a sheet-like substrate supply section, provided below the rolled substrate supply section, configured to store sheet-like substrates which are to be printed on both sides, and sequentially supplying the sheet-like substrates to the printing section; a guide transport path configured to guide a sheet-like substrate from the sheet-like substrate supply section to the printing section; and a reversing mechanism, connected to the guide transport path, configured to reverse the sheet-like substrate, which has been returned from the printing section to the guide transport path, so that the printing section-facing surface changes from one surface to the other surface, wherein the reversing mechanism includes a rotatable housing shell having a cylindrical inner peripheral surface, and a drive mechanism configured to rotate the housing shell, and wherein the sheet-like substrate is reversed by disposing it along the inner peripheral surface of the housing shell, and rotating the housing shell by means of the drive mechanism. a printing section; a rolled substrate supply section configured to supply a continuous substrate, which is to be printed on one side, from a roll of the substrate to the printing section; a sheet-like substrate supply section, provided below the rolled substrate supply section, configured to store sheet-like substrates which are to be printed on both sides, and sequentially supplying the sheet-like substrates to the printing section; a guide transport path configured to guide a sheet-like substrate from the sheet-like substrate supply section to the printing section; and a reversing mechanism, connected to the guide transport path, configured to reverse the sheet-like substrate, which has been returned from the printing section to the guide transport path, so that the printing section-facing surface changes from one surface to the other surface, wherein the reversing mechanism includes a rotatable housing shell having a cylindrical inner peripheral surface, and a drive mechanism configured to rotate the housing shell, and wherein the sheet-like substrate is reversed by disposing it along the inner peripheral surface of the housing shell, and rotating the housing shell by means of the drive mechanism.
A telecommunication messaging system comprising: a control system operable to receive telecommunication messages from a telecommunication network that are associated with a directory number assigned to a phone (124, 126), wherein the phone (124, 126) is operated by a member of a web-based social networking service and the telecommunication messaging system is part of a social networking server providing the social networking service; said control system being further operable to identify which telecommunication message or messages among said received telecommunication messages involve other members of the social networking service, and a user interface operable to provide a telecommunication messaging page to display the telecommunication messages to the member as part of a website for the social networking service and to highlight the telecommunication messages identified as involving other members of the social networking service in the telecommunication messaging page. a control system operable to receive telecommunication messages from a telecommunication network that are associated with a directory number assigned to a phone (124, 126), wherein the phone (124, 126) is operated by a member of a web-based social networking service and the telecommunication messaging system is part of a social networking server providing the social networking service; said control system being further operable to identify which telecommunication message or messages among said received telecommunication messages involve other members of the social networking service, and a user interface operable to provide a telecommunication messaging page to display the telecommunication messages to the member as part of a website for the social networking service and to highlight the telecommunication messages identified as involving other members of the social networking service in the telecommunication messaging page.
A method for determining asphaltene content of a live crude oil comprising: measuring, downhole within a well, an optical density of a live crude oil within the well; calculating a formation volume factor of the live crude oil based on the measured optical density; and determining the asphaltene content of the live crude oil based on the measured optical density and the calculated formation volume factor of the live crude oil. measuring, downhole within a well, an optical density of a live crude oil within the well; calculating a formation volume factor of the live crude oil based on the measured optical density; and determining the asphaltene content of the live crude oil based on the measured optical density and the calculated formation volume factor of the live crude oil.
A fluid flow control valve comprising: - a valve body comprising a fluid inlet, a fluid outlet, and a fluid flow duct extending in a direction, called the longitudinal direction, between the fluid inlet and the fluid outlet, - a closing member arranged in said fluid flow duct and configured so as to be able to have at least one first position, called the open position, in which it allows the fluid flow to flow freely in said flow duct, and at least one second position, called the closed position, in which it prevents, at least partially, the flow of fluid in said flow duct between said fluid inlet and said fluid outlet, - an electric actuator of said closing member that is suitable for being able to control the position of said closing member in said fluid flow duct, said electric actuator being arranged at least partially in said fluid flow duct such that it can be cooled by said fluid flowing between the fluid inlet and the fluid outlet of said valve body, characterized in that said closing member comprises two conjugate concentric elements: a fixed element relative to said valve body and a rotary element relative to said fixed element, which rotary element is called the valve core and is controlled by said electric actuator. - a valve body comprising a fluid inlet, a fluid outlet, and a fluid flow duct extending in a direction, called the longitudinal direction, between the fluid inlet and the fluid outlet, - a closing member arranged in said fluid flow duct and configured so as to be able to have at least one first position, called the open position, in which it allows the fluid flow to flow freely in said flow duct, and at least one second position, called the closed position, in which it prevents, at least partially, the flow of fluid in said flow duct between said fluid inlet and said fluid outlet, - an electric actuator of said closing member that is suitable for being able to control the position of said closing member in said fluid flow duct, said electric actuator being arranged at least partially in said fluid flow duct such that it can be cooled by said fluid flowing between the fluid inlet and the fluid outlet of said valve body,
A grid for attenuating electromagnetic radiation from a light source, the grid comprising a plurality of baffles, each baffle being electro conductive, wherein the plurality of baffles are configured to form a plurality of cells, each cell being formed as a waveguide so as to attenuate the electromagnetic radiation from the light source, and wherein the plurality of cells comprises a cell having a cut-off frequency higher than an effective frequency of the electromagnetic radiation from the light source, characterized in that the cell has a cross-section with a size that is determined based on the cut-off frequency and a predefmed cross-sectional shape of the cell, and a depth that is determined by the following equation: d ≥ L × c / 40 × π × log 10 e × f c wherein d is the depth of the cell, ƒ c is the cut-off frequency of the cell, L is a preset electromagnetic radiation attenuation value of the cell being in the range of [10dB, 40dB], c is the velocity of light, and e is the Napierian base. d is the depth of the cell, ƒ c is the cut-off frequency of the cell, L is a preset electromagnetic radiation attenuation value of the cell being in the range of [10dB, 40dB], c is the velocity of light, and e is the Napierian base.
An inflatable mannequin for resembling a shape of a body, comprising an airtight upper bag body portion including a front sheet and a back sheet, wherein the front sheet is composed by joining a left and a right half sheet (9, 10) at a chest centerline L, each of which has parts sheets including an inner sheet placed close to the center of the chest, an outer sheet placed outside of the chest, and the strip-shaped gusset placed between the inner and outer sheets (11, 12) and coupled through a curved junction line.
A feeding system for feeding groups of products to a processing unit; the feeding system comprises: at least one tray provided with a first plurality of housings each designed to receive one single product; a conveyor designed to move the tray along a feeding path; a transfer device, which is arranged along the feeding path and is designed to transfer a group of products from respective housings of the tray to the processing unit; and an organizing device, which is arranged along the feeding path upstream of the transfer device and comprises: a detection member which is designed to detect the presence and the position of empty housings and/or housings containing defective products, and at least one gripping member which can be operated so as to pick up a product (3, 3a) from, or release a product (3, 3a) into, any of the housings of the tray; the feeding system is characterized in that it comprises a control unit, which is configured to control the gripping member, based on the data received from the detection member, in order to move one or more products from the respective housings so that possible defective or missing products are in respective housings having the same composition as a group of products so as to form, in the tray, at least one group of defective or missing products. at least one tray provided with a first plurality of housings each designed to receive one single product; a conveyor designed to move the tray along a feeding path; a transfer device, which is arranged along the feeding path and is designed to transfer a group of products from respective housings of the tray to the processing unit; and an organizing device, which is arranged along the feeding path upstream of the transfer device and comprises: a detection member which is designed to detect the presence and the position of empty housings and/or housings containing defective products, and at least one gripping member which can be operated so as to pick up a product (3, 3a) from, or release a product (3, 3a) into, any of the housings of the tray; the feeding system is characterized in that it comprises a control unit, which is configured to control the gripping member, based on the data received from the detection member, in order to move one or more products from the respective housings so that possible defective or missing products are in respective housings having the same composition as a group of products so as to form, in the tray, at least one group of defective or missing products.
A housing for carrying an electronic component, comprising: a layered stack defining a first housing component, the layered stack comprising a plurality of thin layers, each layer formed of a bondable material and ultrasonically bonded together in a manner that defines at least in part a cavity; a metal foil layer disposed across the cavity and at least partially defining a second housing component, the second housing component comprising a laminate of multiple thin layers including the metal foil layer ultrasonically bonded together; and wherein the electronic component is positioned in the cavity, and the metal foil layer is ultrasonically bonded to the first housing component and ultrasonically bonded or welded atop and supported by an upper surface of the electronic component. a layered stack defining a first housing component, the layered stack comprising a plurality of thin layers, each layer formed of a bondable material and ultrasonically bonded together in a manner that defines at least in part a cavity; a metal foil layer disposed across the cavity and at least partially defining a second housing component, the second housing component comprising a laminate of multiple thin layers including the metal foil layer ultrasonically bonded together; and wherein the electronic component is positioned in the cavity, and the metal foil layer is ultrasonically bonded to the first housing component and ultrasonically bonded or welded atop and supported by an upper surface of the electronic component.
Inductance arrangement with a regulating circuit and with a means for generating a unipolar current and with an inductance, comprising a main winding which is formed around at least one limb of a core (2, 3), wherein the main winding is supplied with alternating current, wherein a control winding is provided on at least one limb of the core (2, 3), which control winding is supplied with the unipolar current, and has part-windings, wherein a supply winding is provided on at least one limb of the core (2, 3), to which supply winding the means for generating the unipolar current is connected, wherein the means is supplied from the induced voltage, in particular therefore secondary voltage, of the supply winding, wherein the core (2, 3) has an air gap S which is penetrated in the main flux generated by the main winding, wherein the fluxes generated by the respective part-windings are substantially conducted through regions of the core (2, 3) without an air gap S, characterised in that the means for generating the unipolar current comprises a controllable arrangement, such as DC/DC converter, power switch and/or controllable resistance, in that the control signals for control are transmitted in a contactless and/or galvanically isolated manner, and in that the means is provided as control element of the regulating circuit and connected to the latter.
A method for depositing a coating on a surface of a substrate, the method comprising: a) contacting the substrate with a vapor of a metal-containing compound having formula I to form a modified surface on the substrate: wherein: M is Cu, Ni, Co, Cr, Mn, Fe, W, Mo, Ti, Zr, Hf, Rf, V, Nb, Ta, Re, Ru, Rh, Ir, Pd, Pt, Au, Li, Na, K, Rb, Cs, Mg, Ca, Sr, Ba, Zn, or Cd; R 1 is a C 1 - 12 alkyl, C 6 - 18 aryl, or Si(R 4) 3; R 2, R 3 are each independently H, C 1 - 10 alkyl, C 6 - 18 aryl, amino, C 1 - 12 alkylamino, or C 2 - 24 dialkylamino; and R 4 is C 1 - 10 alkyl or C 6 - 18 aryl; and b) contacting the modified surface with a vapor of a Lewis base to form at least a portion of the coating on the surface of the substrate, wherein said Lewis base is selected from the group consisting of n-propyl amine, isopropyl amine, n-butyl amine, sec- butyl amine, iso -butyl amine, tert -butyl amine, di-n-propyl amine, di-iso-propyl amine. a) contacting the substrate with a vapor of a metal-containing compound having formula I to form a modified surface on the substrate: wherein: M is Cu, Ni, Co, Cr, Mn, Fe, W, Mo, Ti, Zr, Hf, Rf, V, Nb, Ta, Re, Ru, Rh, Ir, Pd, Pt, Au, Li, Na, K, Rb, Cs, Mg, Ca, Sr, Ba, Zn, or Cd; R 1 is a C 1 - 12 alkyl, C 6 - 18 aryl, or Si(R 4) 3; R 2, R 3 are each independently H, C 1 - 10 alkyl, C 6 - 18 aryl, amino, C 1 - 12 alkylamino, or C 2 - 24 dialkylamino; and R 4 is C 1 - 10 alkyl or C 6 - 18 aryl; and M is Cu, Ni, Co, Cr, Mn, Fe, W, Mo, Ti, Zr, Hf, Rf, V, Nb, Ta, Re, Ru, Rh, Ir, Pd, Pt, Au, Li, Na, K, Rb, Cs, Mg, Ca, Sr, Ba, Zn, or Cd; R 1 is a C 1 - 12 alkyl, C 6 - 18 aryl, or Si(R 4) 3; R 2, R 3 are each independently H, C 1 - 10 alkyl, C 6 - 18 aryl, amino, C 1 - 12 alkylamino, or C 2 - 24 dialkylamino; and R 4 is C 1 - 10 alkyl or C 6 - 18 aryl; and b) contacting the modified surface with a vapor of a Lewis base to form at least a portion of the coating on the surface of the substrate, wherein said Lewis base is selected from the group consisting of n-propyl amine, isopropyl amine, n-butyl amine, sec- butyl amine, iso -butyl amine, tert -butyl amine, di-n-propyl amine, di-iso-propyl amine.
A method of manufacturing an electronic component (100, 100A; 200) comprising the steps of: a) forming via holes (H2; BH) penetrating through a first semiconductor substrate (101; 201) and a second semiconductor substrate (103; 203) which are bonded together by way of a connection layer (102; 202); b) pattern-etching the second semiconductor substrate using the connection layer as an etch-stop layer to form trenches (T1; TR) communicated with the via holes; and c) integrally forming first via plugs (108; 208, 209) buried in the via holes and pattern wirings (107; 207) buried in the trenches through plating, wherein an etching rate of the connection layer is smaller than that of the second semiconductor substrate. a) forming via holes (H2; BH) penetrating through a first semiconductor substrate (101; 201) and a second semiconductor substrate (103; 203) which are bonded together by way of a connection layer (102; 202); b) pattern-etching the second semiconductor substrate using the connection layer as an etch-stop layer to form trenches (T1; TR) communicated with the via holes; and c) integrally forming first via plugs (108; 208, 209) buried in the via holes and pattern wirings (107; 207) buried in the trenches through plating,
A method performed by a relay node configured to have a user equipment function and a base station function, the method comprising: using the user equipment function to establish a Radio Resource Control, RRC, connection with a base station; receiving, from the base station, a RRC reconfiguration message for establishing, while maintaining the RRC connection, a backhaul Radio Link Control, RLC, channel between the relay node and the base station; and establishing the RLC channel while maintaining the RRC connection, wherein the RRC reconfiguration message includes information configuring RLC mode of the RLC channel from among an acknowledged mode and an unacknowledged mode. using the user equipment function to establish a Radio Resource Control, RRC, connection with a base station; receiving, from the base station, a RRC reconfiguration message for establishing, while maintaining the RRC connection, a backhaul Radio Link Control, RLC, channel between the relay node and the base station; and establishing the RLC channel while maintaining the RRC connection, wherein the RRC reconfiguration message includes information configuring RLC mode of the RLC channel from among an acknowledged mode and an unacknowledged mode.
A shaft for a rotary star screen apparatus, said shaft (7, 8) having: a shaft body (9, 10) having a series of axially spaced star connectors; and a series of stars, mounted to said star connectors, each one of said stars comprising a plurality of circumferentially distributed star members each elongate in a direction having a component radially away from said shaft body (9, 10); characterized in that said star connectors each comprise a plurality of circumferentially distributed star member connectors; and wherein each of said star members is a separate part, individually and detachably mounted to one of said star member connectors. a shaft body (9, 10) having a series of axially spaced star connectors; and a series of stars, mounted to said star connectors, each one of said stars comprising a plurality of circumferentially distributed star members each elongate in a direction having a component radially away from said shaft body (9, 10); characterized in that said star connectors each comprise a plurality of circumferentially distributed star member connectors; and wherein each of said star members is a separate part, individually and detachably mounted to one of said star member connectors.