mhurhangee/ep-ind-claims huggingface dataset:
A convex stoma chassis comprising a rubber disc, a plastic part fixed on the rubber disc, and a hot melt adhesive connected between the rubber disc and the plastic part; wherein the rubber disc comprises a convex surface, a concave backing corresponding to the convex surface, a hydrocolloid positioned in the concave backing, and a release film connected with the convex surface; a welding ring is disposed between the plastic part and the concave backing.
A process for production of a self-supporting glass film, the process comprising the steps of: preparing a mixture, wherein the mixture comprises an aqeous colloidal silica sol, at least one alkanolamine organic additive that is triethanolamine, diethanolamine, monoethanolamine, or a combination thereof and is present in the mixture from about 2 to about 100 wt% with respect to the inorganic solid content of silica in the mixture, and an organic binder that is an aqueous acrylic emulsion or an aqueous polyurethane emulsion and is present from about 5 to about 100 wt% with respect to the inorganic solid content of silica in the mixture; applying the mixture onto a base material to form a coating; drying the coating to form a precursor film on the base material; releasing the precursor film from the base material; and firing the released precursor film to form a self-supporting glass film. preparing a mixture, wherein the mixture comprises an aqeous colloidal silica sol, at least one alkanolamine organic additive that is triethanolamine, diethanolamine, monoethanolamine, or a combination thereof and is present in the mixture from about 2 to about 100 wt% with respect to the inorganic solid content of silica in the mixture, and an organic binder that is an aqueous acrylic emulsion or an aqueous polyurethane emulsion and is present from about 5 to about 100 wt% with respect to the inorganic solid content of silica in the mixture; applying the mixture onto a base material to form a coating; drying the coating to form a precursor film on the base material; releasing the precursor film from the base material; and firing the released precursor film to form a self-supporting glass film.
Method for operating a dishwasher having at least one dishwasher cavity, a circulating pump for conveying washing fluid to at least one spray apparatus for applying to items to be washed stored in the dishwasher cavity, a drain pump for pumping away washing fluid from the dishwasher and having a wash program which can at least be composed at least of the subprogram steps pre-rinse (V 1, V 2), wash (R 1, R 2), intermediate rinse, rinsing with rinse-aid (K 1, K 2) and drying, wherein an alternating operation between the circulating pump and the drain pump is undertaken at least for a time during a subprogram step (V 1, V 2, R 1, R 2, K 1, K 2), characterised in that a simultaneous operation of the circulating pump and the drain pump is undertaken at least for a time during a subprogram step (V 1, V 2, R 1, R 2, K 1, K 2).
A steel cord for reinforcing a rubber article comprising: one core strand having a two-layered layered-twisted structure formed by twisting a plurality of steel filaments; and a plurality of sheath strands having a layered-twisted structure formed by twisting a plurality of steel filaments, wherein the sheath strands are twisted around the core strand, wherein a ratio dc/ds of a diameter dc of a sheath filament constituting the sheath of the core strand to a diameter ds of an outermost layer sheath filament constituting the outermost layer sheath of the sheath strand is within the range of from 1.27 to 1.42, and wherein the number of the sheath strands is from 7 to 9.
Arrangement of means which form a lubricant circuit; having at least one lubricant line, at least one line branching point which divides the lubricant line into a first branch and a second branch, at least one lubricant store which is integrated into the first branch and serves for extraction of a lubricant sample, and at least one valve which is integrated into the first branch, or which is integrated into the line branching point or into a line merging point and is in the form of a switching valve; wherein at least one line merging point brings together the first branch and the second branch; wherein the first branch is able to be closed off and opened up; characterized in that the valve is temperature-controlled. having at least one lubricant line, at least one line branching point which divides the lubricant line into a first branch and a second branch, at least one lubricant store which is integrated into the first branch and serves for extraction of a lubricant sample, and at least one valve which is integrated into the first branch, or which is integrated into the line branching point or into a line merging point and is in the form of a switching valve; wherein at least one line merging point brings together the first branch and the second branch; wherein the first branch is able to be closed off and opened up; characterized in that the valve is temperature-controlled.
A millimeter-wave transmission system comprising: a millimeter-wave transmission device (20, 50) comprising a waveguide made of a material having a dielectric constant in the range from 1 to 4, the waveguide being solid at each of its ends with an electronic unit (26, 26') embedded in the material of the waveguide, each electronic unit comprising a millimeter wave transceiver circuit (7, 7'), an antenna (5, 5') capable of transmitting and receiving the millimeter waves, a modulation-demodulation circuit (9, 9') linked by an input-output conductor (24, 24') to an input-output terminal (13, 13') for emitting and receiving binary signals, the waveguide comprising no element made of an electrically-conductive material; and two connectors (40, 40'), each connector being connected to one end of the device and connected to the input-output terminal (13, 13') of the electronic unit (26, 26') located at the same end. a millimeter-wave transmission device (20, 50) comprising a waveguide made of a material having a dielectric constant in the range from 1 to 4, the waveguide being solid at each of its ends with an electronic unit (26, 26') embedded in the material of the waveguide, each electronic unit comprising a millimeter wave transceiver circuit (7, 7'), an antenna (5, 5') capable of transmitting and receiving the millimeter waves, a modulation-demodulation circuit (9, 9') linked by an input-output conductor (24, 24') to an input-output terminal (13, 13') for emitting and receiving binary signals, the waveguide comprising no element made of an electrically-conductive material; and two connectors (40, 40'), each connector being connected to one end of the device and connected to the input-output terminal (13, 13') of the electronic unit (26, 26') located at the same end.
Hard coating layer system comprising at least a main layer on a surface of a substrate, a buried layer and an outer surface layer wherein - the surface layer consisting of AlCrZ with Z standing for N, C, B, CN, BN, CBN, NO, CO, CNO, BNO, or CBNO, said layer havig a thickness t1 of 0.2μm &lt; t1 < 2μm; - the main layer comprises a nitride, carbide, or carbonitride or a multilayer of nitride, carbide or carbonitride material; - the buried layer comprises one of WN, WCN, WTaN, WTaCN, WTiN, WTiCN, WSiN, WSiCN, TiWSiN, or TiWSiCN wherein the main layer has a thermal conductivity of less or equal than 70% of a thermal conductivity of the buried layer. - the surface layer consisting of AlCrZ with Z standing for N, C, B, CN, BN, CBN, NO, CO, CNO, BNO, or CBNO, said layer havig a thickness t1 of 0.2μm &lt; t1 < 2μm; - the main layer comprises a nitride, carbide, or carbonitride or a multilayer of nitride, carbide or carbonitride material; - the buried layer comprises one of WN, WCN, WTaN, WTaCN, WTiN, WTiCN, WSiN, WSiCN, TiWSiN, or TiWSiCN
A computer-implemented method for directing the shifting of objects (46, 106, 108), the method comprising: directing a shifting mechanism to move a first object-support structure of a plurality of object-support structures to a first location, the first location being located in a three-dimensional space in which an object-shifting apparatus operates; receiving, from the object-shifting apparatus, identifying data associated with an object (46, 106, 108) positioned on the first object-support structure; determining a designated destination of the object(46, 106, 108) based at least in part on the identifying data; directing the shifting mechanism to move a second object-support structure of the plurality of object-support structures to a second location based at least in part on the second object-support structure being associated with the designated destination of the object (46, 106, 108), the second location being located in the three-dimensional space in which the object-shifting apparatus operates; and directing the object-shifting apparatus to transfer the object from the first object-support structure to the second object-support structure.
Pipe construction, preferably for integration into an exhaust system of a vehicle, comprising: a pipe for guiding a fluid, preferably for guiding an exhaust gas of an internal combustion engine, wherein the pipe comprises a pipe cross-section; and at least one collecting pipe, wherein the at least one collecting pipe is arranged in the pipe cross-section and comprises two open pipe ends and at least one opening for extracting fluid from the pipe cross-section and preferably extends over the entire pipe cross-section, and a collection chamber which is fluidically connected to the two open pipe ends and via which extracted fluid can be supplied to a measuring device, characterized in that the collection chamber is arranged outside the pipe and a first of the two pipe ends is fluidically connected to the collection chamber at a first region of the pipe cross section, and a second of the two pipe ends is fluidically connected to the collection chamber at a second region of the pipe cross section, which is located opposite the first region. a pipe for guiding a fluid, preferably for guiding an exhaust gas of an internal combustion engine, wherein the pipe comprises a pipe cross-section; and at least one collecting pipe, wherein the at least one collecting pipe is arranged in the pipe cross-section and comprises two open pipe ends and at least one opening for extracting fluid from the pipe cross-section and preferably extends over the entire pipe cross-section, and a collection chamber which is fluidically connected to the two open pipe ends and via which extracted fluid can be supplied to a measuring device, characterized in that the collection chamber is arranged outside the pipe and a first of the two pipe ends is fluidically connected to the collection chamber at a first region of the pipe cross section, and a second of the two pipe ends is fluidically connected to the collection chamber at a second region of the pipe cross section, which is located opposite the first region.
A catalyst composition comprising: (i) a metal salt complex of an imine bis(phenol) compound characterized by Structure I: wherein: O and N represent oxygen and nitrogen respectively; R comprises a halogen, a hydrocarbyl group, or a substituted hydrocarbyl group; R 2 and R 3 can each independently be hydrogen, a halogen, a hydrocarbyl group, or a substituted hydrocarbyl group; and Q is a donor group; and (ii) a metallocene complex. (i) a metal salt complex of an imine bis(phenol) compound characterized by Structure I: wherein: O and N represent oxygen and nitrogen respectively; R comprises a halogen, a hydrocarbyl group, or a substituted hydrocarbyl group; R 2 and R 3 can each independently be hydrogen, a halogen, a hydrocarbyl group, or a substituted hydrocarbyl group; and Q is a donor group; and O and N represent oxygen and nitrogen respectively; R comprises a halogen, a hydrocarbyl group, or a substituted hydrocarbyl group; R 2 and R 3 can each independently be hydrogen, a halogen, a hydrocarbyl group, or a substituted hydrocarbyl group; and Q is a donor group; and (ii) a metallocene complex.
A method for producing a cream product comprising: mixing gum and lactose with a first portion of water for a first time period to form a gum dispersion; after the first time period, adding the gum dispersion to melted butter; forming a cream pre-mixture by hydrating dry cream in a second portion of water; mixing the cream pre-mixture with the melted butter having the added gum dispersion thereby forming a cream mixture; heating the cream mixture to a pasteurization temperature between 65.6 °C (150 °F) and 85 °C (185 °F) for a time ranging between 1 minute and 30 minutes; and rapidly cooling the heated cream mixture to between 4 °C (40 °F) and 21.1 °C (70 °F) while subjecting the heated cream mixture to shear forces; wherein the gum dispersion in the cream mixture subjected to the cooling and the shear forces form a stable cream product; and wherein the stable cream product formed comprises up to 35 weight percent fat. mixing gum and lactose with a first portion of water for a first time period to form a gum dispersion; after the first time period, adding the gum dispersion to melted butter; forming a cream pre-mixture by hydrating dry cream in a second portion of water; mixing the cream pre-mixture with the melted butter having the added gum dispersion thereby forming a cream mixture; heating the cream mixture to a pasteurization temperature between 65.6 °C (150 °F) and 85 °C (185 °F) for a time ranging between 1 minute and 30 minutes; and rapidly cooling the heated cream mixture to between 4 °C (40 °F) and 21.1 °C (70 °F) while subjecting the heated cream mixture to shear forces;
A formulation for cleaning hard surfaces comprising: A) one or more liquid solvents; B) one or more film-forming polymers having a weight average molecular weight of at least 80,000 g/mol and comprising; (i) polymerized units derived from one or more ethylenically unsaturated monomers; and (ii) one or more acid functional residues, polyvalent metal ions and complex crosslinking agents; and C) one or more polymer surfactants, each comprising polymerized units derived from ethylene oxide and butylene oxide and having the following general Formula I: R a -O- m - n -H Formula I wherein R a is one or more independently straight chain or branched alkyl groups or alkenyl groups having 3-22 carbon atoms, EO is a polymerized unit derived from ethylene oxide, m is from 1 to 12, BO is a polymerized unit derived from butylene oxide, and n is from 1 to 8; wherein, application of said formulation to hard surfaces provides a shiny appearance free of streaking. A) one or more liquid solvents; B) one or more film-forming polymers having a weight average molecular weight of at least 80,000 g/mol and comprising; (i) polymerized units derived from one or more ethylenically unsaturated monomers; and (ii) one or more acid functional residues, polyvalent metal ions and complex crosslinking agents; and (i) polymerized units derived from one or more ethylenically unsaturated monomers; and (ii) one or more acid functional residues, polyvalent metal ions and complex crosslinking agents; and C) one or more polymer surfactants, each comprising polymerized units derived from ethylene oxide and butylene oxide and having the following general Formula I: R a -O- m - n -H Formula I wherein R a is one or more independently straight chain or branched alkyl groups or alkenyl groups having 3-22 carbon atoms, EO is a polymerized unit derived from ethylene oxide, m is from 1 to 12, BO is a polymerized unit derived from butylene oxide, and n is from 1 to 8;
A method for producing a crystal laminate structure comprising: a step of forming a β-Ga 2 O 3 -based crystal film by epitaxial growth of a β-Ga 2 O 3 -based crystal on a main surface of a β-Ga 2 O 3 -based substrate at a growth temperature of not less than 700°C by MBE method, wherein the main surface comprises a plane rotated by not less than 50° and not more than 90° with respect to a plane, wherein the epitaxial growth of the β-Ga 2 O 3 -based crystal by the MBE method having a characteristics that a percentage of the re-evaporated raw material of the β-Ga 2 O 3 -based crystal from the β-Ga 2 O 3 -based substrate at the growth temperature is suppressed to be not more than 40% where a percentage of the re-evaporated raw material from the β-Ga 2 O 3 -based substrate during the epitaxial growth of the β-Ga 2 O 3 -based crystal at a growth temperature of 500°C is defined as 0%, wherein the main surface comprises one of a plane, a plane, a plane, a (-201) plane, and a plane, and wherein a growth rate of the β-Ga 2 O 3 -based crystal on the main surface is not less than 90nm/hr and not more than 130nm/hr. a step of forming a β-Ga 2 O 3 -based crystal film by epitaxial growth of a β-Ga 2 O 3 -based crystal on a main surface of a β-Ga 2 O 3 -based substrate at a growth temperature of not less than 700°C by MBE method, wherein the main surface comprises a plane rotated by not less than 50° and not more than 90° with respect to a plane, wherein the epitaxial growth of the β-Ga 2 O 3 -based crystal by the MBE method having a characteristics that a percentage of the re-evaporated raw material of the β-Ga 2 O 3 -based crystal from the β-Ga 2 O 3 -based substrate at the growth temperature is suppressed to be not more than 40% where a percentage of the re-evaporated raw material from the β-Ga 2 O 3 -based substrate during the epitaxial growth of the β-Ga 2 O 3 -based crystal at a growth temperature of 500°C is defined as 0%, wherein the main surface comprises one of a plane, a plane, a plane, a (-201) plane, and a plane, and wherein a growth rate of the β-Ga 2 O 3 -based crystal on the main surface is not less than 90nm/hr and not more than 130nm/hr.
A device for spraying at least one liquid, in particular for use in dye penetration inspection, into at least one inner cavity of a workpiece, in particular a turbine engine part, the device comprising: • support means for supporting the workpiece; • at least one liquid delivery manifold that is connected to liquid feed means and to spray means for spraying the liquid, at least part of the manifold being for receiving inside the workpiece when the workpiece is in position mounted on the support means so as to enable the liquid to be sprayed into the or each inner cavity of the workpiece; and • at least one recovery manifold for recovering the sprayed liquid, which manifold is for receiving at least in part inside the workpiece when the workpiece is in position mounted on the support means, and is connected to suction means for sucking up the liquid sprayed into the or each inner cavity of the workpiece, and to discharge means for discharging the sucked-up liquid, the device being characterized in that it further comprises • tilting means for tilting at least a portion of the support means from a substantially horizontal position to an inclined position in which the workpiece is to be inclined so that the sprayed liquid in the or each cavity flows under gravity to at least one zone from which it is sucked up by the suction means. • support means for supporting the workpiece; • at least one liquid delivery manifold that is connected to liquid feed means and to spray means for spraying the liquid, at least part of the manifold being for receiving inside the workpiece when the workpiece is in position mounted on the support means so as to enable the liquid to be sprayed into the or each inner cavity of the workpiece; and • at least one recovery manifold for recovering the sprayed liquid, which manifold is for receiving at least in part inside the workpiece when the workpiece is in position mounted on the support means, and is connected to suction means for sucking up the liquid sprayed into the or each inner cavity of the workpiece, and to discharge means for discharging the sucked-up liquid, the device being characterized in that it further comprises • tilting means for tilting at least a portion of the support means from a substantially horizontal position to an inclined position in which the workpiece is to be inclined so that the sprayed liquid in the or each cavity flows under gravity to at least one zone from which it is sucked up by the suction means.
A method for cooling a hot synthesis gas containing at least one condensable constituent part, namely tar, in which the synthesis gas in a multi-stage cooling process passes through a first cooling stage, a second cooling stage and a third cooling stage one after the other and the synthesis gas, after an at least partial cooling, is subjected to at least one separation step for separating the at least one condensable constituent part, characterized in that the synthesis gas in the first cooling stage is cooled down to a temperature above the condensation temperature of the at least one condensable constituent part and the synthesis gas is cooled in the second cooling stage to a temperature below the condensation temperature of the at least one condensable constituent part, namely to a temperature of ≤ 200°C, and the second cooling stage comprises the recirculation of a part quantity of synthesis gas branched off after the third cooling stage and after the at least one separation step, into the synthesis gas flow.
Radiation-emitting semiconductor component having a basic body, at least one semiconductor body and a luminescence conversion element, the basic body having a recess, wherein the recess comprises a bowl-like region in which the semiconductor body is arranged and which is filled with the luminescence conversion element, characterized in that the bowl-like region is formed by an annular enclosure on the base of the recess and the inner side surfaces of the annular enclosure serve as a reflector.
An electronic device, comprising a display screen, a camera, a memory and a processor, wherein the camera is provided under the display screen, and the memory is configured to store program instructions, wherein the processor is configured to process the program instructions to execute the following steps: generating a first area (40, 40') and a second area in the display screen, wherein the first area (40, 40') is centered on a center of the lens of the camera; determining a preset area in the display screen according to user selection, wherein the first area (40, 40') is located within the preset area; and adjusting the size of the first area (40, 40') according to the screen brightness of the display screen, wherein the size of the first area (40, 40') is increased with the increase of the screen brightness of the display screen within the preset area; when the camera is in the photographing state, the first area (40, 40') has no display content while the second area displays a preview image of a photographed object that is acquired by the camera; when the camera is not in the photographing state, both the first area (40, 40') and the second area display content. generating a first area (40, 40') and a second area in the display screen, wherein the first area (40, 40') is centered on a center of the lens of the camera; determining a preset area in the display screen according to user selection, wherein the first area (40, 40') is located within the preset area; and adjusting the size of the first area (40, 40') according to the screen brightness of the display screen, wherein the size of the first area (40, 40') is increased with the increase of the screen brightness of the display screen within the preset area; when the camera is in the photographing state, the first area (40, 40') has no display content while the second area displays a preview image of a photographed object that is acquired by the camera; when the camera is not in the photographing state, both the first area (40, 40') and the second area display content.