mhurhangee/ep-ind-claims huggingface dataset:
Method for forming a contact on a semiconductor substrate comprising the following steps: applying at least one metal to at least one exposed partial area of an outer side of the semiconductor substrate and/or a layer applied to the semiconductor substrate, wherein the partial area is surrounded by at least one edge region of an insulating layer, and wherein the at least one edge region of the insulating layer is at least partly covered with the at least one metal; heating the semiconductor substrate with the at least one metal applied on the at least one partial area and the at least one edge region, as a result of which the at least one metal applied to the at least one partial area reacts with at least one semiconductor material of the at least one partial area to form a semiconductor-metal material as final material for further processing material of the at least one contact; and carrying out an etching step using an etching material having a higher etching rate for the at least one metal and for the semiconductor-metal material, characterized by the step that between applying the at least one metal and heating the semiconductor substrate, at least one ion beam etching step is carried out in an etching direction which is inclined with respect to an axis oriented perpendicularly to the outer side of the semiconductor substrate. applying at least one metal to at least one exposed partial area of an outer side of the semiconductor substrate and/or a layer applied to the semiconductor substrate, wherein the partial area is surrounded by at least one edge region of an insulating layer, and wherein the at least one edge region of the insulating layer is at least partly covered with the at least one metal; heating the semiconductor substrate with the at least one metal applied on the at least one partial area and the at least one edge region, as a result of which the at least one metal applied to the at least one partial area reacts with at least one semiconductor material of the at least one partial area to form a semiconductor-metal material as final material for further processing material of the at least one contact; and carrying out an etching step using an etching material having a higher etching rate for the at least one metal and for the semiconductor-metal material, characterized by the step that between applying the at least one metal and heating the semiconductor substrate, at least one ion beam etching step is carried out in an etching direction which is inclined with respect to an axis oriented perpendicularly to the outer side of the semiconductor substrate.
Method for automated control and regulation of a machine for one- or two-sided lubricant application on a substrate, in particular, a metal sheet, wherein the machine comprises: at least one application unit, at least one pump unit connected to the at least one application unit via at least one transport line, at least one sensing unit for carrying out a spatially resolved optical or spectroscopic measurement method, as well as a data processing unit, comprising the following steps: a. using the at least one pump unit: conveying the lubricant in the direction of the at least one application unit via the at least one transport line; b. measurement of at least one first analysis parameter with at least one measurement unit assigned to the at least one pump unit or determination of at least one first analysis parameter from machine parameters; c. using the at least one application unit: application of the lubricant on at least one side of the substrate or metal sheet; d. measurement of at least one second analysis parameter with the sensing unit; e. using the data processing unit: calculation of at least one quality parameter; f. using the data processing unit: comparison of the at least one quality parameter with at least one first default parameter, wherein a positive or negative determination is made as a result of the comparison; characterized by: g. in the case of a negative determination: automatic checking and/or modifying at least one control parameter via a control and regulation unit comprised by the machine; and in the case of a positive determination: executing a control loop and/or releasing the substrate, wherein, at step e, the at least one quality parameter is calculated from the at least one first analysis parameter and the at least one second analysis parameter. a. using the at least one pump unit: conveying the lubricant in the direction of the at least one application unit via the at least one transport line; b. measurement of at least one first analysis parameter with at least one measurement unit assigned to the at least one pump unit or determination of at least one first analysis parameter from machine parameters; c. using the at least one application unit: application of the lubricant on at least one side of the substrate or metal sheet; d. measurement of at least one second analysis parameter with the sensing unit; e. using the data processing unit: calculation of at least one quality parameter; f. using the data processing unit: comparison of the at least one quality parameter with at least one first default parameter, wherein a positive or negative determination is made as a result of the comparison; g. in the case of a negative determination: automatic checking and/or modifying at least one control parameter via a control and regulation unit comprised by the machine; and in the case of a positive determination: executing a control loop and/or releasing the substrate, wherein, at step e, the at least one quality parameter is calculated from the at least one first analysis parameter and the at least one second analysis parameter.
Composition comprising: - at least one oxidation coupler chosen from hydroxyethyl-3,4-methylenedioxyaniline of formula, one of its addition salts, its solvates and/or the solvates of its salts: - at least one oxidation coupler chosen from 2-amino-5-ethylphenol of formula, one of its addition salts, its solvates and/or the solvates of its salts: - at least one alkyl(poly)glycoside. - at least one oxidation coupler chosen from hydroxyethyl-3,4-methylenedioxyaniline of formula, one of its addition salts, its solvates and/or the solvates of its salts: - at least one oxidation coupler chosen from 2-amino-5-ethylphenol of formula, one of its addition salts, its solvates and/or the solvates of its salts: - at least one alkyl(poly)glycoside.
An element for sealing, baffling and/or reinforcing a cavity in a structure of manufacture such as the cavity of a vehicle, comprising: - at least one carrier element, - at least one expandable element, supported by said carrier element, said expandable element comprising a material expandable by heat, humidity, and/or radiation, wherein said expandable material contains a chemical blowing agent for causing an expansion of said expandable material, characterised in that a plurality of microscopic gas bubbles is furthermore contained in said expandable material such that more than 1%, preferably more than 10% of the volume of the expandable material is substituted by gas, wherein said microscopic gas bubbles have a diameter of between 1 and 100 micrometres. - at least one carrier element, - at least one expandable element, supported by said carrier element, said expandable element comprising a material expandable by heat, humidity, and/or radiation, wherein said expandable material contains a chemical blowing agent for causing an expansion of said expandable material,
An antenna comprising: a feedline having a path in a first plane, the path having a first arm and a second arm perpendicular to the first arm; a ground plane provided in a second plane spaced apart from, and parallel to, the first plane, the ground plane having a first ground plane slot and a second ground plane slot therein, each ground plane slot having a path in the second plane, wherein the path of the first ground plane slot intersects the path of the feedline at a first position on the first arm and a second position on the second arm when the second plane is projected into the first plane, and the path of the second ground plane slot intersects the path of the feedline at a third position on the first arm and a fourth position on the second arm when the second plane is projected into the first plane; and a radiator separated from the feedline by the ground plane, the radiator being provided in a third plane spaced apart from, and parallel to, the second plane; wherein the radiator covers the first ground plane slot and the second ground plane slot. a feedline having a path in a first plane, the path having a first arm and a second arm perpendicular to the first arm; a ground plane provided in a second plane spaced apart from, and parallel to, the first plane, the ground plane having a first ground plane slot and a second ground plane slot therein, each ground plane slot having a path in the second plane, wherein the path of the first ground plane slot intersects the path of the feedline at a first position on the first arm and a second position on the second arm when the second plane is projected into the first plane, and the path of the second ground plane slot intersects the path of the feedline at a third position on the first arm and a fourth position on the second arm when the second plane is projected into the first plane; and a radiator separated from the feedline by the ground plane, the radiator being provided in a third plane spaced apart from, and parallel to, the second plane; wherein the radiator covers the first ground plane slot and the second ground plane slot.
Photovoltaic module comprising a negative terminal and a positive terminal, and a parallel connection (3, 4) of m sub-modules connected to the negative and the positive terminals (5, 6) of the photovoltaic module, wherein each of the m sub-modules comprises a string of n series-connected back-contact cells, wherein each sub-module has an area being the area occupied by the string, wherein the n cells of each sub-module are arranged in an array, characterised in that the parallel connection (3, 4) and connections for each string of n series-connected back contact cells are provided in a back conductive sheet, and the back conductive sheet comprises designated areas for the parallel connection (3, 4), corresponding to edge parts of each corresponding sub-module area.
A method of wireless communication comprising: receiving, by a first wireless communication device from a second wireless communication device, a sequence of protocol data units, PDUs; receiving, by the first wireless communication device from the second wireless communication device, an indication to support transmission of a reception status report for a portion of a receiver buffer window other than the entire receiver buffer window; transmitting, by the first wireless communication device to the second wireless communication device, a first reception status report for a first portion of the receiver buffer window used for receiving the sequence of PDUs; and transmitting, by the first wireless communication device to the second wireless communication device, a second reception status report for a second portion of the receiver buffer window, the second portion being different from the first portion. receiving, by a first wireless communication device from a second wireless communication device, a sequence of protocol data units, PDUs; receiving, by the first wireless communication device from the second wireless communication device, an indication to support transmission of a reception status report for a portion of a receiver buffer window other than the entire receiver buffer window; transmitting, by the first wireless communication device to the second wireless communication device, a first reception status report for a first portion of the receiver buffer window used for receiving the sequence of PDUs; and transmitting, by the first wireless communication device to the second wireless communication device, a second reception status report for a second portion of the receiver buffer window, the second portion being different from the first portion.
A workbench system comprising: two workbenches, wherein each workbench comprises a benchtop and a display coupled to the upper surface of the benchtop; a multi-axis robot proximate to a workbench and located between the two workbenches; a visible light projector; a sensor system comprising one or more sensors, the sensor system configured to identify a user in a workspace in which a workbench is located and a controller configured to: based on the identity of the user, determine a task to be performed by the user using the workbench system; and based on the identity of the user and/or the determined task, control one or more properties of a workbench; control the multi-axis robot to move the robot through a space; control the visible light projector to project a visible light indication of the space onto at least one of a surface of a workbench and a surface of the workspace in which the workbench is located; and contact a further user to attend to the user performing the task. two workbenches, wherein each workbench comprises a benchtop and a display coupled to the upper surface of the benchtop; a multi-axis robot proximate to a workbench and located between the two workbenches; a visible light projector; a sensor system comprising one or more sensors, the sensor system configured to identify a user in a workspace in which a workbench is located and a controller configured to: based on the identity of the user, determine a task to be performed by the user using the workbench system; and based on the identity of the user and/or the determined task, control one or more properties of a workbench; control the multi-axis robot to move the robot through a space; control the visible light projector to project a visible light indication of the space onto at least one of a surface of a workbench and a surface of the workspace in which the workbench is located; and contact a further user to attend to the user performing the task. based on the identity of the user, determine a task to be performed by the user using the workbench system; and based on the identity of the user and/or the determined task, control one or more properties of a workbench; control the multi-axis robot to move the robot through a space; control the visible light projector to project a visible light indication of the space onto at least one of a surface of a workbench and a surface of the workspace in which the workbench is located; and contact a further user to attend to the user performing the task.
A nacelle (302, 402, 916), comprising an exhaust (400, 1000) and a pylon (312, 516, 904), the exhaust (400, 1000) comprising a nozzle (1002, 411a), the nozzle (1002, 411a) including a curved portion that is configured to shift flow of gas exiting through the exhaust (400, 1000) in a direction that counteracts deflection of the flow by the pylon attached to the nacelle (302, 402, 916), wherein: the nozzle (1002, 411a) is disposed around a body and flow of the gas between the nozzle (1002, 411a) and the body is bounded by an outer flow surface on the nozzle (1002, 411a) and an inner flow surface on the body; a first distance D1 between a first point P1 on the outer flow surface and a second point P2 on the inner flow surface is longer than a second distance D2 between a third point P3 on the outer flow surface and a fourth point P4 on the body; the pylon (312, 516, 904) attached to the nacelle (302, 402, 916), being closer to the first point P1 than the third point P3; and exhaust of the gas outputted from the nozzle (1002, 411a) is shifted in the direction counteracting deflection of the gas away from the pylon (312, 516, 904) and caused by the pylon (312, 516, 904) during flight and/or take-off of an aircraft (900a, 900b) propelled using the nozzle (1002, 411a). the nozzle (1002, 411a) is disposed around a body and flow of the gas between the nozzle (1002, 411a) and the body is bounded by an outer flow surface on the nozzle (1002, 411a) and an inner flow surface on the body; a first distance D1 between a first point P1 on the outer flow surface and a second point P2 on the inner flow surface is longer than a second distance D2 between a third point P3 on the outer flow surface and a fourth point P4 on the body; the pylon (312, 516, 904) attached to the nacelle (302, 402, 916), being closer to the first point P1 than the third point P3; and exhaust of the gas outputted from the nozzle (1002, 411a) is shifted in the direction counteracting deflection of the gas away from the pylon (312, 516, 904) and caused by the pylon (312, 516, 904) during flight and/or take-off of an aircraft (900a, 900b) propelled using the nozzle (1002, 411a).
A method for voice activity detection, the method comprising: - creating a signal indicative of a primary VAD decision; - determining whether a hangover addition of the primary VAD decision is to be performed; - creating a signal indicative of a final VAD decision at least partly depending on a hangover addition determination; wherein determining the hangover addition is based on a short term activity measure and a long term activity measure. - creating a signal indicative of a primary VAD decision; - determining whether a hangover addition of the primary VAD decision is to be performed; - creating a signal indicative of a final VAD decision at least partly depending on a hangover addition determination;
A polymerizable composition comprising: a polymer compound containing a repeating unit represented by the following Formula; a polymerization initiator; and a polymerizable compound wherein the polymerizable compound comprises at least one monofunctional polymerizable compound, and, optionally, at least one multifunctional polymerizable compound, wherein the content of the multifunctional polymerizable compound is 20% by mass or lower with respect to the total amount of the polymerizable compound and wherein the term "multifunctional polymerizable compound" refers to a compound including, in a molecule thereof, at least two radically polymerizable ethylenically unsaturated bonds. wherein the polymerizable compound comprises at least one monofunctional polymerizable compound, and, optionally, at least one multifunctional polymerizable compound, wherein the content of the multifunctional polymerizable compound is 20% by mass or lower with respect to the total amount of the polymerizable compound and wherein the term "multifunctional polymerizable compound" refers to a compound including, in a molecule thereof, at least two radically polymerizable ethylenically unsaturated bonds.
A tissue management system, comprising: (a) a tissue tray configured to collect tissue samples and including a grip defining an opening, wherein the tissue tray includes a plurality of strips, wherein the tissue tray is configured to flex to thereby transition the plurality of strips between an arcuate configuration and a flat configuration; and (b) a tray container having a protrusion, wherein the tray container is configured to receive the tissue tray, wherein the tray container is further configured to receive the tissue tray when the plurality of strips are in the flat configuration, wherein the protrusion is configured for receipt into the opening of the tissue tray to maintain the position of the tissue tray within the tray container. (a) a tissue tray configured to collect tissue samples and including a grip defining an opening, wherein the tissue tray includes a plurality of strips, wherein the tissue tray is configured to flex to thereby transition the plurality of strips between an arcuate configuration and a flat configuration; and (b) a tray container having a protrusion, wherein the tray container is configured to receive the tissue tray, wherein the tray container is further configured to receive the tissue tray when the plurality of strips are in the flat configuration, wherein the protrusion is configured for receipt into the opening of the tissue tray to maintain the position of the tissue tray within the tray container.
A volumetric flow meter comprising: a piston rod including pistons (22, 23) at both ends; cylinders (25, 26) for accommodating the pistons (22, 23) mounted on both ends of the piston rod; cylinder chambers (21f, 21g) drilled on a main body, the cylinder chambers (21f, 21g) separately accommodating the cylinders (25, 26); passages (21d, 21e) separately opening near cylinder chambers (21f, 21g) outside the cylinders (25, 26) to separately communicate with both cylinder chambers (21f, 21g), and being alternately switched to an inflow passage and an outflow passage by a switching valve; and piston covers (29, 30) separately opposing to the cylinder chambers (21f, 21g) and the passages (21d, 21e), characterized in that one or more convex parts (30b, 30e, 30f) are formed on the inner surface of each of the piston covers (29, 30) or on the portions of the main body opposing to the inner surfaces of the piston covers in order to disturb fluid flow between the cylinder chambers and the passages to prevent generation of air reservoirs, whereby the one or more convex parts (30b, 30e, 30f) are located between each passage (21d, 21e) and corresponding cylinder chamber (21f, 21g). a piston rod including pistons (22, 23) at both ends; cylinders (25, 26) for accommodating the pistons (22, 23) mounted on both ends of the piston rod; cylinder chambers (21f, 21g) drilled on a main body, the cylinder chambers (21f, 21g) separately accommodating the cylinders (25, 26); passages (21d, 21e) separately opening near cylinder chambers (21f, 21g) outside the cylinders (25, 26) to separately communicate with both cylinder chambers (21f, 21g), and being alternately switched to an inflow passage and an outflow passage by a switching valve; and piston covers (29, 30) separately opposing to the cylinder chambers (21f, 21g) and the passages (21d, 21e), characterized in that one or more convex parts (30b, 30e, 30f) are formed on the inner surface of each of the piston covers (29, 30) or on the portions of the main body opposing to the inner surfaces of the piston covers in order to disturb fluid flow between the cylinder chambers and the passages to prevent generation of air reservoirs, whereby the one or more convex parts (30b, 30e, 30f) are located between each passage (21d, 21e) and corresponding cylinder chamber (21f, 21g).