mhurhangee/ep-ind-claims huggingface dataset:
A method for manufacturing a thin film transistor array substrate in which only three patterning processes are needed, the method comprising: a first patterning process (step 101), in which a pattern of a pixel electrode formed by a first transparent conductive layer and patterns of a drain electrode and a source electrode that are separated from each other and a data line, which are formed by a first metal layer, are formed on a transparent substrate; a second patterning process (step 102) comprising: sequentially depositing a transparent oxide layer and a gate insulating layer on the transparent substrate subjected to the first patterning process (step 101); coating a photoresist layer on the gate insulating layer; etching after exposure and development are performed on the photoresist layer with a double-tone mask, so as to form the pattern of the gate insulating layer; and etching again after an ashing process is performed on the photoresist layer, so as to form the pattern of the active layer; and a third patterning process (step 103), in which a pattern of a common electrode formed by a second transparent conductive layer and patterns of a gate electrode and a gate line which are formed by a second metal layer are formed on the transparent substrate subjected to the second patterning process (step 102). a first patterning process (step 101), in which a pattern of a pixel electrode formed by a first transparent conductive layer and patterns of a drain electrode and a source electrode that are separated from each other and a data line, which are formed by a first metal layer, are formed on a transparent substrate; a second patterning process (step 102) comprising: sequentially depositing a transparent oxide layer and a gate insulating layer on the transparent substrate subjected to the first patterning process (step 101); coating a photoresist layer on the gate insulating layer; etching after exposure and development are performed on the photoresist layer with a double-tone mask, so as to form the pattern of the gate insulating layer; and etching again after an ashing process is performed on the photoresist layer, so as to form the pattern of the active layer; and a third patterning process (step 103), in which a pattern of a common electrode formed by a second transparent conductive layer and patterns of a gate electrode and a gate line which are formed by a second metal layer are formed on the transparent substrate subjected to the second patterning process (step 102).
Light-influencing element with means for evenly distributing the light emitted by a light source arranged at a distance from the light-influencing element, and further means through which the light-radiating area of the light-influencing element is divided into at least two different regions (11, 12) having different light-influencing properties, wherein the light-influencing element consists of several sheets or boards arranged sandwich-like or in layers, and wherein the further means for dividing the light-radiating area are formed in such a way that light is directed and subjected to glare-suppression via a first region and emitted diffusely via a second region, wherein the two regions (11, 12) are optically separated from one another and the first region preferably arranged in the center of the light-influencing element and the second region in the peripheral regions of the light-influencing element, characterized in that the further means for dividing the light-radiating area consist of a board or sheet with prism structures, especially micro prism structures, and a diffuse sheet, wherein the diffuse sheet is merely arranged in the second region, or in that the further means for dividing the light-radiating area consist of a board or sheet, which has prism structures, especially micro prism structures, in the first region, and in the second region has a structure through which light is emitted in a diffuse manner.
An electrolytic oxide reduction system, comprising: an electrolyte container containing an electrolyte; at least one modular anode assembly supported above the electrolyte container and extending into the electrolyte; and at least one modular cathode assembly (1300, 300) supported above the electrolyte container and extending into the electrolyte, the modular cathode assembly (1300, 300), comprising: a basket holding a solid material to be reduced, the basket including a permeable surface permitting a fluid electrolyte to pass through the basket, the basket being electrically conductive; a cathode plate extending into the basket, the cathode plate being electrically insulated from the basket, except for indirect current flow from/into the cathode plate into/from the electrolyte or the solid material to be reduced, the cathode plate being electrically conductive. an electrolyte container containing an electrolyte; at least one modular anode assembly supported above the electrolyte container and extending into the electrolyte; and at least one modular cathode assembly (1300, 300) supported above the electrolyte container and extending into the electrolyte, the modular cathode assembly (1300, 300), comprising: a basket holding a solid material to be reduced, the basket including a permeable surface permitting a fluid electrolyte to pass through the basket, the basket being electrically conductive; a cathode plate extending into the basket, the cathode plate being electrically insulated from the basket, except for indirect current flow from/into the cathode plate into/from the electrolyte or the solid material to be reduced, the cathode plate being electrically conductive. a basket holding a solid material to be reduced, the basket including a permeable surface permitting a fluid electrolyte to pass through the basket, the basket being electrically conductive; a cathode plate extending into the basket, the cathode plate being electrically insulated from the basket, except for indirect current flow from/into the cathode plate into/from the electrolyte or the solid material to be reduced, the cathode plate being electrically conductive.
A ferritic stainless steel having a composition consisting of, in terms of % by mass, C: 0.015% or less, Si: 0.50% to 0.90%, Mn: 1.0% or less, P: 0.040% or less, S: 0.010% or less, Cr: 12.0% to 20.0%, Al: 0.2% to 1.0%, N: 0.015% or less, Cu: 1.2% to 1.6%, Nb: 0.40% to 0.50%, Ti: 0.50% or less, O: 0.0030% or less, optionally at least one element selected from the group consisting of B: 0.0030% or less, REM: 0.080% or less, Zr: 0.50% or less, V: 0.50% or less, Co: 0.50% or less, and Ni: 0.50% or less, optionally at least one element selected from the group consisting of Ca: 0.0050% or less and Mg: 0.0050% or less, optionally Mo: 0.1% to 1.0%, and the balance being Fe and unavoidable impurities, wherein a Si content and an Al content satisfy Si ≥ Al, and the Al content and an O content satisfy Al/O ≥ 100.
Pump chamber for a dispenser, for example a dispenser for liquid or pasty substances, comprising a valve body (17, 18), the valve body (17, 18) consisting of a soft plastics material and being received in a receiving body (19, 20) that is formed of a hard plastics material, comprising a cup wall of the valve body that is in contact, in a resiliently flexible manner, with an inner surface of a receiving wall of the receiving body which is formed as a receiving cup (19, 20), a fluid passage (21, 23) also being provided in the receiving wall, characterised in that the cup-shaped valve body (17, 18) is in contact with an inner surface of the receiving cup by its outer surface in its cup-shaped or goblet-shaped region provided by the cup wall.
A rail loading and unloading machine comprising: a pick-up car comprising a rail lifting and manipulating apparatus that picks up a rail from a ground surface adjacent the machine; a cross-over car comprising a main drive unit that receives the rail from said rail lifting and manipulating apparatus and drives the rail toward a rail transport car; and a processing car comprising a cutting station useable to cut the rail transverse to the length of the rail to form a first section of rail and a second section of rail; a drill station configured to drill a hole through adjacent ends of a third section of rail and a fourth section of rail; and a secondary drive unit that drives the rail toward said rail transport car, said secondary drive unit being located opposite said cutting station and said drill station from said main drive unit to enable said main drive unit to drive the first section of rail and said secondary drive unit to drive the second section of rail when the rail is cut by said cutting station and to enable said main drive unit to drive the third section of rail and said secondary drive unit to drive the fourth section of rail to position adjacent ends thereof at said drill station. a pick-up car comprising a rail lifting and manipulating apparatus that picks up a rail from a ground surface adjacent the machine; a cross-over car comprising a main drive unit that receives the rail from said rail lifting and manipulating apparatus and drives the rail toward a rail transport car; and a processing car comprising a cutting station useable to cut the rail transverse to the length of the rail to form a first section of rail and a second section of rail; a drill station configured to drill a hole through adjacent ends of a third section of rail and a fourth section of rail; and a secondary drive unit that drives the rail toward said rail transport car, said secondary drive unit being located opposite said cutting station and said drill station from said main drive unit to enable said main drive unit to drive the first section of rail and said secondary drive unit to drive the second section of rail when the rail is cut by said cutting station and to enable said main drive unit to drive the third section of rail and said secondary drive unit to drive the fourth section of rail to position adjacent ends thereof at said drill station.
An inner lining for a bodywork of a motor vehicle, comprising a main wall intended to be mounted against a lining of an outer element of the bodywork, said lining having at least one edge intended to form, with said element, a junction rebate supporting a seal with a leaf of said bodywork; said wall comprising an insertion edge intended to be inserted into a groove of said seal, an inner face and an outer face; the lining further comprising, on at least one of the inner and outer faces of the main wall, at the level of the insertion edge in the seal, at least one boss capable of engaging with a shoulder (11A.1) in the groove of the seal, characterized in that the lining comprises in addition, ribs extending transversely on the inner face of the main wall, from the insertion edge in the seal, several of the bosses being formed on the ribs, respectively.
A process of forming a dielectric thin film comprising: preparing a composition consisting of Ba 1-x Sr x Ti y O 3 obtained by dissolving an organic barium compound, an organic strontium compound and a titanium alkoxide in an organic solvent at a molar ratio of Ba: Sr: Ti of 1-x:x:y; coating and drying onto a support the composition to form a coated film; and baking the support on which the coated film has been formed for forming a Ba 1-x Sr x Ti y O 3 thin film, wherein the process from coating to baking is carried out two to nine times, the thickness of the thin film formed after initial baking is 20 nm to 80 nm, the thickness of each thin film formed after the second baking and beyond is 20 nm to less than 200 nm, each baking from the first time to the second to ninth times is carried out by heating to a prescribed temperature within a range of 500°C to 800°C at a heating rate of 1 °C to 50°C/minute in an atmosphere at atmospheric pressure, the total thickness of the dielectric thin film is 100 nm to 600 nm, the values of x and y indicating the composition of the dielectric thin film are such that 0.2 < x < 0.6 and 0.9 < y < 1. 1, the organic barium compound and the organic strontium compound are metal salts of a carboxylic acid represented by the general formula C n H 2n+1 COOH whereby 3 ≤ n ≤ 7; and the metal salts of the carboxylic acid have a structure shown in a following formula: wherein in the formula R 1 to R 6 represent hydrogen atoms, methyl groups or ethyl groups, and M represents Ba or Sr. preparing a composition consisting of Ba 1-x Sr x Ti y O 3 obtained by dissolving an organic barium compound, an organic strontium compound and a titanium alkoxide in an organic solvent at a molar ratio of Ba: Sr: Ti of 1-x:x:y; coating and drying onto a support the composition to form a coated film; and baking the support on which the coated film has been formed for forming a Ba 1-x Sr x Ti y O 3 thin film, wherein the process from coating to baking is carried out two to nine times, the thickness of the thin film formed after initial baking is 20 nm to 80 nm, the thickness of each thin film formed after the second baking and beyond is 20 nm to less than 200 nm, each baking from the first time to the second to ninth times is carried out by heating to a prescribed temperature within a range of 500°C to 800°C at a heating rate of 1 °C to 50°C/minute in an atmosphere at atmospheric pressure, the total thickness of the dielectric thin film is 100 nm to 600 nm, the values of x and y indicating the composition of the dielectric thin film are such that 0.2 < x < 0.6 and 0.9 < y < 1. 1, the organic barium compound and the organic strontium compound are metal salts of a carboxylic acid represented by the general formula C n H 2n+1 COOH whereby 3 ≤ n ≤ 7; and the metal salts of the carboxylic acid have a structure shown in a following formula: wherein in the formula R 1 to R 6 represent hydrogen atoms, methyl groups or ethyl groups, and M represents Ba or Sr.
A catheter assembly for placement in a body of a patient, comprising: an elongate catheter tube, the catheter tube defining at least one lumen; a valve defined in the catheter tube configured to selectively enable fluids to pass therethrough; and a conductive element that provides an electrically conductive pathway between the at least one lumen and an exterior portion of the catheter, the conductive element including: a distal plug and a conduit extending longitudinally through the distal plug, a wick extending through a closed distal end of the catheter tube from the lumen to an external surface of the catheter and being disposed in the conduit, the wick capable of wicking up conductive fluid disposed in the at least one lumen. an elongate catheter tube, the catheter tube defining at least one lumen; a valve defined in the catheter tube configured to selectively enable fluids to pass therethrough; and a conductive element that provides an electrically conductive pathway between the at least one lumen and an exterior portion of the catheter, the conductive element including: a distal plug and a conduit extending longitudinally through the distal plug, a wick extending through a closed distal end of the catheter tube from the lumen to an external surface of the catheter and being disposed in the conduit, the wick capable of wicking up conductive fluid disposed in the at least one lumen. a distal plug and a conduit extending longitudinally through the distal plug, a wick extending through a closed distal end of the catheter tube from the lumen to an external surface of the catheter and being disposed in the conduit, the wick capable of wicking up conductive fluid disposed in the at least one lumen.
Control module, comprising a printed circuit board, which is at least partially accessible from the outside and has conductor tracks (41, 42, 43) that are routed on at least one layer of the printed circuit board and are intended for the electrical connection of a carrier substrate of an electronic control circuit to electrical/electronic components (7, 8) arranged outside the carrier substrate on the printed circuit board, the printed circuit board having at least one inner conductor track layer, which is arranged as an intermediate layer between two insulating layers (23, 24) of the printed circuit board, wherein, at least on a first side of the printed circuit board, a first outer insulating layer is provided with a recess, on the base of which at least surfaces of conductor track portions (41a, 42a) of conductor tracks (41, 42) of the at least one inner conductor track layer are arranged, in that the carrier substrate is inserted into the recess from the first side of the printed circuit board and brought into electrical contact with the surfaces of the conductor track portions (41a, 42a) of the inner conductor track layer, and in that the recess is filled with a molding compound, covering at least the carrier substrate and the conductor track portions (41a, 42a), in such a way that the carrier substrate and the conductor track portions (41a, 42a) are protected by the molding compound characterized in that the control module is a transmission control module, in that the printed circuit board can be exposed to a transmission fluid, in that the control circuit is a transmission control circuit, in that the carrier substrate and the conductor track portions (41a, 42a) are protected from transmission fluid by the molding compound and in that, on the second side of the printed circuit board, facing away from the first side, a second outer insulating layer is provided with a second recess, which is taken through to a rear side of the carrier substrate that is facing away from the first side of the printed circuit board and is loaded with components (37, 38, 39), and in that the second recess on the second side of the printed circuit board is filled with a molding compound covering the rear side of the carrier substrate in such a way that the rear side of the carrier substrate is protected from transmission fluid by the molding compound.
An acoustic analysis device based on atomic force microscopy for the volume analysis of an organic or inorganic sample comprising: - a support on which the sample is immobilized, - an atomic force microscopy measurement lever (1, 1a) having a free end provided with a point intended to interact with an upper face of the sample and scan said upper face, - at least two independent piezoelectric actuators mounted on mechanical supports and furnishing ultrasound waves generating multimodal interference coupling, - acoustic measurement and analysis members associated with the measurement lever (1, 1a), to deliver results related to the volume characterization of the sample, comprising a laser diode that emits a light ray towards the lever (1, 1a) and a photodetector that receives said light ray after reflection on the lever (1, 1a), wherein: - the support comprises a total-reflection prism, comprising one face on which the sample is disposed and at least one opposite face, different from the face on which the sample is disposed, against which the piezoelectric actuators are applied and does so at preset positions on said prism to define set angles of excitation of ultrasound waves, said angles of excitation being the angles between the at least one face of the prism on which the piezoelectric actuators are affixed and the face of the prism on which the sample is affixed. - a support on which the sample is immobilized, - an atomic force microscopy measurement lever (1, 1a) having a free end provided with a point intended to interact with an upper face of the sample and scan said upper face, - at least two independent piezoelectric actuators mounted on mechanical supports and furnishing ultrasound waves generating multimodal interference coupling, - acoustic measurement and analysis members associated with the measurement lever (1, 1a), to deliver results related to the volume characterization of the sample, comprising a laser diode that emits a light ray towards the lever (1, 1a) and a photodetector that receives said light ray after reflection on the lever (1, 1a), wherein: - the support comprises a total-reflection prism, comprising one face on which the sample is disposed and at least one opposite face, different from the face on which the sample is disposed, against which the piezoelectric actuators are applied and does so at preset positions on said prism to define set angles of excitation of ultrasound waves, said angles of excitation being the angles between the at least one face of the prism on which the piezoelectric actuators are affixed and the face of the prism on which the sample is affixed. - the support comprises a total-reflection prism, comprising one face on which the sample is disposed and at least one opposite face, different from the face on which the sample is disposed, against which the piezoelectric actuators are applied and does so at preset positions on said prism to define set angles of excitation of ultrasound waves, said angles of excitation being the angles between the at least one face of the prism on which the piezoelectric actuators are affixed and the face of the prism on which the sample is affixed.
An antimony-free glass comprising: V 2 O 5 ≥ 30 and ≤ 60 mole %; P 2 O 5 ≥ 5 mole % and ≤ 20 mole %; ZnO 0 - 10 mole %; Bi 2 O 3 0 - 5 mole %; Fe 2 O 3 ≥ 10 mole % and ≤ 25 mole %; TiO 2 ≥ 5 mole % and ≤ 20 mole %; TeO 2 ≥ 5 mole % and ≤ 20 mole %; and wherein TiO 2 + Fe 2 O 3 is in a range from 20 mole % to 35 mole %.
Drilling tool for producing a bore in the ground, comprising - a rotatably drivable basic body, - a removal means at a lower end of the basic body for removing soil material, and - at least one adjustable removal element which is adjustable between a radially internal retraction position and a radially external extension position in which the removal element protrudes radially outwards relative to the basic body to widen a bore diameter, - wherein for adjusting the removal element there is provided an adjustment mechanism with a rotary member which is rotatable on the basic body about the drilling axis between a first rotary position and a second rotary position, - wherein the at least one removal element is arranged on a pivot arm which, relative to the basic body, is pivotable between a first pivoting position, in which the at least one removal element is in its retraction position, and a second pivoting position, in which the at least one removal element is in its extension position, and - wherein there is provided on the rotary member an actuating cam by which a rotary movement of the rotary member can be converted into a pivoting movement of the at least one pivot arm, characterised in that the at least one actuating cam is configured as a pin, in that the actuating cam which is configured as a pin is attached to the rotary member, and in that on the at least one pivot arm there is formed a link hole in which the pin engages. - a rotatably drivable basic body, - a removal means at a lower end of the basic body for removing soil material, and - at least one adjustable removal element which is adjustable between a radially internal retraction position and a radially external extension position in which the removal element protrudes radially outwards relative to the basic body to widen a bore diameter, - wherein for adjusting the removal element there is provided an adjustment mechanism with a rotary member which is rotatable on the basic body about the drilling axis between a first rotary position and a second rotary position, - wherein the at least one removal element is arranged on a pivot arm which, relative to the basic body, is pivotable between a first pivoting position, in which the at least one removal element is in its retraction position, and a second pivoting position, in which the at least one removal element is in its extension position, and - wherein there is provided on the rotary member an actuating cam by which a rotary movement of the rotary member can be converted into a pivoting movement of the at least one pivot arm, the at least one actuating cam is configured as a pin, in that the actuating cam which is configured as a pin is attached to the rotary member, and in that on the at least one pivot arm there is formed a link hole in which the pin engages.