mhurhangee/ep-ind-claims huggingface dataset:
A serial controller, adapted to receive an external clock and an input data and output an inverted clock and an output data, comprising: an inverter, adapted to receive the external clock and to output the inverted clock; a synchronous clock generator, adapted to output a synchronous clock (ITLCK) according to a position signal and the external clock, wherein when the position signal is an odd signal, the synchronous clock (ITLCK) and the external clock are in the same phase, and when the position signal is an even signal, the synchronous clock (ITLCK) and the external clock are in the opposite phase; and a serial register, adapted to receive and temporarily store the input data according to the synchronous clock (ITLCK) and then outputting a data; and characterized by comprising: a serial position detector, adapted to output the position signal according to the external clock and the input data, wherein the position signal is the odd signal or the even signal; and a half-cycle delay unit adapted to receive the data from the serial register, to delay the data by a half cycle of the synchronous clock (ITLCK), and then to output the data as the output data. an inverter, adapted to receive the external clock and to output the inverted clock; a synchronous clock generator, adapted to output a synchronous clock (ITLCK) according to a position signal and the external clock, wherein when the position signal is an odd signal, the synchronous clock (ITLCK) and the external clock are in the same phase, and when the position signal is an even signal, the synchronous clock (ITLCK) and the external clock are in the opposite phase; and a serial register, adapted to receive and temporarily store the input data according to the synchronous clock (ITLCK) and then outputting a data; and a serial position detector, adapted to output the position signal according to the external clock and the input data, wherein the position signal is the odd signal or the even signal; and a half-cycle delay unit adapted to receive the data from the serial register, to delay the data by a half cycle of the synchronous clock (ITLCK), and then to output the data as the output data.
A pressure-sensitive adhesive composition comprising a crosslinking agent and an acrylic polymer with a glass transition temperature, measured by a differential scanning calorimeter, according to the method disclosed in the experimental section of this specification, of -60 to 0°C obtained by radical polymerization in an alcohol solvent of an ethylenic unsaturated bond-containing monomer comprising 98.0 to 99.9% by weight of a monomer having one ethylenic unsaturated bond per molecule and 0.1 to 2.0% by weight of a methacrylate monomer having two ethylenic unsaturated bonds per molecule, wherein the acrylic polymer - has two peak tops in a gel permeation chromatography elution curve, - comprises a low-molecular weight component with a weight-average molecular weight, measured by GPC, according to the method disclosed in the experimental section of this specification, of 10,000 to 200,000, and a high-molecular weight component with a weight-average molecular weight, measured by GPC, according to the method disclosed in the experimental section of this specification, of 700,000 to 1,500,000, and - has an area ratio between the low-molecular weight component and the high-molecular weight component in GPC within a range from 65/35 to 80/20, the monomer comprises a monomer having a carboxyl group, and the crosslinking agent comprises at least one compound selected from the group consisting of epoxy compounds and carbodiimide compounds. - has two peak tops in a gel permeation chromatography elution curve, - comprises a low-molecular weight component with a weight-average molecular weight, measured by GPC, according to the method disclosed in the experimental section of this specification, of 10,000 to 200,000, and a high-molecular weight component with a weight-average molecular weight, measured by GPC, according to the method disclosed in the experimental section of this specification, of 700,000 to 1,500,000, and - has an area ratio between the low-molecular weight component and the high-molecular weight component in GPC within a range from 65/35 to 80/20,
Method for automatically carrying out a driving manoeuvre with a motor vehicle, comprising the following steps: (a) detecting the surroundings of the motor vehicle with the aid of a first detection system while driving past a parking space, (b) calculating a trajectory along which the motor vehicle is moved during the driving manoeuvre, this being done using the surroundings data detected in step (a), (c) automatically moving the motor vehicle along the trajectory in order to carry out the driving manoeuvre, the surroundings of the motor vehicle being detected with the aid of a second detection system, differing from the first, while the motor vehicle is moving, characterized in that the data detected by the first detection system in step (a) are transmitted to a portable control unit, and data detected during parking by the second detection system in step (c) are transmitted to the portable control unit, a switch of the portable control unit being actuated without interruption during the parking process, and the motor vehicle being braked directly to a standstill upon release of the switch. (a) detecting the surroundings of the motor vehicle with the aid of a first detection system while driving past a parking space, (b) calculating a trajectory along which the motor vehicle is moved during the driving manoeuvre, this being done using the surroundings data detected in step (a), (c) automatically moving the motor vehicle along the trajectory in order to carry out the driving manoeuvre, the surroundings of the motor vehicle being detected with the aid of a second detection system, differing from the first, while the motor vehicle is moving, characterized in that the data detected by the first detection system in step (a) are transmitted to a portable control unit, and data detected during parking by the second detection system in step (c) are transmitted to the portable control unit, a switch of the portable control unit being actuated without interruption during the parking process, and the motor vehicle being braked directly to a standstill upon release of the switch.
An air outflow device, in particular for a motor vehicle, having at least one fed-in air stream, wherein an outflow characteristic of the air outflow device is changeable between a dispersal characteristic and a spot characteristic, wherein the outflow characteristic is changed by an adjustable swirl on at least one outflowing air stream, wherein the fed-in air stream is divided into at least two partial air streams (9, 10) in order to adjust the swirl and a first partial air stream is a swirl-free core air stream and a second partial air stream is an outer air stream to which an adjustable swirl is applied and the core air stream can be influenced by the outer air stream or the outer air stream can be influenced by the core air stream, wherein the swirl is adjustable by changing the directing of the air and/or a quantity of air and/or an air speed and/or an outflow direction of the at least one outflowing air stream, with at least one air directing device (5, 17) with which the directing of the air and/or the quantity of air and/or the air speed and/or the outflow direction of the outflowing air stream is changeable in order to generate the swirl, characterised in that the air directing device has a helical or spiral region of extended length for generating the second air stream.
Conveying apparatus with a conveying path, designed to supply a plurality of sequential, similar products for consumption having soft parts and intended for processing and oriented longitudinally in the conveying direction, which products each have a variable profile cross-section transverse to the conveying direction and determined by a width and height dimension, with particularly falling or rising soft part areas, to a processing device, comprising at least one conveying section with conveying surfaces (3, 4) that face one another, which are arranged over one another in the dimension corresponding to the height dimension of the products for consumption and, with the application of pressure, come into contact with the products for consumption accommodating them therebetween in such a manner that between the conveying surfaces (3, 4) a conveying intermediate space is formed adapted during conveyance to the form of each profile cross-section of the conveyed products for consumption with a variable conveyor cross-section in the width and height dimension, wherein the one first conveying surface comprises a flexible, surface-deformable conveying cover which comes into contact with the conveyed products for consumption and is movable in the conveying direction by means of a conveyor drive and further comprises a row arrangement of pressure elements that are arranged next to one another in a row directed transverse to the conveying direction, covering each width of the conveying space, stationary on the conveying apparatus, each having a pressure-applying transverse profile extending transverse to the conveying direction, and being held to be displaceable in the height dimension of the conveying intermediate space against a restoring force such that each pressure element co-operates with the surface-deformable conveying cover during the passage of the products for consumption through the conveying path in order to form the variable conveyor cross-section and to work against the products for consumption, wherein pressure elements forming at least a partial row are each designed with a pressure-applying surface that determines the pressure-applying transverse profile, which pressure-applying surface is formed to have a convex profile cross-section over the entire pressure-applying transverse profile in order to apply pressure to the conveying cover and against the passing products for consumption.
An organic light emitting display (OLED) device comprising: a first substrate comprising a pixel region and a non-pixel region; an array of organic light emitting pixels formed over the pixel region; a conductive line formed over the non-pixel region and not overlapping the array; a second substrate placed over the first substrate such that the array and the conductive line are interposed between the first and second substrates (300, 420); and a planarization layer formed over the conductive line with an opening arranged to expose part of the conductive line; characterized by a frit seal interposed between the first and second substrates (300, 420) and surrounding the array, the frit seal interconnecting the first and second substrates (300, 420), the frit seal comprising an eclipsing portion overlapping the conductive line in a segment of the device where the frit seal is formed, wherein the eclipsing portion of the frit seal eclipses the conductive line entirely in the segment when viewed from the second substrate; wherein the frit seal contacts the conductive line through the opening and the frit seal contacts the planarization layer. a first substrate comprising a pixel region and a non-pixel region; an array of organic light emitting pixels formed over the pixel region; a conductive line formed over the non-pixel region and not overlapping the array; a second substrate placed over the first substrate such that the array and the conductive line are interposed between the first and second substrates (300, 420); and a planarization layer formed over the conductive line with an opening arranged to expose part of the conductive line; characterized by a frit seal interposed between the first and second substrates (300, 420) and surrounding the array, the frit seal interconnecting the first and second substrates (300, 420), the frit seal comprising an eclipsing portion overlapping the conductive line in a segment of the device where the frit seal is formed, wherein the eclipsing portion of the frit seal eclipses the conductive line entirely in the segment when viewed from the second substrate; wherein the frit seal contacts the conductive line through the opening and the frit seal contacts the planarization layer.
Method for producing a layer system for thin-film solar cells, wherein a) an absorber layer is produced, wherein the absorber layer contains a chalcopyrite compound semiconductor, and b) a buffer layer is produced on the absorber layer, wherein the buffer layer contains sodium indium sulfide according to the formula Na x In y-x/3 S with 0.063 ≤ x ≤ 0.625 and 0.681 ≤ y ≤ 1.50, wherein the atomic percentage fraction of sodium indium sulfide in the buffer layer is at least 75%, and wherein the buffer layer is produced without deposition of indium sulfide, with at least one ternary sodium thioindate compound being used as a starting source material for producing said buffer layer. a) an absorber layer is produced, wherein the absorber layer contains a chalcopyrite compound semiconductor, and b) a buffer layer is produced on the absorber layer, wherein the buffer layer contains sodium indium sulfide according to the formula Na x In y-x/3 S with 0.063 ≤ x ≤ 0.625 and 0.681 ≤ y ≤ 1.50, wherein the atomic percentage fraction of sodium indium sulfide in the buffer layer is at least 75%, and wherein the buffer layer is produced without deposition of indium sulfide, with at least one ternary sodium thioindate compound being used as a starting source material for producing said buffer layer.
A computer-implemented method comprising: recording data that reflects user interactions with multiple user interface objects of a first user interface; for each interaction, generating a natural language statement that reflects an intent of the interaction with an associated user interface object; storing the natural language statements in a test script; autonomously self-healing the test script for execution on a second user interface, wherein autonomously self-healing the test script comprises comparing a natural language statement, associated with one of the multiple user interface objects of the first user interface and stored in the test script, with a further natural language statement, associated with a dynamic user interface object of the second user interface by a custom library, in order to determine whether the natural language statements are similar, and, if so, mapping the one of the multiple user interface objects of the first user interface to the dynamic user interface object of the second user interface, wherein comparing the natural language statements comprises determining whether verbs in the natural language statements are similar; and executing the autonomously self-healed test script on a second user interface. recording data that reflects user interactions with multiple user interface objects of a first user interface; for each interaction, generating a natural language statement that reflects an intent of the interaction with an associated user interface object; storing the natural language statements in a test script; autonomously self-healing the test script for execution on a second user interface, wherein autonomously self-healing the test script comprises comparing a natural language statement, associated with one of the multiple user interface objects of the first user interface and stored in the test script, with a further natural language statement, associated with a dynamic user interface object of the second user interface by a custom library, in order to determine whether the natural language statements are similar, and, if so, mapping the one of the multiple user interface objects of the first user interface to the dynamic user interface object of the second user interface, wherein comparing the natural language statements comprises determining whether verbs in the natural language statements are similar; and executing the autonomously self-healed test script on a second user interface.
(New) A 2,2',6,6'-tetraisopropyl-4,4'-biphenol lipid microsphere preparation for use in intravenous injections, wherein every 100 ml of said preparation comprises 0.1 to 3 weight % of 2,2',6,6'-tetraisopropyl-4,4"-biphenol, 10 to 30 weight % of soybean oil, 1 to 1.5 weight % of injection-grade egg lecithin, 0.5 to 1 weight % of vitamin E, 0.01 to 1 weight % of sodium hydroxide, 0.1 to 2.5 weight % of glycerin, 0.01 to 1 weight % of EDTA, and the remaining being injection-grade water; and wherein the average particle size is 150 nm to 300 nm.
An R-T-Cu-Mn-B based sintered magnet comprising: 12.0 at% to 15.0 at% of R, which is at least one of the rare-earth elements that include Y and of which at least 50 at% is Pr and/or Nd; 5.5 at% to 6.5 at% of B; 0.08 at% to 0.35 at% of Cu; 0.04 at% to less than 0.15 at% of Mn; at most 2 at% (including 0 at%) of M, which is one, two, or more elements that are selected from the group consisting of Al, Ti, V, Cr, Ni, Zn, Ga, Zr, Nb, Mo, Ag, In, Sn, Hf, Ta, W, Au, Pb and Bi; and T as the balance, which is either Fe alone or Fe and Co and of which at most 20 at% is Co if T includes both Fe and Co. 12.0 at% to 15.0 at% of R, which is at least one of the rare-earth elements that include Y and of which at least 50 at% is Pr and/or Nd; 5.5 at% to 6.5 at% of B; 0.08 at% to 0.35 at% of Cu; 0.04 at% to less than 0.15 at% of Mn; at most 2 at% (including 0 at%) of M, which is one, two, or more elements that are selected from the group consisting of Al, Ti, V, Cr, Ni, Zn, Ga, Zr, Nb, Mo, Ag, In, Sn, Hf, Ta, W, Au, Pb and Bi; and T as the balance, which is either Fe alone or Fe and Co and of which at most 20 at% is Co if T includes both Fe and Co.
A textile device for detecting liquids comprising: - a matrix fabric obtained by knitting; - a first non-insulated conductive wire knitted with said matrix fabric; - a second non-insulated conductive wire knitted with said matrix fabric; - a source of electric energy connected to said non-insulated conductive wires (110,120) in order to create a first electric circuit and to have a potential difference between said non-insulated conductive wires (110,120); - an electrical resistance measuring system configured to measure the electric resistance R in said first electric circuit in such a way that, when said non-insulated conductive wires (110,120) electrically connect by means of a liquid, said electrical resistance measuring system measures a variation of electric resistance R in said first electric circuit; at least one other conductive wire being provided connected to a source of electric energy in order to create a second electric circuit, said electrical resistance measuring system being arranged to measure the electric resistance R in said second electric circuit in such a way that, since said electric resistance R is function of the temperature T, when a variation of temperature T occurs at said matrix fabric, said electrical resistance measuring system measures a variation of electric resistance R in said second electric circuit, said textile device characterized in that said at least one other conductive wire is an insulated conductive wire and is co-knitted with at least one of said non-insulated conductive wires (110,120). - a matrix fabric obtained by knitting; - a first non-insulated conductive wire knitted with said matrix fabric; - a second non-insulated conductive wire knitted with said matrix fabric; - a source of electric energy connected to said non-insulated conductive wires (110,120) in order to create a first electric circuit and to have a potential difference between said non-insulated conductive wires (110,120); - an electrical resistance measuring system configured to measure the electric resistance R in said first electric circuit in such a way that, when said non-insulated conductive wires (110,120) electrically connect by means of a liquid, said electrical resistance measuring system measures a variation of electric resistance R in said first electric circuit; at least one other conductive wire being provided connected to a source of electric energy in order to create a second electric circuit, said electrical resistance measuring system being arranged to measure the electric resistance R in said second electric circuit in such a way that, since said electric resistance R is function of the temperature T, when a variation of temperature T occurs at said matrix fabric, said electrical resistance measuring system measures a variation of electric resistance R in said second electric circuit, said textile device characterized in that said at least one other conductive wire is an insulated conductive wire and is co-knitted with at least one of said non-insulated conductive wires (110,120).
A surgical instrument comprising: an outer tubular member having a proximal section, a distal section, and a central lumen; an inner tubular member rotatably received within the central lumen, a distal end of the inner tubular member forming a cutting member extending distally beyond, and exposed relative to, the distal section; a bearing assembly coupled to the distal section of the outer tubular member and the inner tubular member so as to allow rotation of the inner tubular member relative to the outer tubular member about a central axis of the distal section, characterized by the bearing assembly further including a plurality of balls positioned within a race of the cutting member, to limit axial movement of the cutting member in a direction parallel to the central axis of the distal section; wherein the outer tubular member includes an inner portion and an outer portion; and wherein the plurality of balls are positioned within apertures in the inner portion and are covered by the outer portion. an outer tubular member having a proximal section, a distal section, and a central lumen; an inner tubular member rotatably received within the central lumen, a distal end of the inner tubular member forming a cutting member extending distally beyond, and exposed relative to, the distal section; a bearing assembly coupled to the distal section of the outer tubular member and the inner tubular member so as to allow rotation of the inner tubular member relative to the outer tubular member about a central axis of the distal section, characterized by the bearing assembly further including a plurality of balls positioned within a race of the cutting member, to limit axial movement of the cutting member in a direction parallel to the central axis of the distal section; wherein the outer tubular member includes an inner portion and an outer portion; and wherein the plurality of balls are positioned within apertures in the inner portion and are covered by the outer portion.
An electric supply line for disposal in an environment sensitive to magnetic fields, in particular a towed antenna, including sonar sensors (98, 100) and magnetic field sensors (86 - 96), of a watercraft, wherein this supply line includes at least one forward conductor (14, 14') and at least one return conductor (26, 26') and is configured such that both conductors (14, 14', 26, 26') each include a plurality of conductor paths (4-12, 16 - 24, 66 - 72, 74 - 80), wherein all conductor paths (4 - 12, 16 - 24, 66 - 72, 74 - 80) are disposed at least locally parallel to one another and here the conductor paths (4, 18, 8, 22, 12; 16, 6, 20, 10, 24; 66, 76, 70, 80; 74, 68, 78, 72) of the different conductors (14, 14', 26, 26') are disposed mixed among one another such that in the case that these conductors (14, 14', 26, 26') are flowed-through by electrical currents in opposing flow directions the magnetic fields of all conductor paths (4 - 12, 16 - 24, 66 - 72, 74 - 80) in the vicinity of the supply line, which magnetic fields are generated by these electrical currents, compensate for one another, in particular partially or completely cancel one another out, characterised by at least one flexible conductor plate (2, 56, 58, 60, 62, 64), in particular flex-conductor plates including at least one plane (28, 30, 28' 30'), wherein the conductor paths (4, 18, 8, 22, 12; 16, 6, 20, 10, 24; 66, 76, 70, 80; 74, 68, 78, 72) are disposed adjacent to one another.