mhurhangee/ep-ind-claims huggingface dataset:
An apparatus, comprising: a processor to receive an incoming data stream that includes alpha channel data; and a memory to store an application programming interface; wherein the API is to: route the alpha channel data to a fixed point blending unit to perform one or more blending operations using a fixed point representation of the alpha channel data; and the apparatus being characterised in that the API is further to route the incoming data stream to a floating point blending unit to perform operations involving a floating point representation of the incoming data, and in that a multiplexer combines an output of the fixed point blending unit with an output of the floating point blending unit to provide output data that includes blending data processed by the fixed point blending unit. a processor to receive an incoming data stream that includes alpha channel data; and a memory to store an application programming interface; wherein the API is to: route the alpha channel data to a fixed point blending unit to perform one or more blending operations using a fixed point representation of the alpha channel data; and the apparatus being characterised in that the API is further to route the incoming data stream to a floating point blending unit to perform operations involving a floating point representation of the incoming data, and in that a multiplexer combines an output of the fixed point blending unit with an output of the floating point blending unit to provide output data that includes blending data processed by the fixed point blending unit. route the alpha channel data to a fixed point blending unit to perform one or more blending operations using a fixed point representation of the alpha channel data; and the apparatus being characterised in that the API is further to route the incoming data stream to a floating point blending unit to perform operations involving a floating point representation of the incoming data, and in that a multiplexer combines an output of the fixed point blending unit with an output of the floating point blending unit to provide output data that includes blending data processed by the fixed point blending unit.
A method for producing a molded part assembly from a first plastic molded part and from a second plastic molded part by laser welding, whereby the first plastic molded part consists at least partially of a first material and the second plastic molded part consists at least partially of a second material which can be welded to the first material, whereby a welding region of the second plastic molded part is arranged in a stepped receiving means of the first plastic molded part or vice versa, whereby the plastic molded parts (3, 4) are each present as a fluid line element, whereby a first welding surface of the first plastic molded part which welding surface is located at least with a partial surface in the first rotational surface and faces the second plastic molded part is formed in the receiving means, and a front-side, second welding surface located in the second rotational surface and facing the first plastic molded part is formed on the second plastic molded part, and whereby the first plastic molded part and the second plastic molded part are shifted onto one another in the shifting direction during the laser welding, whereby the first welding surface and the second welding surface contact one another or are supported on one another by an insertion part, and whereby a laser beam used for the laser welding is directed inward or outward in a radial direction, characterized in that the second plastic molded part is formed in several layers, wherein the layers (18, 19, 20) of the second plastic molded part consist of different materials and the second welding surface is formed by only a subset of the layers (18, 19, 20).
A method for producing high-purity hydrogen chloride with a purity of 99.9% or higher, comprising the steps of: purifying each of crude hydrogen and crude chlorine as raw materials to a purity of 99.999% or higher, wherein purifying the crude hydrogen is performed by removing water and oxygen from the crude hydrogen using a catalyst and an adsorbent, and purifying the crude chlorine is performed by subjecting the crude chlorine gas to a first adsorption process to remove water, subjecting the crude chlorine to a first low-temperature distillation process to remove metal components, and then subjecting the crude chlorine to a second low-temperature distillation process to remove gas components other than chlorine; reacting an excessive molar amount of the purified hydrogen with the purified chlorine at a temperature ranging from 1,200 °C to 1,400 °C to synthesize hydrogen chloride; converting the hydrogen chloride to a liquid state by compression; and purifying the hydrogen chloride and separating unreacted hydrogen by fractional distillation. purifying each of crude hydrogen and crude chlorine as raw materials to a purity of 99.999% or higher, wherein purifying the crude hydrogen is performed by removing water and oxygen from the crude hydrogen using a catalyst and an adsorbent, and purifying the crude chlorine is performed by subjecting the crude chlorine gas to a first adsorption process to remove water, subjecting the crude chlorine to a first low-temperature distillation process to remove metal components, and then subjecting the crude chlorine to a second low-temperature distillation process to remove gas components other than chlorine; reacting an excessive molar amount of the purified hydrogen with the purified chlorine at a temperature ranging from 1,200 °C to 1,400 °C to synthesize hydrogen chloride; converting the hydrogen chloride to a liquid state by compression; and purifying the hydrogen chloride and separating unreacted hydrogen by fractional distillation.
A decorated resin molded article, comprising: a substrate having a design surface provided with a metallic decoration, the substrate being constituted by a resin molded article; a metal thin film providing the metallic decoration on the design surface, the metal thin film being directly formed on the substrate and having communication holes communicating through the metal thin film through which components of the topcoat layer can penetrate. a topcoat layer having a thickness of 10 to 40 μm formed on the metal thin film, the topcoat layer being constituted by a transparent coating film that adheres to both the substrate and the metal thin film, wherein a component of the topcoat layer penetrates into the metal thin film through the communication holes, allowing the topcoat layer to adhere to both the metal thin film and the substrate. a substrate having a design surface provided with a metallic decoration, the substrate being constituted by a resin molded article; a metal thin film providing the metallic decoration on the design surface, the metal thin film being directly formed on the substrate and having communication holes communicating through the metal thin film through which components of the topcoat layer can penetrate. a topcoat layer having a thickness of 10 to 40 μm formed on the metal thin film, the topcoat layer being constituted by a transparent coating film that adheres to both the substrate and the metal thin film, wherein a component of the topcoat layer penetrates into the metal thin film through the communication holes, allowing the topcoat layer to adhere to both the metal thin film and the substrate.
A paper sheet storage mechanism for storing paper sheets into a storage bag having an opening at one end thereof, the paper sheet storage mechanism comprising: a pair of holding members configured to hold an upper portion, near the opening, of the storage bag; a paper sheet sending unit configured to send paper sheets into the storage bag held by the holding members to store the paper sheets into the storage bag; a stage element configured to be movable in a vertical direction and on which a bottom portion of the storage bag held by the holding members is placed, a pressing plate configured to advance into the storage bag held by the holding members and press the bottom portion of the storage bag from inside toward the stage elements so that the paper sheets sent from the paper sheet sending unit are stackable on the bottom portion of the storage bag placed on the stage element; a driving unit configured to drive the pressing plate; and a control unit, characterized in that the control unit is configured to control the driving unit such that after the storage bag being empty has held by the holding members, the pressing plate advances into the held empty storage bag and presses the bottom portion of the held empty storage bag toward the stage elements before the paper sheets are sent into the held empty storage bag by the paper sheet sending unit, wherein the bottom portion of the storage bag is formed into a flat shape. a pair of holding members configured to hold an upper portion, near the opening, of the storage bag; a paper sheet sending unit configured to send paper sheets into the storage bag held by the holding members to store the paper sheets into the storage bag; a stage element configured to be movable in a vertical direction and on which a bottom portion of the storage bag held by the holding members is placed, a pressing plate configured to advance into the storage bag held by the holding members and press the bottom portion of the storage bag from inside toward the stage elements so that the paper sheets sent from the paper sheet sending unit are stackable on the bottom portion of the storage bag placed on the stage element; a driving unit configured to drive the pressing plate; and a control unit, characterized in that the control unit is configured to control the driving unit such that after the storage bag being empty has held by the holding members, the pressing plate advances into the held empty storage bag and presses the bottom portion of the held empty storage bag toward the stage elements before the paper sheets are sent into the held empty storage bag by the paper sheet sending unit, wherein the bottom portion of the storage bag is formed into a flat shape.
A method for commanding the operation of a motorised drive device, the motorised drive device comprising at least: - an electrical energy supply device, - an electromechanical actuator, and - a command unit (12, 13), the electrical energy supply device comprising at least: - a battery, and - an electrical energy source, the electrical energy source being configured to charge the battery, the electromechanical actuator comprising at least: - an electric motor, the electric motor comprising a plurality of windings, - an output shaft, and - an electronic control unit, the method comprising at least: - a first step of determining a value of a first physical quantity representative of the operation of the motorised driving device, and - a first step of comparing the value of the first physical quantity with a first predetermined threshold value, characterised in that the method comprises, as a function of the result of the first comparison step, a load-shedding step in which the windings of the electric motor are supplied with electrical energy from the battery, while keeping the output shaft stationary, if the value of the first physical quantity is greater than or equal to the first predetermined threshold value and if no command order is received by the electronic control unit from the command unit (12, 13). - an electrical energy supply device, - an electromechanical actuator, and - a command unit (12, 13), - a battery, and - an electrical energy source, the electrical energy source being configured to charge the battery, - an electric motor, the electric motor comprising a plurality of windings, - an output shaft, and - an electronic control unit, - a first step of determining a value of a first physical quantity representative of the operation of the motorised driving device, and - a first step of comparing the value of the first physical quantity with a first predetermined threshold value,
A method operable at user equipment, UE, for receiving a joint transport block transmission, the method comprising: determining a transport block size, TBS, for receiving a joint transport block, TB, transmission of data from a plurality of transmission points, TRPs, wherein the determining the TBS includes: receiving downlink control information, DCI, from a TRP of the plurality of TRPs; determining whether the TRP is a master TRP or a slave TRP based on at least one of: an indication included in the DCI, or a cyclic redundancy check, CRC, mask used for the DCI; determining the TBS based on the DCI if the DCI indicates that the TRP is the master TRP; and discarding the DCI if the DCI indicates that the TRP is the slave TRP; receiving transport blocks corresponding to the joint TB transmission, each transport block from a respective one of the plurality of TRPs; combining the transport blocks when a size of each of the transport blocks is the determined TBS; and recovering the data based on the combined transport blocks. receiving downlink control information, DCI, from a TRP of the plurality of TRPs; determining whether the TRP is a master TRP or a slave TRP based on at least one of: an indication included in the DCI, or a cyclic redundancy check, CRC, mask used for the DCI; an indication included in the DCI, or a cyclic redundancy check, CRC, mask used for the DCI; determining the TBS based on the DCI if the DCI indicates that the TRP is the master TRP; and discarding the DCI if the DCI indicates that the TRP is the slave TRP; receiving transport blocks corresponding to the joint TB transmission, each transport block from a respective one of the plurality of TRPs; combining the transport blocks when a size of each of the transport blocks is the determined TBS; and recovering the data based on the combined transport blocks.
An IL13Rα2-specific chimeric antigen receptor comprising: an ectodomain comprising each of the amino acid sequences of: (i) NYLMN (SEQ ID NO: 1); (ii) RIDPYDGDIDYNQNFKD (SEQ ID NO: 2); GYGTAYGVDY (SEQ ID NO: 3); (iv) RASESVDNYGISFMN (SEQ ID NO: 4); (v) AASRQGSG (SEQ ID NO: 5); and (vi) QQSKEVPWT (SEQ ID NO: 6); a spacer region; a transmembrane domain; and an endodomain selected from the group consisting of CD3.ζ, CD28.ζ, CD28.OX40.ζ, CD28.41BB.ζ and 41BB.ζ. an ectodomain comprising each of the amino acid sequences of: (i) NYLMN (SEQ ID NO: 1); (ii) RIDPYDGDIDYNQNFKD (SEQ ID NO: 2); GYGTAYGVDY (SEQ ID NO: 3); (iv) RASESVDNYGISFMN (SEQ ID NO: 4); (v) AASRQGSG (SEQ ID NO: 5); and (vi) QQSKEVPWT (SEQ ID NO: 6); (i) NYLMN (SEQ ID NO: 1); (ii) RIDPYDGDIDYNQNFKD (SEQ ID NO: 2); GYGTAYGVDY (SEQ ID NO: 3); (iv) RASESVDNYGISFMN (SEQ ID NO: 4); (v) AASRQGSG (SEQ ID NO: 5); and (vi) QQSKEVPWT (SEQ ID NO: 6); a spacer region; a transmembrane domain; and an endodomain selected from the group consisting of CD3.ζ, CD28.ζ, CD28.OX40.ζ, CD28.41BB.ζ and 41BB.ζ.
A negative electrode for an alkali secondary battery, comprising: a negative electrode core body; and a negative electrode mixture held on the negative electrode core body, wherein the negative electrode mixture comprises a hydrogen absorbing alloy powder composed of a particle of a hydrogen absorbing alloy, a powder of an electroconductive agent, and a powder of a negative electrode additive; the electroconductive agent is a hollow carbon black whose primary particle has a hollow-shell structure; and the negative electrode additive is a fluorine-containing anionic surfactant, wherein the powder of the electroconductive agent composed of the hollow carbon black is added in an amount of 0.25 parts by mass or more and 0.5 parts by mass or less based on 100 parts by mass of the hydrogen absorbing alloy powder. a negative electrode core body; and a negative electrode mixture held on the negative electrode core body, wherein the negative electrode mixture comprises a hydrogen absorbing alloy powder composed of a particle of a hydrogen absorbing alloy, a powder of an electroconductive agent, and a powder of a negative electrode additive; the electroconductive agent is a hollow carbon black whose primary particle has a hollow-shell structure; and the negative electrode additive is a fluorine-containing anionic surfactant, wherein the powder of the electroconductive agent composed of the hollow carbon black is added in an amount of 0.25 parts by mass or more and 0.5 parts by mass or less based on 100 parts by mass of the hydrogen absorbing alloy powder.
A cover sheet comprising: an air mover; a first layer comprising a vapor permeable material; a second layer configured to wick fluid toward a perimeter of the cover sheet; and a third layer comprising a spacer material, wherein: the second layer is between the first layer and the third layer; the air mover is configured to create air flow through the spacer material. an air mover; a first layer comprising a vapor permeable material; a second layer configured to wick fluid toward a perimeter of the cover sheet; and a third layer comprising a spacer material, wherein: the second layer is between the first layer and the third layer; the air mover is configured to create air flow through the spacer material. the second layer is between the first layer and the third layer; the air mover is configured to create air flow through the spacer material.
Ladder assembly on the exterior of a building, comprising a ladder which is composed of a lower ladder portion and an upper ladder portion connected in an articulated manner to this lower ladder portion and which is mounted on a bracket so as to be pivotable at its upper end and can be pivoted by means of a pivot drive between a pivoted-down operative position supported on the ground side and a pivoted-up non-operative position, and comprising a support for the ladder pivoted overhead to the non-operative position, wherein the lower ladder portion is held with respect to the upper ladder portion so as to be able to freely rotate via an articulated spindle between a stop-limited extended position and a position lying against the upper ladder portion and has at least one sliding body as a ground support, wherein the lower ladder portion has ground rollers as the sliding body, characterised in that the ground support is arranged on the front side of the ladder, facing in the extended position towards the user, at a spaced interval (a) from the plane extending through the centre of gravity and the articulated spindle of the lower ladder portion.
A battery adapter (20; 40; 50) comprising a plurality of machine-side-connecting sections (22c, 22d) that can be connected to a plurality of battery-connecting ports (127c, 127d) provided on an electric machine and comprising a battery-side-connecting section that can be connected to a battery (30; 60) such that the electric machine is drivable by the battery (30; 60) when the electric machine is connected to the machine-side-connecting sections (22c, 22d) of the battery adapter (20; 40; 50) via the battery-connecting ports (127c, 127d) of the electric machine and the battery (30; 60) is connected to the battery-side-connecting section of the battery adapter (20; 40; 50), wherein each of the machine-side-connecting sections (22c, 22d) comprises a positive terminal and a negative terminal and the battery-side-connecting section comprises a positive terminal and a negative terminal.
Device for gripping a container preform, which comprises: - a base; - a spinner which is mounted on the base and which comprises: o a spindle mounted so as to slide and pivot relative to the base; o a spinner tip removably fixed on the spindle; - an ejector at least partially surrounding the spinner, this ejector being able to occupy a working position in which it is secured to the base; this device being characterized in that: - the spinner tip and the ejector are respectively provided with an imprint and a counter-imprint that are complementary, - the ejector can be removed from the base, and is able to occupy a tooling position in which its counter-imprint cooperates with the imprint of the spinner tip to secure in rotation the ejector and the spinner tip. - a base; - a spinner which is mounted on the base and which comprises: o a spindle mounted so as to slide and pivot relative to the base; o a spinner tip removably fixed on the spindle; o a spindle mounted so as to slide and pivot relative to the base; o a spinner tip removably fixed on the spindle; - an ejector at least partially surrounding the spinner, this ejector being able to occupy a working position in which it is secured to the base; - the spinner tip and the ejector are respectively provided with an imprint and a counter-imprint that are complementary, - the ejector can be removed from the base, and is able to occupy a tooling position in which its counter-imprint cooperates with the imprint of the spinner tip to secure in rotation the ejector and the spinner tip.
Electrical connection device (1, 1') for a heating device (5, 5') of a wiper blade member (3, 3'), the connection device comprising a body (9, 9') which is configured to be fitted to a mechanical connector (11, 11') of the blade member and an electrical connection element (7, 7') which allows an electrical connection to be established between the connection device and the heating device (5, 5') through the body (9, 9'), the body (9, 9') being capable of being positioned in the mechanical connector (11, 11') in a direction substantially parallel with the blade member, when the electrical connection device is mounted on the blade member, characterized in that the electrical connection device (1, 1') comprises one or more connection plug(s) (17, 17') which is/are connected to the body (9, 9') and which is/are capable of being pressed into contact with the heating device (5, 5'), wherein the connection plug(s) comprise(s) flexible contact plates which comprise a portion which forms a runner for contact with the heating device.
Method for sterilizing a medical, dental, pharmaceutical, veterinary or mortuary instrument at a temperature of 20°C to 8o°C using a liquid sterilant, comprising supplying components and separately and dispersing the supplied components and in water at the time the sterilizing is conducted, wherein: component consists essentially of: 15 to 45% by weight peracetic acid; 34 to 62% by weight acetic acid; 6.5 to 32% by weight hydrogen peroxide; and 0.5 to 2% by weight sulfuric acid; and component consists essentially of: 35 to 98% by weight of a buffer, wherein the buffer is selected from the group consisting of an alkali metal phosphate, an alkali metal carbonate, or a mixture thereof; 0.5 to 35% by weight of an anticorrosive agent; and 0.1 to 60% by weight of a chelator; and wherein the weight ratio of component to component is from 0.1 to 1.3; and wherein the component comprises molybdate, nonylphenol ethoxylate, and an antifoaming agent, respectively in an amount of 0.01% by weight or less. component consists essentially of: 15 to 45% by weight peracetic acid; 34 to 62% by weight acetic acid; 6.5 to 32% by weight hydrogen peroxide; and 0.5 to 2% by weight sulfuric acid; and component consists essentially of: 35 to 98% by weight of a buffer, wherein the buffer is selected from the group consisting of an alkali metal phosphate, an alkali metal carbonate, or a mixture thereof; 0.5 to 35% by weight of an anticorrosive agent; and 0.1 to 60% by weight of a chelator; and wherein the weight ratio of component to component is from 0.1 to 1.3; and wherein the component comprises molybdate, nonylphenol ethoxylate, and an antifoaming agent, respectively in an amount of 0.01% by weight or less.