mhurhangee/ep-ind-claims huggingface dataset:
A laundry treating apparatus comprising: a cabinet; a drum provided inside the cabinet and formed of a metal material for accommodating a treatment target; and an induction module spaced apart from an outer circumferential surface of the drum at a predetermined interval, inducing and heating the drum, wherein the induction module includes: a base housing for accommodating a coil; and a cover housing forming a moving space of heat generated from the coil, jointed to an upper portion of the base housing, the cover housing includes a through portion for discharging the heat by passing through the cover housing up and down, and the cover housing forms a section upwardly inclined toward the through portion to move the heat generated from the coil along the inclined section and discharge the heat to the through portion. a cabinet; a drum provided inside the cabinet and formed of a metal material for accommodating a treatment target; and an induction module spaced apart from an outer circumferential surface of the drum at a predetermined interval, inducing and heating the drum, wherein the induction module includes: a base housing for accommodating a coil; and a cover housing forming a moving space of heat generated from the coil, jointed to an upper portion of the base housing, the cover housing includes a through portion for discharging the heat by passing through the cover housing up and down, and the cover housing forms a section upwardly inclined toward the through portion to move the heat generated from the coil along the inclined section and discharge the heat to the through portion. a base housing for accommodating a coil; and a cover housing forming a moving space of heat generated from the coil, jointed to an upper portion of the base housing, the cover housing includes a through portion for discharging the heat by passing through the cover housing up and down, and the cover housing forms a section upwardly inclined toward the through portion to move the heat generated from the coil along the inclined section and discharge the heat to the through portion.
Method for operation of a wind energy installation having an electrical generator, which can be driven by a rotor, for emission of electrical power to an electrical load, specifically an electrical grid, wherein the power which is emitted from the generator to the load is regulated as a function of a current which is emitted to the load, wherein the emitted current does not exceed a predeterminable magnitude, has a predeterminable phase angle and/or comprises a predeterminable reaction current component, in the case of polyphase systems, the magnitude, phase angle and/or reaction current component do not exceed the predeterminable value for each phase, wherein the wind energy installation has an external control input by means of which switching commands from the grid operator or power supply authority who is operating the grid are received and the wind energy installation is controlled in accordance with the grid operator's requirement as a function of these control signals from the grid operator, so that electrical power, for example the real power, reaction power, current level, voltage level or phase angle, are fed into the grid in a form as required by the grid operator, in that the emitted current is an alternating current at predeterminable frequency and in that the predeterminable frequency preferably corresponds essentially to the grid frequency, and in that, when the current emitted from the generator to the load exceeds a predeterminable maximum value (I(max)), a control device of the wind energy installation is used to adjust the power that is produced by the overall wind energy installation and/or its generator such that the current which is fed in does not exceed the predetermined maximum value (I(max)), wherein, in the event of a short circuit in the grid, this is effected by the wind energy installation feeding considerably less power into the grid than before, but using the power which is thus not fed into the grid in some other way outside the grid, for example for a dump load (resistance) or for feeding the power that is not emitted into the grid to capacitors or other buffer stores, and in that, when the grid is completely available once again, the stored energy is also emitted to the grid.
Welding or cutting tool for welding or cutting electrically conductive work pieces, having a nozzle disposed at a tool tip, for exit of a welding or cutting jet, and having a nozzle cap that encloses the nozzle, at least in part, and is open toward the tool tip, which cap has an electrode that forms a capacitance with the respective work piece, and which cap has an insulating element that electrically insulates the electrode relative to the further components of the tool, characterized in that the electrode consists of a first, electrically conductive ceramic material, and is configured in one piece with the insulating element, which consists of a second, electrically insulating ceramic material.
A refrigerator, comprising: a cabinet having a storage chamber provided therein and an open front; a cooling device provided at one side of the cabinet and cooling the storage chamber; a drawer (24, 26) provided with a front panel and a storage room, the drawer (24, 26) configured to be pulled out and pushed in so that the storage chamber is opened and closed, wherein the storage room is provided at a rear side of the front panel; an inner cover provided at the storage room so as to cover a rear end portion of an inner space of the storage room of the drawer (24, 26); a fastening end provided on the rear end of the storage room of the drawer (24, 26) protruding upward so as to support a rear end of the upper surface cover; and a guide provided at a rear end of the storage room of the drawer (24, 26) and protruding upward from an upper end of a rear surface of the storage room of the drawer (24, 26), the guide is provided for preventing the inner cover from being moved toward a rear of the storage room of the drawer (24, 26); wherein a height of the guide is greater than a height of the fastening end; characterized in that the inner cover comprises a front surface cover partitioning the inner space of the storage room of the drawer (24, 26) into a front space and a rear space, and an upper surface cover rotatably connected to an upper end of the front surface cover, and covering a rear upper surface of the front surface cover. a cabinet having a storage chamber provided therein and an open front; a cooling device provided at one side of the cabinet and cooling the storage chamber; a drawer (24, 26) provided with a front panel and a storage room, the drawer (24, 26) configured to be pulled out and pushed in so that the storage chamber is opened and closed, wherein the storage room is provided at a rear side of the front panel; an inner cover provided at the storage room so as to cover a rear end portion of an inner space of the storage room of the drawer (24, 26); a fastening end provided on the rear end of the storage room of the drawer (24, 26) protruding upward so as to support a rear end of the upper surface cover; and a guide provided at a rear end of the storage room of the drawer (24, 26) and protruding upward from an upper end of a rear surface of the storage room of the drawer (24, 26), the guide is provided for preventing the inner cover from being moved toward a rear of the storage room of the drawer (24, 26); wherein a height of the guide is greater than a height of the fastening end; characterized in that the inner cover comprises a front surface cover partitioning the inner space of the storage room of the drawer (24, 26) into a front space and a rear space, and an upper surface cover rotatably connected to an upper end of the front surface cover, and covering a rear upper surface of the front surface cover.
An annular locking device (10, 110) for winding coils, intended to be arranged alongside a plurality of same annular devices so as to form a winding shaft in a winding machine, comprising a concentric inner ring (11, 111) and outer ring (12, 112) and engagement elements (13, 113) which emerge through slots (14, 114) on the peripheral surface of the outer ring, the outer ring being rotatable with respect to the inner ring between a first angular rest position, in which the engagement elements (13, 113) may be retracted into the outer ring by a first amount, and a second angular operating position, in which the engagement elements (13, 113) may be retracted by an amount less than in the first angular rest position, at least one circumferential interspace (25, 125) containing a series of balls (26, 126) for relative sliding of the two rings is present between the inner ring (11, 111) and the outer ring (12, 112) characterized in that the outer ring is a cylindrical tube with an inner wall in which a part of the interspace for receiving the sliding balls is formed and the inner ring is a cylindrical tube with an outer wall in which a part of the interspace for receiving the sliding balls and surfaces for sliding of the engagement elements upon rotation of the rings between the said two rest and operating positions are formed.
An antibody capable of specifically binding to PD-1 or a functional fragment thereof capable of specifically binding to PD-1, wherein the antibody or the functional fragment thereof comprise a light chain and a heavy chain; the light chain comprises a light chain CDR consisting of CDR-L1, CDR-L2 and CDR-L3; the heavy chain comprises a heavy chain CDR consisting of CDR-H1, CDR-H2 and CDR-H3; the amino acid sequences of the CDR-L1, CDR-L2, and CDR-L3 are respectively set forth in SEQ ID NO: 1, 5 and 6, or respectively set forth in SEQ ID NO: 2, 5 and 6, or respectively set forth in SEQ ID NO: 3, 5 and 6, or respectively set forth in SEQ ID NO: 4, 5 and 6; the amino acid sequences of the CDR-H1, CDR-H2, and CDR-H3 are respectively set forth in SEQ ID NO: 7, 8 and 9; preferably, the antibody or the functional fragment thereof includes a PD-1 chimeric antibody or a functional fragment thereof, and a PD-1 humanized antibody or a functional fragment thereof. the light chain comprises a light chain CDR consisting of CDR-L1, CDR-L2 and CDR-L3; the heavy chain comprises a heavy chain CDR consisting of CDR-H1, CDR-H2 and CDR-H3; the amino acid sequences of the CDR-L1, CDR-L2, and CDR-L3 are respectively set forth in SEQ ID NO: 1, 5 and 6, or respectively set forth in SEQ ID NO: 2, 5 and 6, or respectively set forth in SEQ ID NO: 3, 5 and 6, or respectively set forth in SEQ ID NO: 4, 5 and 6; the amino acid sequences of the CDR-H1, CDR-H2, and CDR-H3 are respectively set forth in SEQ ID NO: 7, 8 and 9; preferably, the antibody or the functional fragment thereof includes a PD-1 chimeric antibody or a functional fragment thereof, and a PD-1 humanized antibody or a functional fragment thereof.
A computing system comprising: a central processing unit, CPU; and memory coupled to the CPU and having stored therein instructions that, when executed by the computing system, cause the computing system to execute operations to generate a radiation treatment plan, the operations comprising: accessing (i) a prescribed dose to be delivered into and/or across the target and/or (ii) a maximum limit on irradiation dose for each sub-volume outside the target; determining a number of beams and directions of the beams, wherein the directions are determined such that there is substantially no overlap of the beams outside the target; and determining a beam energy for each of the beams, wherein the number of beams, the directions of the beams, and the beam energy for each of the beams are determined such that (i) the entire target receives the prescribed dose and/or (ii) maximum limit on irradiation dose for each sub-volume outside the target is not exceeded; prescribing a dose rate, optimizing for dose rate prescription, and optimizing on dose rate constraints for a FLASH therapy; and displaying a dose rate map of the FLASH therapy. a central processing unit, CPU; and memory coupled to the CPU and having stored therein instructions that, when executed by the computing system, cause the computing system to execute operations to generate a radiation treatment plan, the operations comprising: accessing (i) a prescribed dose to be delivered into and/or across the target and/or (ii) a maximum limit on irradiation dose for each sub-volume outside the target; determining a number of beams and directions of the beams, wherein the directions are determined such that there is substantially no overlap of the beams outside the target; and determining a beam energy for each of the beams, wherein the number of beams, the directions of the beams, and the beam energy for each of the beams are determined such that (i) the entire target receives the prescribed dose and/or (ii) maximum limit on irradiation dose for each sub-volume outside the target is not exceeded; prescribing a dose rate, optimizing for dose rate prescription, and optimizing on dose rate constraints for a FLASH therapy; and displaying a dose rate map of the FLASH therapy. accessing (i) a prescribed dose to be delivered into and/or across the target and/or (ii) a maximum limit on irradiation dose for each sub-volume outside the target; determining a number of beams and directions of the beams, wherein the directions are determined such that there is substantially no overlap of the beams outside the target; and determining a beam energy for each of the beams, wherein the number of beams, the directions of the beams, and the beam energy for each of the beams are determined such that (i) the entire target receives the prescribed dose and/or (ii) maximum limit on irradiation dose for each sub-volume outside the target is not exceeded; prescribing a dose rate, optimizing for dose rate prescription, and optimizing on dose rate constraints for a FLASH therapy; and displaying a dose rate map of the FLASH therapy.
One or more computer-readable media storing computer-executable instructions that upon execution cause one or more processors to perform acts comprising: initializing one or more hardware components in a hardware platform of a reference device according to hardware configuration settings that are approved by a developer of an operating system, OS; loading the OS on the reference device according to one or more OS configuration settings that are approved by the developer of the OS; generating one or more reference health values at the initializing of the hardware platform and the loading of the OS of the reference device, the one or more reference health values representing that the reference device has a secured state; and transmitting the one or more reference health values to a user device, the one or more reference health values being used by the user device to verify at least one of a health status of a hardware platform or a health status of an OS on the user device; wherein the generating the one or more reference health values includes: obtaining one or more hardware configuration values that represent a state of the hardware platform as loaded; obtaining one or more OS configuration values that represent a state of the OS as loaded; and calculating the one or more reference health values based on at least one of the one or more hardware configuration values or the one or more OS configuration values. initializing one or more hardware components in a hardware platform of a reference device according to hardware configuration settings that are approved by a developer of an operating system, OS; loading the OS on the reference device according to one or more OS configuration settings that are approved by the developer of the OS; generating one or more reference health values at the initializing of the hardware platform and the loading of the OS of the reference device, the one or more reference health values representing that the reference device has a secured state; and transmitting the one or more reference health values to a user device, the one or more reference health values being used by the user device to verify at least one of a health status of a hardware platform or a health status of an OS on the user device; wherein the generating the one or more reference health values includes: obtaining one or more hardware configuration values that represent a state of the hardware platform as loaded; obtaining one or more OS configuration values that represent a state of the OS as loaded; and calculating the one or more reference health values based on at least one of the one or more hardware configuration values or the one or more OS configuration values.
A transport device for transporting transport goods on rails, comprising - a frame having at least two longitudinal support elements (3a, 3b) spaced apart from one another, - at least two transport device wheelsets (4a, 4b) arranged at the longitudinal support elements (3a, 3b), and - a mounting plate detachably arranged on said frame for receiving the transport goods, wherein said mounting plate has three connecting portions by means of which said mounting plate is mounted on said frame. - a frame having at least two longitudinal support elements (3a, 3b) spaced apart from one another, - at least two transport device wheelsets (4a, 4b) arranged at the longitudinal support elements (3a, 3b), and - a mounting plate detachably arranged on said frame for receiving the transport goods, wherein said mounting plate has three connecting portions by means of which said mounting plate is mounted on said frame.
A semiconductor package structure, comprising: a substrate having a first surface and a second surface opposite thereto, wherein the substrate comprises a wiring structure; a first semiconductor die disposed over the first surface of the substrate and electrically coupled to the wiring structure; a second semiconductor die disposed over the first surface of the substrate and electrically coupled to the wiring structure, and a first hole and a second hole formed on the second surface of the substrate; wherein the first semiconductor die and the second semiconductor die are separated by a molding material; characterized in that the molding material further surrounds the first semiconductor die and the second semiconductor die, and surfaces of the first semiconductor die and the second semiconductor die facing away from the substrate are exposed by the molding material; wherein the first hole is located within the projection of, and in particular covered by the first semiconductor die, and the second hole is located in the projection of, and in particular covered by the second semiconductor die; wherein a stress buffer layer is filled into the first hole and the second hole, to thereby release stress in the substrate caused by different coefficients of thermal expansion of the substrate and the semiconductor dies (115a, 115b), wherein the stress buffer layer is made of a polymer material. a substrate having a first surface and a second surface opposite thereto, wherein the substrate comprises a wiring structure; a first semiconductor die disposed over the first surface of the substrate and electrically coupled to the wiring structure; a second semiconductor die disposed over the first surface of the substrate and electrically coupled to the wiring structure, and a first hole and a second hole formed on the second surface of the substrate; wherein the first semiconductor die and the second semiconductor die are separated by a molding material; characterized in that the molding material further surrounds the first semiconductor die and the second semiconductor die, and surfaces of the first semiconductor die and the second semiconductor die facing away from the substrate are exposed by the molding material; wherein the first hole is located within the projection of, and in particular covered by the first semiconductor die, and the second hole is located in the projection of, and in particular covered by the second semiconductor die; wherein a stress buffer layer is filled into the first hole and the second hole, to thereby release stress in the substrate caused by different coefficients of thermal expansion of the substrate and the semiconductor dies (115a, 115b), wherein the stress buffer layer is made of a polymer material.
High-intensity active composition for a pyrotechnic infra-red decoy which irradiates spectrally on burning, comprising a fuel, an oxidizer, a binder and a carbon-containing substance, the fuel and the oxidizer being selected such that the oxidizer is able to oxidize the fuel after ignition thereof in an exothermic primary reaction, with development of a temperature of at least 1000 K, the substance being selected such that the substance is endothermically pyrolysed by the heat given off in the primary reaction, and in this procedure releases gas which is combustible in air, the fuel not being so strongly reducing that resultant CO 2 can be reduced to carbon, and the substance and its proportion in the high-intensity active composition being selected such that the temperature of the high-intensity active composition after ignition thereof does not exceed 2000 K owing to the removal of heat by the endothermic pyrolysis, where the fuel comprises carbon or comprises boron, silicon, antimony, iron, manganese, cobalt or nickel or a mixture or alloy of these substances, where the oxidizer comprises a perchlorate, chlorate, oxide, sulphate, nitrate, dinitramine, nitrite, peroxide, dinitromethanate, a nitro compound, a nitrate ester, hexogen, octogen, nitrocellulose or nitropenta, where the substance comprises sugar, wood, cereal flour, lignite coal, peat, cellulose, starch, tobacco, an oxalate, a formate, an acetate, a propionate, polyethylene glycol, polyoxymethylene, polyamide, urea, hexamethylenetetramine, trioxane or paraformaldehyde, where the fuel is not sulphur, but sulphur is present in the high-intensity active composition.
A synthesis gas and nanocarbon production method, comprising: a lower hydrocarbon decomposition step of directly decomposing lower hydrocarbon using a catalyst to produce hydrogen and nanocarbon; a carbon dioxide reduction step of reacting a part of the nanocarbon produced in the lower hydrocarbon decomposition step in a state mixed with the catalyst with carbon dioxide in exhaust gas generated by combustion in a furnace in the lower hydrocarbon decomposition step to produce carbon monoxide; and a mixing step of mixing the hydrogen produced in the lower hydrocarbon decomposition step and the carbon monoxide produced in the carbon dioxide reduction step in a predetermined ratio to obtain a synthesis gas, wherein H 2 and CO are produced separately and then mixed. a lower hydrocarbon decomposition step of directly decomposing lower hydrocarbon using a catalyst to produce hydrogen and nanocarbon; a carbon dioxide reduction step of reacting a part of the nanocarbon produced in the lower hydrocarbon decomposition step in a state mixed with the catalyst with carbon dioxide in exhaust gas generated by combustion in a furnace in the lower hydrocarbon decomposition step to produce carbon monoxide; and a mixing step of mixing the hydrogen produced in the lower hydrocarbon decomposition step and the carbon monoxide produced in the carbon dioxide reduction step in a predetermined ratio to obtain a synthesis gas, wherein H 2 and CO are produced separately and then mixed.