mhurhangee/ep-ind-claims huggingface dataset:
A magnetic type switch comprising: a magnet having a magnetic pole face arranged to face a magnetic body provided in an object, a change in magnetic field due to a change in distance between the magnetic body and the magnet by an operation of the object being detected to output a signal for indicating presence/absence of the operation of the object, and a casing (5; 51, 55) in which the magnet is disposed, the casing (5; 51, 55) having a facing part between the magnet pole face and the magnetic body; characterized in that: a protector member is formed of a non-magnetic body having a predetermined thickness in a direction vertical to the magnetic pole face, the protector member being attached to the casing to cover at least the facing part of the casing (5; 51, 55). a magnet having a magnetic pole face arranged to face a magnetic body provided in an object, a change in magnetic field due to a change in distance between the magnetic body and the magnet by an operation of the object being detected to output a signal for indicating presence/absence of the operation of the object, and a casing (5; 51, 55) in which the magnet is disposed, the casing (5; 51, 55) having a facing part between the magnet pole face and the magnetic body; characterized in that: a protector member is formed of a non-magnetic body having a predetermined thickness in a direction vertical to the magnetic pole face, the protector member being attached to the casing to cover at least the facing part of the casing (5; 51, 55).
An ultrasonic blade, comprising: a broad edge and a narrow edge (55, 55A), said broad edge opposing said narrow edge (55, 55A) along a vertical plane (181, 181A), wherein said broad edge is radiused and blunt and wherein said narrow edge (55, 55A) is defined by the intersection of a first surface (53, 53A) and a second surface (57, 57A), characterised in that said first surface is concave and wherein said second surface is concave or not concave, and in that the tangent (60, 60A) of said first concave surface at said narrow edge defines an angle (α, αA) with the tangent (62, 62A) of said second concave or not concave surface, wherein the bisection (59, 59A) of said angle (α, αA) intersects said vertical plane (181, 181A). a broad edge and a narrow edge (55, 55A), said broad edge opposing said narrow edge (55, 55A) along a vertical plane (181, 181A), wherein said broad edge is radiused and blunt and wherein said narrow edge (55, 55A) is defined by the intersection of a first surface (53, 53A) and a second surface (57, 57A), characterised in that said first surface is concave and wherein said second surface is concave or not concave, and in that the tangent (60, 60A) of said first concave surface at said narrow edge defines an angle (α, αA) with the tangent (62, 62A) of said second concave or not concave surface, wherein the bisection (59, 59A) of said angle (α, αA) intersects said vertical plane (181, 181A).
An automatic dishwashing device, comprising: a tub defining a hollow dishwashing cavity having a back, top, bottom, and two sides and is accessible via an access opening at a front of the cavity; a rack (122, 124) slidably disposed within the tub and moveable in a longitudinal direction between a stored position within the tub to an extended position where the rack (122, 124) extends outside of the tub; and a tray slidably engaged with the rack (122, 124) for sliding movement in the longitudinal direction, characterized in that the tray is configured to be retained within the tub when the rack (122, 124) is in the extended position. a tub defining a hollow dishwashing cavity having a back, top, bottom, and two sides and is accessible via an access opening at a front of the cavity; a rack (122, 124) slidably disposed within the tub and moveable in a longitudinal direction between a stored position within the tub to an extended position where the rack (122, 124) extends outside of the tub; and a tray slidably engaged with the rack (122, 124) for sliding movement in the longitudinal direction, characterized in that the tray is configured to be retained within the tub when the rack (122, 124) is in the extended position.
A controlling node for User Equipments, UEs, in a cell in a cellular communications system, the controlling node being arranged to: generate and transmit (230, 235) control commands to the UEs in said cell to control their output power level, generate said control commands using at least either a first or a second power control scheme, where the first power control scheme is a signal quality based power control scheme and the second power control scheme is a signal strength based power control scheme, receive (230, 240) from a network controlling node information regarding the capabilities of at least one other controlling node in the cellular communications system with respect to which power control scheme or schemes that the other controlling node is arranged to use, select which of said power control schemes to use for a certain UE, transmit (230, 235) information on its selection to the network controlling node, and use said information regarding the capabilities of the least one other controlling node in its selection of power control scheme. generate and transmit (230, 235) control commands to the UEs in said cell to control their output power level, generate said control commands using at least either a first or a second power control scheme, where the first power control scheme is a signal quality based power control scheme and the second power control scheme is a signal strength based power control scheme, receive (230, 240) from a network controlling node information regarding the capabilities of at least one other controlling node in the cellular communications system with respect to which power control scheme or schemes that the other controlling node is arranged to use, select which of said power control schemes to use for a certain UE, transmit (230, 235) information on its selection to the network controlling node, and use said information regarding the capabilities of the least one other controlling node in its selection of power control scheme.
Power supply system for electronic converters capable of providing at their output DC and AC voltages from at least one DC power source and at least one AC power source, wherein the power supply system comprises: - an output for DC loads connected to the output of a DC/DC converter the input of which is connected to the DC power source, - an AC output for critical loads connected to a first selector configured for alternating between a first position where said AC output for critical loads is connected to the output of a first DC/AC converter the input of which is connected to the DC power source, and a second position where said AC output for critical loads is connected to the AC power source, said critical loads being the loads in which the energy supply thereof cannot be lost for correct equipment operation, - an AC output for non-critical loads connected to the AC power source, said non-critical loads being the loads in which the energy supply thereof can be lost and that can be temporarily disconnected, and - a control unit controlling the operation of said first selector, characterized in that the DC power source is a photovoltaic generator, and the control unit is configured for keeping the first selector in the first position in normal operating conditions and for passing said first selector to the second position in anomalous operating conditions, normal operation being defined as the DC power source being available and the first DC/AC converter working, and anomalous operation being defined as at least one of the conditions defining normal operation not being complied with. - an output for DC loads connected to the output of a DC/DC converter the input of which is connected to the DC power source, - an AC output for critical loads connected to a first selector configured for alternating between a first position where said AC output for critical loads is connected to the output of a first DC/AC converter the input of which is connected to the DC power source, and a second position where said AC output for critical loads is connected to the AC power source, said critical loads being the loads in which the energy supply thereof cannot be lost for correct equipment operation, - an AC output for non-critical loads connected to the AC power source, said non-critical loads being the loads in which the energy supply thereof can be lost and that can be temporarily disconnected, and - a control unit controlling the operation of said first selector, the DC power source is a photovoltaic generator, and the control unit is configured for keeping the first selector in the first position in normal operating conditions and for passing said first selector to the second position in anomalous operating conditions, normal operation being defined as the DC power source being available and the first DC/AC converter working, and anomalous operation being defined as at least one of the conditions defining normal operation not being complied with.
An electronic equipment on a network side, comprising: a processing circuit (210, 211) configured to perform a Semi-Persistent Scheduling SPS configuration for a remote terminal equipment, the remote terminal equipment communicating with the electronic equipment via a relay terminal equipment within a service range of the electronic equipment; and a transceiver circuit configured to transmit SPS configuration information of the remote terminal equipment to the relay terminal equipment; wherein the processing circuit is further configured to generate indication information for indicating whether a target terminal of the SPS configuration information of the remote terminal equipment is the relay terminal equipment, and the transceiver circuit is further configured to transmit the indication information to the relay terminal equipment, and wherein the processing circuit is further configured to generate indication information for instructing the relay terminal equipment to forward and save the SPS configuration information of the remote terminal equipment. a processing circuit (210, 211) configured to perform a Semi-Persistent Scheduling SPS configuration for a remote terminal equipment, the remote terminal equipment communicating with the electronic equipment via a relay terminal equipment within a service range of the electronic equipment; and a transceiver circuit configured to transmit SPS configuration information of the remote terminal equipment to the relay terminal equipment; wherein the processing circuit is further configured to generate indication information for indicating whether a target terminal of the SPS configuration information of the remote terminal equipment is the relay terminal equipment, and the transceiver circuit is further configured to transmit the indication information to the relay terminal equipment, and wherein the processing circuit is further configured to generate indication information for instructing the relay terminal equipment to forward and save the SPS configuration information of the remote terminal equipment.
A process for making hydrogen peroxide, comprising the steps: (a) hydrogenating a working solution, said working solution comprising an alkylanthraquinone, an alkyltetrahydroanthraquinone or both, contact said working solution with compressed hydrogen in a hydrogenator to provide a hydrogenated working solution comprising an alkylanthrahydroquinone, an alkyltetrahydroanthrahydroquinone or both, (b) oxidizing said hydrogenated working solution obtained in step a) with a compressed oxygen containing gas, such as compressed air or compressed enriched oxygen containing air, in an oxidation reactor to provide an oxidized working solution comprising hydrogen peroxide and an alkylanthraquinone, an alkyltetrahydroanthraquinone or both, (c) extracting hydrogen peroxide from oxidized working solution obtained in step b) to provide an aqueous hydrogen peroxide extract, and (d) concentrating the aqueous hydrogen peroxide extract obtained in step c) in at least one distillation unit comprising an evaporator and a distillation column, said distillation column receiving vapor from said evaporator, to provide a concentrated aqueous hydrogen peroxide solution, characterized in that at least one steam turbine (120, 121, 122, 123) drives at least one rotating equipment (125, 126, 127, 128, 117a-d), at least one steam turbine (120, 121, 122, 123) providing a steam flow with a pressure range of -0.8 barg to 3 barg and a temperature range of 60 to 185 °C to the evaporator. (a) hydrogenating a working solution, said working solution comprising an alkylanthraquinone, an alkyltetrahydroanthraquinone or both, contact said working solution with compressed hydrogen in a hydrogenator to provide a hydrogenated working solution comprising an alkylanthrahydroquinone, an alkyltetrahydroanthrahydroquinone or both, (b) oxidizing said hydrogenated working solution obtained in step a) with a compressed oxygen containing gas, such as compressed air or compressed enriched oxygen containing air, in an oxidation reactor to provide an oxidized working solution comprising hydrogen peroxide and an alkylanthraquinone, an alkyltetrahydroanthraquinone or both, (c) extracting hydrogen peroxide from oxidized working solution obtained in step b) to provide an aqueous hydrogen peroxide extract, and (d) concentrating the aqueous hydrogen peroxide extract obtained in step c) in at least one distillation unit comprising an evaporator and a distillation column, said distillation column receiving vapor from said evaporator, to provide a concentrated aqueous hydrogen peroxide solution,
A segmented post cathode comprising: a plurality of post segments (22,24), each of said segments (22,24) having an aligned central axis; each of said segments (22,24) abutting at least one adjacent segment; wherein each of said post segments (22,24) comprises a cylinder (100;200;300) of evaporation source material, said cylinder having a center axis in an axial void (130;230;330); characterised in that: the cathode comprises a top cathode cap and a bottom cathode cap; said top cathode cap having a nesting formation for nesting with a top post segment and said bottom cathode cap having a nesting formation for nesting with a bottom post segment; and in that each segment (22, 24) comprises a top nesting section (110;210;310) for connecting to and nesting with another segment (22,24) or the top cathode cap; and a bottom nesting section (120;220;320) for connecting to and nesting with another segment (22,24) or the bottom cathode cap, wherein one of said top nesting section (110;210;310) and said bottom nesting section (120;220;320) protrudes into an adjacent segment (22, 24) or cathode cap (26, 28), and wherein the other of said top nesting section (110;210;310) and said bottom nesting section (120;220;320) receives a protrusion from an adjacent segment (22, 24) or cathode cap (26, 28). a plurality of post segments (22,24), each of said segments (22,24) having an aligned central axis; each of said segments (22,24) abutting at least one adjacent segment; wherein each of said post segments (22,24) comprises a cylinder (100;200;300) of evaporation source material, said cylinder having a center axis in an axial void (130;230;330); the cathode comprises a top cathode cap and a bottom cathode cap; said top cathode cap having a nesting formation for nesting with a top post segment and said bottom cathode cap having a nesting formation for nesting with a bottom post segment; and in that each segment (22, 24) comprises a top nesting section (110;210;310) for connecting to and nesting with another segment (22,24) or the top cathode cap; and a bottom nesting section (120;220;320) for connecting to and nesting with another segment (22,24) or the bottom cathode cap, wherein one of said top nesting section (110;210;310) and said bottom nesting section (120;220;320) protrudes into an adjacent segment (22, 24) or cathode cap (26, 28), and wherein the other of said top nesting section (110;210;310) and said bottom nesting section (120;220;320) receives a protrusion from an adjacent segment (22, 24) or cathode cap (26, 28).
A polyvinyl halide composition comprising a polyvinyl halide polymer and an epoxidized fatty acid ester composition comprised of one or more epoxidized fatty acid esters having an ester moiety characterized by a five to seven member ring structure, which composition contains not more than 5.0 percent by weight of the total weight of material of monoglycerides and diglycerides combined, and at least predominantly comprising epoxidized benzyl soyate esters.
A lamp comprising: a tube; and a filament configured to radiate thermal energy from within the tube, said filament extending along a length of the tube and being spaced apart from an inner wall of the tube; characterized in that the filament comprises at least two wires extending a length direction of the tube and is twisted about a central axis of the filament. a tube; and a filament configured to radiate thermal energy from within the tube, said filament extending along a length of the tube and being spaced apart from an inner wall of the tube; characterized in that the filament comprises at least two wires extending a length direction of the tube and is twisted about a central axis of the filament.
A method comprising: accessing a model template comprising backward reshaping metadata prediction models, wherein the backward reshaping metadata prediction models are trained with a plurality of training image feature vectors from a plurality of training standard dynamic range images in a plurality of training image pairs and ground truth derived with a plurality of corresponding training high dynamic range images in the plurality of training image pairs, wherein each training image pair in the plurality of training image pairs comprises a training SDR image in the plurality of training SDR images and a corresponding training HDR image in the plurality of corresponding training HDR images, wherein the training SDR image and the corresponding training HDR image in each such training image pair depict same visual content but with different luminance dynamic ranges; characterized in that the method further comprises: receiving content creation user input that defines one or more content-creation-user-adjusted HDR appearances for the plurality of corresponding training HDR images; generating, based on the model template and the content creation user input, content-creation-user-specific modified backward reshaping metadata prediction models; using the content-creation-user-specific modified backward reshaping metadata prediction models to predict operational parameter values of content-creation-user-specific backward reshaping mappings for backward reshaping SDR images into mapped HDR images of at least one of the one or more content-creation-user-adjusted HDR appearances. receiving content creation user input that defines one or more content-creation-user-adjusted HDR appearances for the plurality of corresponding training HDR images; generating, based on the model template and the content creation user input, content-creation-user-specific modified backward reshaping metadata prediction models; using the content-creation-user-specific modified backward reshaping metadata prediction models to predict operational parameter values of content-creation-user-specific backward reshaping mappings for backward reshaping SDR images into mapped HDR images of at least one of the one or more content-creation-user-adjusted HDR appearances.
Method for fastening a tab (4, 5) made of a metal sheet to a bathtub, comprising the following steps: - applying the tab (4, 5) to a surface of the bathtub, and - laser welding through the tab (4, 5) to produce a weld seam spaced from an outer edge of the tab (4, 5). - applying the tab (4, 5) to a surface of the bathtub, and - laser welding through the tab (4, 5) to produce a weld seam spaced from an outer edge of the tab (4, 5).
A compact machine for making cheese, other milk-derivatives and tofu comprising: - a first and a second open container that are coupled to each other in a releasable way against each other to define a treatment chamber, wherein: - said first container comprises an impermeable basin having a bottom wall and a side wall that define together a workspace, as well as a stirring means acting in said workspace and a heating means that is adapted to heat said bottom wall and/or said side wall; - said second container comprises a permeable basket and at least one conical surface that is adapted to convey into said permeable basket a product coming from said impermeable basin, - wherein said coupled first and second container are adapted to be integrally rotated, in order to be moved alternatively between a first position, where said impermeable basin is down and said permeable basket is up, and a second position, where said permeable basket is down and said impermeable basin is up. - a first and a second open container that are coupled to each other in a releasable way against each other to define a treatment chamber, wherein: - said first container comprises an impermeable basin having a bottom wall and a side wall that define together a workspace, as well as a stirring means acting in said workspace and a heating means that is adapted to heat said bottom wall and/or said side wall; - said second container comprises a permeable basket and at least one conical surface that is adapted to convey into said permeable basket a product coming from said impermeable basin, - wherein said coupled first and second container are adapted to be integrally rotated, in order to be moved alternatively between a first position, where said impermeable basin is down and said permeable basket is up, and a second position, where said permeable basket is down and said impermeable basin is up. - said first container comprises an impermeable basin having a bottom wall and a side wall that define together a workspace, as well as a stirring means acting in said workspace and a heating means that is adapted to heat said bottom wall and/or said side wall; - said second container comprises a permeable basket and at least one conical surface that is adapted to convey into said permeable basket a product coming from said impermeable basin, - wherein said coupled first and second container are adapted to be integrally rotated, in order to be moved alternatively between a first position, where said impermeable basin is down and said permeable basket is up, and a second position, where said permeable basket is down and said impermeable basin is up.
A nanothermite initiatory composition, comprising a: (i) a nanothermite suspension of a metal oxide and a metal (M') in a solvent, wherein the average particle size of the metal oxide and a metal (M') is less than 1000 nm, provided that ≠ (M'), (ii) wherein said nanothermite suspension comprises a charging reagent, comprising a chelate or ligand capable of forming a stable complex with each of the metal oxide and the metal (M'), to form a metal oxide complex, and a metal (M') complex, such that said metal oxide complex and said metal (M') complex repel each other in said suspension, wherein the admixture of the nanothermite suspension, charging reagent, has been caused to be mixed under Resonant Acoustic Mixing to provide a stable suspension of the nanothermite composition. (i) a nanothermite suspension of a metal oxide and a metal (M') in a solvent, wherein the average particle size of the metal oxide and a metal (M') is less than 1000 nm, provided that ≠ (M'), (ii) wherein said nanothermite suspension comprises a charging reagent, comprising a chelate or ligand capable of forming a stable complex with each of the metal oxide and the metal (M'), to form a metal oxide complex, and a metal (M') complex, such that said metal oxide complex and said metal (M') complex repel each other in said suspension,