mhurhangee/ep-ind-claims huggingface dataset:
An elevator comprising: a car; a drive unit for moving the car by rotating a rotary body connected to the car; a brake for applying a braking force to the rotary body; an elevator control unit for controlling an operation of the car; and a brake control unit for changing a brake torque of the brake stepwise for releasing upon reception of a start signal of the elevator from the elevator control unit; a torque control unit configured for controlling a torque of the drive unit so that the speed of the car approaches zero, upon reception of the start signal of the elevator from the elevator control unit; and characterized by further comprising a a brake check switch configured for detecting a contact state between the brake and the rotary body, wherein the torque control unit is configured to control the torque of the drive unit so that the speed of the car approaches zero following detection of separation of the brake from the rotary body by the brake check switch, until reception of a movement command of the elevator. a car; a drive unit for moving the car by rotating a rotary body connected to the car; a brake for applying a braking force to the rotary body; an elevator control unit for controlling an operation of the car; and a brake control unit for changing a brake torque of the brake stepwise for releasing upon reception of a start signal of the elevator from the elevator control unit; a torque control unit configured for controlling a torque of the drive unit so that the speed of the car approaches zero, upon reception of the start signal of the elevator from the elevator control unit; and characterized by further comprising a a brake check switch configured for detecting a contact state between the brake and the rotary body, wherein the torque control unit is configured to control the torque of the drive unit so that the speed of the car approaches zero following detection of separation of the brake from the rotary body by the brake check switch, until reception of a movement command of the elevator.
A vehicle battery system comprising: a first storage battery which is configured to supply electric power to a starter for starting up an engine; a second storage battery which is connected in parallel with the first storage battery and which includes an internal switching unit that is configured to switch a connection state with the first storage battery; an alternator which is connected to the first and second storage batteries and which is configured to be driven by the engine so as to generate electric power; a charging state detection unit which is configured to detect a charging state of the second storage battery: a charging control unit which is configured to control a power generating state of the alternator and a switching state of the internal switching unit based on a detection result of the charging state detection unit; and a power generation margin determination unit which is configured to determine whether there is a margin in the power generation of the alternator or not, wherein, when the charging state detection unit detects that a charging rate of the second storage battery is not higher than a minimum threshold, and the power generation margin determination unit determines that there is no margin in the power generation, the charging control unit controls the internal switching unit into an open state, and, when the power generation margin determination unit determines that there is a margin in the power generation, the charging control unit changes the internal switching unit from the open state to a closed state. a first storage battery which is configured to supply electric power to a starter for starting up an engine; a second storage battery which is connected in parallel with the first storage battery and which includes an internal switching unit that is configured to switch a connection state with the first storage battery; an alternator which is connected to the first and second storage batteries and which is configured to be driven by the engine so as to generate electric power; a charging state detection unit which is configured to detect a charging state of the second storage battery: a charging control unit which is configured to control a power generating state of the alternator and a switching state of the internal switching unit based on a detection result of the charging state detection unit; and a power generation margin determination unit which is configured to determine whether there is a margin in the power generation of the alternator or not, wherein, when the charging state detection unit detects that a charging rate of the second storage battery is not higher than a minimum threshold, and the power generation margin determination unit determines that there is no margin in the power generation, the charging control unit controls the internal switching unit into an open state, and, when the power generation margin determination unit determines that there is a margin in the power generation, the charging control unit changes the internal switching unit from the open state to a closed state.
Device for coupling two half-cylinders of the European profile type by means of a connecting bar system, in which said system comprises two connecting bars each of which has a first end designed to be fixed to one of the half-cylinders and a second end hooked to an intermediate connecting piece which extends longitudinally between the cylinders, through hooking elements (50, 52) that are supported respectively by said connecting piece and by said second end of the connecting bar, characterized by the fact that said device is adjustable in that it allows multiple positions of cooperation, with a connecting bar and/or the connecting piece having a series of said hooking elements (50, 52) arranged longitudinally so that the longitudinal adjustment of the coupling between said connecting bar and said connecting piece can be adjusted, with said hooking elements (50, 52) taking the form of notched means presenting a longitudinal series of notches and ribs.
A method for producing polyethylene-based resin foamed particles by foaming polyethylene-based resin particles containing a polyethylene-based resin as a base resin, wherein the polyethylene-based resin particles are cross-linked by a cross-linking process, the crosslinked polyethylene-based resin particles have a melting point of 105°C or more and 125°C or less, and the polyethylene-based resin particles have a tan δ of 0.3 or more and 0.7 or less and a complex viscosity of 5000 Pa·s or more and 20000 Pa·s or less, which are determined by a viscoelasticity measurement at a temperature of 130°C and a frequency of 1.67 Hz, the method comprising a first-step foaming process, the first-step foaming process including dispersing the polyethylene-based resin particles in an aqueous dispersing medium in a sealed vessel, adding a foaming agent containing carbon dioxide to an aqueous dispersion thus prepared, heating and pressurizing the aqueous dispersion, and then releasing the aqueous dispersion to a pressure region where pressure is lower than internal pressure of the sealed vessel, wherein a foaming ratio in the first-step foaming process is 10 times or more and 18 times or less, wherein the melting point of the crosslinked polyethylene-based resin particles is determined by differential scanning calorimetry according the description. the polyethylene-based resin particles are cross-linked by a cross-linking process, the crosslinked polyethylene-based resin particles have a melting point of 105°C or more and 125°C or less, and the polyethylene-based resin particles have a tan δ of 0.3 or more and 0.7 or less and a complex viscosity of 5000 Pa·s or more and 20000 Pa·s or less, which are determined by a viscoelasticity measurement at a temperature of 130°C and a frequency of 1.67 Hz, the method comprising a first-step foaming process, the first-step foaming process including dispersing the polyethylene-based resin particles in an aqueous dispersing medium in a sealed vessel, adding a foaming agent containing carbon dioxide to an aqueous dispersion thus prepared, heating and pressurizing the aqueous dispersion, and then releasing the aqueous dispersion to a pressure region where pressure is lower than internal pressure of the sealed vessel, wherein a foaming ratio in the first-step foaming process is 10 times or more and 18 times or less, wherein the melting point of the crosslinked polyethylene-based resin particles is determined by differential scanning calorimetry according the description.
A process for the synthesis of a lactam, the process comprising the steps of: (a) an Aldol condensation between an acetone initiator and glyoxalic acid; (b) treating the product(s) of step (a) with an organic acid to effect dehydration; (c) reacting the product of step (b) with ammonia or a primary amine, or salt thereof, to afford a lactam. (a) an Aldol condensation between an acetone initiator and glyoxalic acid; (b) treating the product(s) of step (a) with an organic acid to effect dehydration; (c) reacting the product of step (b) with ammonia or a primary amine, or salt thereof, to afford a lactam.
A data transmission method, comprising: obtaining, by a terminal device, first configuration information, wherein the first configuration information comprises at least one first bearer identifier and path configuration information corresponding to the first bearer identifier, and the path configuration information corresponding to the first bearer identifier comprises at least one of a sidelink transmission path and a network device forwarding transmission path; obtaining, by the terminal device, first service data and a second bearer identifier corresponding to the first service data; selecting, by the terminal device, a transmission path for the first service data based on the first bearer identifier, the second bearer identifier, and the path configuration information; and transmitting, by the terminal device, the first service data on the transmission path, wherein the selecting, by the terminal device, a transmission path for the first service data based on the first bearer identifier, the second bearer identifier, and the path configuration information comprises: selecting, by the terminal device at a first protocol layer, the transmission path for the first service data based on the first bearer identifier, the second bearer identifier, and the path configuration information. obtaining, by a terminal device, first configuration information, wherein the first configuration information comprises at least one first bearer identifier and path configuration information corresponding to the first bearer identifier, and the path configuration information corresponding to the first bearer identifier comprises at least one of a sidelink transmission path and a network device forwarding transmission path; obtaining, by the terminal device, first service data and a second bearer identifier corresponding to the first service data; selecting, by the terminal device, a transmission path for the first service data based on the first bearer identifier, the second bearer identifier, and the path configuration information; and transmitting, by the terminal device, the first service data on the transmission path, wherein the selecting, by the terminal device, a transmission path for the first service data based on the first bearer identifier, the second bearer identifier, and the path configuration information comprises: selecting, by the terminal device at a first protocol layer, the transmission path for the first service data based on the first bearer identifier, the second bearer identifier, and the path configuration information.
A construction kit for chocolate or chocolate-like products, comprising the cocoa butter, cocoa powder, polyphenolic powder and cocoa aroma extracts obtained by a method comprising the steps of: (a) adding water to unfermented cocoa beans with or without cocoa pulp and mucilage to form a suspension; (b) wet grinding said suspension comprising unfermented cocoa beans; (c) subjecting said suspension comprising wet-ground, unfermented cocoa beans to a heat treatment at a temperature of 70°C or less; (d) separating the suspension comprising wet-ground, unfermented cocoa beans into a water phase (heavy phase), a fat phase (light phase) and a solid phase, said fat phase comprising cocoa butter as a major component and solids and/or water as minor components and said solid phase comprising cocoa powder and water; and (e) separately processing the three phases, which comprises: separating cocoa butter from the fat phase, separating cocoa powder from the solid phase, and separating cocoa aroma and a polyphenolic powder from at least the water phase, wherein said unfermented cocoa beans are not predried, and wherein said unfermented cocoa beans have been subjected to an incubation step prior to step (a). (a) adding water to unfermented cocoa beans with or without cocoa pulp and mucilage to form a suspension; (b) wet grinding said suspension comprising unfermented cocoa beans; (c) subjecting said suspension comprising wet-ground, unfermented cocoa beans to a heat treatment at a temperature of 70°C or less; (d) separating the suspension comprising wet-ground, unfermented cocoa beans into a water phase (heavy phase), a fat phase (light phase) and a solid phase, said fat phase comprising cocoa butter as a major component and solids and/or water as minor components and said solid phase comprising cocoa powder and water; and (e) separately processing the three phases, which comprises: separating cocoa butter from the fat phase, separating cocoa powder from the solid phase, and separating cocoa aroma and a polyphenolic powder from at least the water phase, separating cocoa butter from the fat phase, separating cocoa powder from the solid phase, and separating cocoa aroma and a polyphenolic powder from at least the water phase,
A method for wireless communication by a user equipment, UE, comprising: receiving, in a first message of a Random Access Channel, RACH, procedure, a request from a base station, BS, to report information relating to a plurality of BS beams; reporting, in a second message of the RACH procedure in response to the request, the information relating to one or more of the plurality of BS beams, the information including information regarding at least one beam group at the UE, each beam group including one or more BS beams measured by a different antenna subarray at the UE; and receiving, in a third message of the RACH procedure, configuration information including information relating to one or more beam pair links configured for communication between the UE and the BS based on the reported information, wherein the configuration information at least includes information regarding an identification of a BS beam to be used for the communication between the UE and the BS and further comprises an identification of a beam group as reported by the UE. receiving, in a first message of a Random Access Channel, RACH, procedure, a request from a base station, BS, to report information relating to a plurality of BS beams; reporting, in a second message of the RACH procedure in response to the request, the information relating to one or more of the plurality of BS beams, the information including information regarding at least one beam group at the UE, each beam group including one or more BS beams measured by a different antenna subarray at the UE; and receiving, in a third message of the RACH procedure, configuration information including information relating to one or more beam pair links configured for communication between the UE and the BS based on the reported information, wherein the configuration information at least includes information regarding an identification of a BS beam to be used for the communication between the UE and the BS and further comprises an identification of a beam group as reported by the UE.
A communication network comprising: a first communication device (10A; 10F, 10G, 10H) connected in a conductive state to a first power line extending from a secondary side of a transformer in a high-voltage power receiving apparatus to a primary side of breakers in a plurality of distribution boards (200, 200A, 200B) that receive power supply from the transformer, said first communication device (10A; 10F, 10G, 10H) performing power line communication using said first power line as a transmission path; and a plurality of second communication devices (10B, 10C) respectively connected to a plurality of second power lines respectively extending from a secondary side of said breakers in said plurality of distribution boards (200, 200A, 200B), each of said plurality of second communication devices (10B, 10C) performing power line communication using each of the second power lines respectively connected thereto as a transmission path, wherein upon receipt of a communication signal, said first communication device (10A; 10F, 10G, 10H) generates a new communication signal including information included in said communication signal and sends said new communication signal through power line communication, upon receipt of a communication signal, each of said plurality of second communications devices (10B, 10C) generates a new communication signal including information included in said communication signal and sends said new communication signal through power line communication and wireless communication, said high-voltage power receiving apparatus has a plurality of transformers (TN1, TN2, TN3) therein, said first communication device (10F, 10G, 10H) is provided for each of the transformers (TN1, TN2, TN3) in said high-voltage power receiving apparatus, and said first communication device (10F, 10G, 10H) includes a wireless communication section that performs wireless communication. a first communication device (10A; 10F, 10G, 10H) connected in a conductive state to a first power line extending from a secondary side of a transformer in a high-voltage power receiving apparatus to a primary side of breakers in a plurality of distribution boards (200, 200A, 200B) that receive power supply from the transformer, said first communication device (10A; 10F, 10G, 10H) performing power line communication using said first power line as a transmission path; and a plurality of second communication devices (10B, 10C) respectively connected to a plurality of second power lines respectively extending from a secondary side of said breakers in said plurality of distribution boards (200, 200A, 200B), each of said plurality of second communication devices (10B, 10C) performing power line communication using each of the second power lines respectively connected thereto as a transmission path,
An induction-heating cooker (10, 110) comprising: a heating coil (16, 116); an insulation plate (18, 118) on which the heating coil (16, 116) is placed; a ferrite (20, 120) on which the insulation plate (18, 118) is placed; a support body (22, 122, 222) made of a nonmagnetic metal material having a main upper surface (22a, 122a, 222a, 140e) on which the ferrite (20, 120) is placed; characterized in that the insulation plate (18, 118) is bonded on the ferrite (20, 120); the ferrite (20, 120) is bonded on the main upper surface (22a, 122a, 222a, 140e) of the support body (22, 122, 222); a plurality of protrusions (22b - 22f, 122b, 122c, 222b) protrude on the main upper surface (22a, 122a, 222a, 140e) of the support body (22, 122, 222) in a predetermined pattern at lower than a thickness of the ferrite (20, 120) for positioning the ferrite (20, 120) on the main upper surface (22a, 122a, 222a, 140e) of the support body (22, 122, 222) in a direction parallel to the main upper surface (22a, 122a, 222a, 140e) of the support body (22, 122, 222). a heating coil (16, 116); an insulation plate (18, 118) on which the heating coil (16, 116) is placed; a ferrite (20, 120) on which the insulation plate (18, 118) is placed; a support body (22, 122, 222) made of a nonmagnetic metal material having a main upper surface (22a, 122a, 222a, 140e) on which the ferrite (20, 120) is placed; characterized in that the insulation plate (18, 118) is bonded on the ferrite (20, 120); the ferrite (20, 120) is bonded on the main upper surface (22a, 122a, 222a, 140e) of the support body (22, 122, 222); a plurality of protrusions (22b - 22f, 122b, 122c, 222b) protrude on the main upper surface (22a, 122a, 222a, 140e) of the support body (22, 122, 222) in a predetermined pattern at lower than a thickness of the ferrite (20, 120) for positioning the ferrite (20, 120) on the main upper surface (22a, 122a, 222a, 140e) of the support body (22, 122, 222) in a direction parallel to the main upper surface (22a, 122a, 222a, 140e) of the support body (22, 122, 222).
A light irradiation method for irradiating a light absorbing material for absorbing light with a light beam having a wavelength absorbable by the light absorbing material, the light irradiation method characterized by correcting astigmatism of the light beam by a phase distribution converter having different focal points in X axis direction and in Y axis direction; transforming the light beam after correcting the astigmatism into an annular light beam; applying to the light absorbing material, energy that enables the light absorbing material to fly, by a pressure toward an optical axis of the annular light beam, the pressure being produced by the annular light beam in a vaporized region that is present along an outer circumference of the optical axis of the annular light beam and at an interface between a transparent body and the light absorbing material when the light absorbing material is irradiated with the annular light beam of which laser intensity is lower on the optical axis than in the outer circumference of the optical axis, the pressure produced by the annular light beam in the vaporized region being higher than or equal to an outside pressure. correcting astigmatism of the light beam by a phase distribution converter having different focal points in X axis direction and in Y axis direction; transforming the light beam after correcting the astigmatism into an annular light beam; applying to the light absorbing material, energy that enables the light absorbing material to fly, by a pressure toward an optical axis of the annular light beam, the pressure being produced by the annular light beam in a vaporized region that is present along an outer circumference of the optical axis of the annular light beam and at an interface between a transparent body and the light absorbing material when the light absorbing material is irradiated with the annular light beam of which laser intensity is lower on the optical axis than in the outer circumference of the optical axis, the pressure produced by the annular light beam in the vaporized region being higher than or equal to an outside pressure.