mhurhangee/patent-ind-claim-en huggingface dataset:
Method for measuring parameters of an optical beam emitted by a LIDAR , said method comprising: - calculating a position and a direction of an attachment zone of a movement system on which an optical device is attached, such that an alignment axis of the attachment zone coincides with an expected emission axis of the optical beam, the calculation being carried out based on data relating to a direction of emission of the beam emitted by the LIDAR, - positioning the attachment zone, with respect to the LIDAR, in the calculated position, - measuring one or more parameters of the optical beam by the optical device. - calculating a position and a direction of an attachment zone of a movement system on which an optical device is attached, such that an alignment axis of the attachment zone coincides with an expected emission axis of the optical beam, the calculation being carried out based on data relating to a direction of emission of the beam emitted by the LIDAR, - positioning the attachment zone, with respect to the LIDAR, in the calculated position, - measuring one or more parameters of the optical beam by the optical device.
A composition for reducing and/or preventing harmful effects of alcohol consumption comprising in a dosage form 600-4000 mg of a cysteine compound, a pharmaceutically acceptable magnesium salt, a pharmaceutically acceptable zinc salt, vitamin B1, vitamin B2, vitamin B3, vitamin B5, vitamin B6 and vitamin B12, wherein the cysteine compound is N-acetylcysteine.
A secondary battery capacity recovery method comprising: fixing a secondary battery with deteriorated lifespan characteristics to a clamping unit ; heating the secondary battery with deteriorated lifespan characteristics while pressing the secondary battery with deteriorated lifespan characteristics to compress a positive electrode, negative electrode, or separator included in the secondary battery; and charging/discharging the secondary battery with deteriorated lifespan characteristics, while pressing and heating the secondary battery with deteriorated lifespan characteristics after being fixed to the clamping unit . fixing a secondary battery with deteriorated lifespan characteristics to a clamping unit ; heating the secondary battery with deteriorated lifespan characteristics while pressing the secondary battery with deteriorated lifespan characteristics to compress a positive electrode, negative electrode, or separator included in the secondary battery; and charging/discharging the secondary battery with deteriorated lifespan characteristics, while pressing and heating the secondary battery with deteriorated lifespan characteristics after being fixed to the clamping unit .
A molding tool for producing a composite part using induction heating, comprising: a mold , having a contact surface adapted to be in contact with a material to be transformed into a composite part (A), and an outer surface ; at least one main coil arranged in a meander-like pattern on the outer surface of the mold , such that an alternating electric current flowing through the at least one main coil is to its major extent directed in, alternatingly, opposite directions over the outer surface of the mold , following the meander-like pattern, wherein the magnetic field generated by said current is configured to induce currents in at least parts of the mold to be heated; and at least one perimeter coil arranged on the outer surface of the mold and configured to delimit at least one area of the mold to be inductively heated; wherein the mold is configured to be inductively heated by the at least one main coil and the at least one perimeter coil ; and wherein the at least one main coil and the at least one perimeter coil comprise wires which are electrically insulated from the mold and in operative communication with at least one processing means , characterised in that the wires are litz wires. a mold , having a contact surface adapted to be in contact with a material to be transformed into a composite part (A), and an outer surface ; at least one main coil arranged in a meander-like pattern on the outer surface of the mold , such that an alternating electric current flowing through the at least one main coil is to its major extent directed in, alternatingly, opposite directions over the outer surface of the mold , following the meander-like pattern, wherein the magnetic field generated by said current is configured to induce currents in at least parts of the mold to be heated; and at least one perimeter coil arranged on the outer surface of the mold and configured to delimit at least one area of the mold to be inductively heated; wherein the mold is configured to be inductively heated by the at least one main coil and the at least one perimeter coil ; and wherein the at least one main coil and the at least one perimeter coil comprise wires which are electrically insulated from the mold and in operative communication with at least one processing means , characterised in that the wires are litz wires.
Inverter for an electric machine , comprising a plurality of switching modules being part of a power unit of the inverter , wherein the power unit is configured to provide a multiphase AC output current and each switching module is connected to an output phase of the inverter , wherein the inverter further comprises a cooling channel configured to conduct a coolant and coupled thermally with the switching modules for dissipating heat generated by the switching modules , wherein before a first switching module with respect to a flow direction of the coolant a redirection structure is disposed, wherein between a pair of adjacent switching modules with respect to the flow direction a further redirection structure is disposed characterized in that the further redirection structure is configured to redirect the coolant by an angle of at least 95°.
Use as an anti-flaking agent of at least one selected from the group consisting of (A) a compound having a specific volume resistivity of 1.0 × 10 10 Ω·cm or less, wherein the compound (A) is a diester selected from the group consisting of dimethyl phthalate, dimethyl maleate, diethyl malonate, dibutyl malonate, and dihexyl malonate.
An apparatus for producing a multi-layer extrudate comprising an intermediate material interposed between at least two layers of outer material, the apparatus comprising an arrangement of ducts which includes a first duct and a second duct through which respective lateral flows (F1, F2) of outer material can flow, the arrangement of ducts also including a further duct through which a central flow comprising at least the intermediate material can flow, the apparatus further comprising at least one obstructing element (8a, 8b; 28a, 28b; 80a, 80b) for interacting at least with the central flow while the central flow is advancing in an advancement direction (A), wherein said at least one obstructing element (8a, 8b; 28a, 28b; 80a, 80b) is movable with a movement having a component directed transversally to the advancement direction (A), so as to obstruct the central flow in the advancement direction (A) at preset intervals, wherein said movement is a linear forward and backward movement by means of which said at least one obstructing element (8a, 8b; 28a, 28b; 80a, 80b) is displaceable between a first operating position (P1) and a second operating position (P2), characterized in that the apparatus further comprises another obstructing element (8a, 8b; 28a, 28b; 80a, 80b) operating in conjunction with said at least one obstructing element (8a, 8b; 28a, 28b; 80a, 80b) to obstruct the central flow in the second operating position (P2).
A computer program product for facilitating processing within a computing environment, the computer program product comprising: one or more computer readable storage media and program instructions collectively stored on the one or more computer readable storage media to perform a method comprising: executing a single instruction to perform scaling, converting and splitting operations, the executing the instruction comprising: scaling an input value in one format to provide a scaled result; converting the scaled result from the one format to provide a converted result in another format; splitting, using normalization and truncation, the converted result into multiple parts; placing one or more parts of the multiple parts in a selected location; and wherein the scaling, converting, splitting and placing are performed as part of executing the single instruction. one or more computer readable storage media and program instructions collectively stored on the one or more computer readable storage media to perform a method comprising: executing a single instruction to perform scaling, converting and splitting operations, the executing the instruction comprising: scaling an input value in one format to provide a scaled result; converting the scaled result from the one format to provide a converted result in another format; splitting, using normalization and truncation, the converted result into multiple parts; placing one or more parts of the multiple parts in a selected location; and wherein the scaling, converting, splitting and placing are performed as part of executing the single instruction. scaling an input value in one format to provide a scaled result; converting the scaled result from the one format to provide a converted result in another format; splitting, using normalization and truncation, the converted result into multiple parts; placing one or more parts of the multiple parts in a selected location; and wherein the scaling, converting, splitting and placing are performed as part of executing the single instruction.
A start control unit for a steam turbine plant, characterized by inputting a measured value of a steam temperature fed to a steam turbine , a measured value or an estimated value of a rotor temperature of the steam turbine , and a measured value of a casing temperature of the steam turbine , and controlling a steam flow rate so as to increase the steam flow rate fed to the steam turbine when a difference between the steam temperature and the rotor temperature is smaller than a first regulated value and a difference between the rotor temperature and the casing temperature is a second regulated value or larger.
An electrochemical device, comprising a first electrode plate, the first electrode plate comprises: a current collector; and an active material layer provided on the current collector, the active material layer comprises a first layer and a second layer, the second layer is provided between the current collector and the first layer, the first layer comprises a first conductive agent, and the second layer comprises a second conductive agent; wherein, 1%≤a2-a1≤3%, al is a mass percentage content of the first conductive agent based on the mass of the first layer, a2 is a mass percentage content of the second conductive agent based on the mass of the second layer. a current collector; and an active material layer provided on the current collector, the active material layer comprises a first layer and a second layer, the second layer is provided between the current collector and the first layer, the first layer comprises a first conductive agent, and the second layer comprises a second conductive agent; wherein, 1%≤a2-a1≤3%, al is a mass percentage content of the first conductive agent based on the mass of the first layer, a2 is a mass percentage content of the second conductive agent based on the mass of the second layer.
An exoskeleton adapted to decrease energy consumption of a user comprising: an exoskeleton trunk adapted to be coupled to an upper body of a user; first and second leg supports rotatably connected to the exoskeleton trunk allowing for the flexion and extension between said leg supports and said exoskeleton trunk , wherein the first and second leg supports are adapted to be coupled to lower limbs of a user and to shift between a stance phase and a swing phase; first and second hip actuators adapted to create torques between said exoskeleton trunk and the first and second leg supports ; and at least one power unit providing power to said first and second hip actuators , characterized in that the at least one power unit is configured to cause the first hip actuator to begin to impose a first torque on one of said first and second leg supports in a forward swing direction when the other of said first and second leg supports strikes the ground, wherein said first torque rises to a nominal value and stays within fifty percent of its nominal value during double stance, toe-off, and a majority of a period from toe-off to heel strike of the one of said first and second leg supports and is zero at heel strike of the one of said first and second leg supports . an exoskeleton trunk adapted to be coupled to an upper body of a user; first and second leg supports rotatably connected to the exoskeleton trunk allowing for the flexion and extension between said leg supports and said exoskeleton trunk , wherein the first and second leg supports are adapted to be coupled to lower limbs of a user and to shift between a stance phase and a swing phase; first and second hip actuators adapted to create torques between said exoskeleton trunk and the first and second leg supports ; and at least one power unit providing power to said first and second hip actuators , characterized in that the at least one power unit is configured to cause the first hip actuator to begin to impose a first torque on one of said first and second leg supports in a forward swing direction when the other of said first and second leg supports strikes the ground, wherein said first torque rises to a nominal value and stays within fifty percent of its nominal value during double stance, toe-off, and a majority of a period from toe-off to heel strike of the one of said first and second leg supports and is zero at heel strike of the one of said first and second leg supports .
A motor comprising: a shaft ; a yoke coupled to the shaft ; a stator disposed between the shaft and the yoke ; a first magnet and a second magnet which are disposed on the yoke ; and a circuit board on which a first Hall sensor disposed to correspond to the first magnet and a second Hall sensor disposed to correspond to the second magnet are disposed, wherein the yoke includes a body and a flange extending laterally from the body , wherein the flange includes a first groove (H1), the first groove (H1) having an open portion facing the circuit board , the first magnet is disposed on an inner circumferential surface of the body , characterized in that H the second magnet is disposed in the first groove (H1), and a second groove (H2) having an open portion in a direction opposite to the first groove (H1) is disposed between the body and the flange , wherein the body and the first groove are spaced apart by the second groove (H2). a shaft ; a yoke coupled to the shaft ; a stator disposed between the shaft and the yoke ; a first magnet and a second magnet which are disposed on the yoke ; and a circuit board on which a first Hall sensor disposed to correspond to the first magnet and a second Hall sensor disposed to correspond to the second magnet are disposed, wherein the yoke includes a body and a flange extending laterally from the body , wherein the flange includes a first groove (H1), the first groove (H1) having an open portion facing the circuit board , the first magnet is disposed on an inner circumferential surface of the body , characterized in that H the second magnet is disposed in the first groove (H1), and a second groove (H2) having an open portion in a direction opposite to the first groove (H1) is disposed between the body and the flange , wherein the body and the first groove are spaced apart by the second groove (H2).
A ride system for an amusement park, comprising: an attraction tower ; a base configured to rotate about the attraction tower and where the attraction tower extends through a center of the base ; a frame coupled to the base , wherein the frame comprises a vertical column; a mount coupled to the vertical column of the frame , wherein the mount is configured to move in a vertical direction along the vertical column of the frame ; and a ride vehicle disposed on the mount , wherein the ride vehicle is configured to carry a passenger. an attraction tower ; a base configured to rotate about the attraction tower and where the attraction tower extends through a center of the base ; a frame coupled to the base , wherein the frame comprises a vertical column; a mount coupled to the vertical column of the frame , wherein the mount is configured to move in a vertical direction along the vertical column of the frame ; and a ride vehicle disposed on the mount , wherein the ride vehicle is configured to carry a passenger.
An image analyzing apparatus for analyzing an orientation of a fiber bundle from a three-dimensional image (G10) of a fiber-reinforced composite material, comprising: an input unit configured to input the three-dimensional image (G10); a binarization processing unit configured to binarize the input three-dimensional image (G10) and to acquire a binary image (G2); an orientation estimation processing unit configured to estimate each orientation of foreground pixels in the binary image (G2) based on an orientation detection filter (F) having a parameter for causing a shape of a detected cross section to have anisotropy; a center extraction processing unit configured to extract center pixels indicating a center of the fiber bundle from a foreground pixel group, in which the orientation thereof was estimated, based on the orientation detection filter (F); a fiber bundle connection processing unit configured to deem center pixels having a same or similar orientation to be a same fiber bundle with regard to the extracted center pixel group, and to connect the center pixels indicating the same fiber bundle; and a meander determination processing unit configured to calculate a meandering amount of the connected center pixel group indicating the same fiber bundle. an input unit configured to input the three-dimensional image (G10); a binarization processing unit configured to binarize the input three-dimensional image (G10) and to acquire a binary image (G2); an orientation estimation processing unit configured to estimate each orientation of foreground pixels in the binary image (G2) based on an orientation detection filter (F) having a parameter for causing a shape of a detected cross section to have anisotropy; a center extraction processing unit configured to extract center pixels indicating a center of the fiber bundle from a foreground pixel group, in which the orientation thereof was estimated, based on the orientation detection filter (F); a fiber bundle connection processing unit configured to deem center pixels having a same or similar orientation to be a same fiber bundle with regard to the extracted center pixel group, and to connect the center pixels indicating the same fiber bundle; and a meander determination processing unit configured to calculate a meandering amount of the connected center pixel group indicating the same fiber bundle.
A resin and fiber composite layup for making a resin and fiber composite member comprising: (a) an outer shell defining a cavity, said outer shell comprising: (i) a plurality of layers of fibers; (ii) a first resinous material disposed between said fibers and securing said fibers to each other; characterized in that (b) a second resinous material consisting of spheres filled with foaming agent disposed inside said cavity; and (c) said spheres of said second resinous material encapsulate a foaming agent having an expansion ratio greater than 30. (d) said outer shell defining a cavity forms a tubular member having first and second end portions, said first and second end portions being configured to seal the inside of said tubular member. (a) an outer shell defining a cavity, said outer shell comprising: (i) a plurality of layers of fibers; (ii) a first resinous material disposed between said fibers and securing said fibers to each other; characterized in that (i) a plurality of layers of fibers; (ii) a first resinous material disposed between said fibers and securing said fibers to each other; (b) a second resinous material consisting of spheres filled with foaming agent disposed inside said cavity; and (c) said spheres of said second resinous material encapsulate a foaming agent having an expansion ratio greater than 30. (d) said outer shell defining a cavity forms a tubular member having first and second end portions, said first and second end portions being configured to seal the inside of said tubular member.
A photovoltaic roof module, comprising: a plurality of photovoltaic roof tiles (702/704/706), wherein each photovoltaic roof tile comprises: a glass front cover ; a back cover comprising glass of photovoltaic backsheet; a plurality of photovoltaic structures (814/824) encapsulated between the glass front cover and the back cover by an encapsulant; wherein a respective photovoltaic structure comprises a first edge busbar positioned near an edge of a first surface and a second edge busbar positioned near an opposite edge of a second surface, and wherein the plurality of photovoltaic structures is arranged in such a way that the first edge busbar of a first photovoltaic structure overlaps the second edge busbar of an adjacent photovoltaic structure, thereby forming a cascaded string; and wherein the cascaded string within a first photovoltaic roof tile and the cascaded string within a second photovoltaic roof tile are electrically coupled to each other in parallel; and further comprising a metallic tab configured to couple corresponding edge busbars of the cascaded strings within the first and second photovoltaic roof tiles, wherein the metallic tab is coupled to a corresponding edge busbar via a strain-relief connector, which comprises an elongated member (802/810/820) and a plurality of laterally extended wires ; wherein the photovoltaic roof tile is configured to function as a roof tile when placed on a rooftop of a building, thereby protecting the building from weather elements. a glass front cover ; a back cover comprising glass of photovoltaic backsheet; a plurality of photovoltaic structures (814/824) encapsulated between the glass front cover and the back cover by an encapsulant; wherein a respective photovoltaic structure comprises a first edge busbar positioned near an edge of a first surface and a second edge busbar positioned near an opposite edge of a second surface, and wherein the plurality of photovoltaic structures is arranged in such a way that the first edge busbar of a first photovoltaic structure overlaps the second edge busbar of an adjacent photovoltaic structure, thereby forming a cascaded string; and wherein the cascaded string within a first photovoltaic roof tile and the cascaded string within a second photovoltaic roof tile are electrically coupled to each other in parallel; and further comprising