mhurhangee/patent-ind-claim-en huggingface dataset:
A washing machine which includes a water tub and an electric motor which rotates a load housed in the water tub and which executes a washing operation including a wash step, a rinse step and a dehydration step, the motor comprising: a stator having a stator coil ; a rotor having a rotor magnet including a first magnet comprised of a permanent magnet with a predetermined coercive force and a second magnet which is comprised of a permanent magnet with a lower coercive force than the first magnet and is easier in flux change; and a control device configured to control energization of the stator coil thereby to change magnetic flux of the second magnet , wherein the control device is configured to magnetize the second magnet in the wash step of the washing operation so that the magnetic flux of the rotor magnet acting on the stator is increased; and wherein the control device is configured to magnetize the second magnet in the dehydration step of the washing operation so that the magnetic flux of the rotor magnet acting on the stator is reduced as compared with the magnetic flux in the wash step. a stator having a stator coil ; a rotor having a rotor magnet including a first magnet comprised of a permanent magnet with a predetermined coercive force and a second magnet which is comprised of a permanent magnet with a lower coercive force than the first magnet and is easier in flux change; and a control device configured to control energization of the stator coil thereby to change magnetic flux of the second magnet , wherein the control device is configured to magnetize the second magnet in the wash step of the washing operation so that the magnetic flux of the rotor magnet acting on the stator is increased; and wherein the control device is configured to magnetize the second magnet in the dehydration step of the washing operation so that the magnetic flux of the rotor magnet acting on the stator is reduced as compared with the magnetic flux in the wash step.
A solar cell , comprising: a substrate comprising a front side and a rear side , wherein at least the front side receives light; a multiplicity of rear side solder pad regions at least partially arranged over the rear side , wherein adjacent rear side solder pad regions are separated by a first distance; wherein each of the multiplicity of the rear side solder pad regions is configured to include a rear side solder pad formed by a plurality of partial solder pads , wherein adjacent partial solder pads in a respective rear side solder pad region are separated by a second distance, wherein each partial solder pad is configured to comprise a first metal and is configured to be partly overlapped by a rear side metallization formed at the rear side of the substrate , and wherein the rear side metallization is configured to comprise a second metal different from the first metal, wherein the maximum overlap of the second metal on the first metal is 0.3 mm; characterized in that the plurality of solder pads are separated from each other by a dielectric material arranged laterally between partial solder pads within each of the solder pad regions . a substrate comprising a front side and a rear side , wherein at least the front side receives light; a multiplicity of rear side solder pad regions at least partially arranged over the rear side , wherein adjacent rear side solder pad regions are separated by a first distance; wherein each of the multiplicity of the rear side solder pad regions is configured to include a rear side solder pad formed by a plurality of partial solder pads , wherein adjacent partial solder pads in a respective rear side solder pad region are separated by a second distance, wherein each partial solder pad is configured to comprise a first metal and is configured to be partly overlapped by a rear side metallization formed at the rear side of the substrate , and wherein the rear side metallization is configured to comprise a second metal different from the first metal, wherein the maximum overlap of the second metal on the first metal is 0.3 mm; characterized in that the plurality of solder pads are separated from each other by a dielectric material arranged laterally between partial solder pads within each of the solder pad regions .
A radiation therapy system comprising: a particle therapy delivery system for delivery of radiation therapy to a patient via a particle beam; a magnetic resonance imaging system configured to obtain patient magnetic resonance imaging, MRI, data during radiation therapy; a controller configured to receive the patient MRI data during radiation therapy and utilize the patient MRI data to perform real-time calculations of a location of dose deposition for the particle beam, taking into account interaction properties of soft tissues through which the particle beam passes; a dosimetry system for monitoring the radiation therapy to the patient; and a magnetic shielding structure surrounding at least a portion of the dosimetry system. a particle therapy delivery system for delivery of radiation therapy to a patient via a particle beam; a magnetic resonance imaging system configured to obtain patient magnetic resonance imaging, MRI, data during radiation therapy; a controller configured to receive the patient MRI data during radiation therapy and utilize the patient MRI data to perform real-time calculations of a location of dose deposition for the particle beam, taking into account interaction properties of soft tissues through which the particle beam passes; a dosimetry system for monitoring the radiation therapy to the patient; and a magnetic shielding structure surrounding at least a portion of the dosimetry system.
A vehicle skeleton member comprising: a hat-shaped member with a hat-shaped cross section; a closing plate ; a reinforcement member ; and a plurality of welds , wherein the hat-shaped member includes a first top plate , two first walls , and two flanges , the first top plate is located between the two first walls , each of the first walls is located between the top plate and the associated one of the flanges , the flanges are joined to the closing plate , the reinforcement member includes a second top plate and two second walls , the second top plate is located between the two second walls , each of the first walls and the associated one of the second walls are overlaid on each other, the plurality of welds join the first walls and the second walls , the plurality of welds joining the first and second walls are located at positions on the first walls closer to the closing plate than a middle surface (C1) between the first top plate and the closing plate is, characterized in that , a tensile strength of the second walls is higher than a tensile strength of the first walls , in each of the second walls , an edge opposite to an edge adjacent to the second top plate provides an edge segment of the reinforcement member, an edge of a notch, an edge of a hole or a cut in the second wall constitutes the edge segment and the edge segment of the reinforcement member is located between the plurality of welds . a hat-shaped member with a hat-shaped cross section; a closing plate ; a reinforcement member ; and a plurality of welds , wherein the hat-shaped member includes a first top plate , two first walls , and two flanges , the first top plate is located between the two first walls , each of the first walls is located between the top plate and the associated one of the flanges , the flanges are joined to the closing plate , the reinforcement member includes a second top plate and two second walls , the second top plate is located between the two second walls , each of the first walls and the associated one of the second walls are overlaid on each other, the plurality of welds join the first walls and the second walls , the plurality of welds joining the first and second walls are located at positions on the first walls closer to the closing plate than a middle surface (C1) between the first top plate and the closing plate is, characterized in that , a tensile strength of the second walls is higher than a tensile strength of the first walls , in each of the second walls , an edge opposite to an edge adjacent to the second top plate provides an edge segment of the reinforcement member, an edge of a notch, an edge of a hole or a cut in the second wall constitutes the edge segment and the edge segment of the reinforcement member is located between the plurality of welds .
Method for manufacture of a copper profile from a copper starting material , in particular of a copper wire, comprising the following steps - electrolytic purification of the copper starting material, whereby the copper starting material is introduced in a copper-containing electrolyte in an electrolytic bath comprising at least one electrode , the electrode is polarised by means of a voltage supply and the copper starting material is polarised by way of the electrolyte, so that the copper starting material is free of any direct voltage supply, whereby the electrode or the electrodes is or are polarised cathodically, so that copper detaches itself from the copper starting material in the electrolytic bath, whereby a further electrolytic bath is connected upstream and/or downstream of the electrolytic bath , whereby the at least one electrode or the electrodes of the further electrolytic bath is or are polarised anodically, so that copper from the copper-containing electrolyte of the further electrolytic bath is deposited onto the copper starting material and - extrusion of the electrolytically purified copper starting material through a forming die, so that the copper profile is obtained. - electrolytic purification of the copper starting material, whereby the copper starting material is introduced in a copper-containing electrolyte in an electrolytic bath comprising at least one electrode , the electrode is polarised by means of a voltage supply and the copper starting material is polarised by way of the electrolyte, so that the copper starting material is free of any direct voltage supply, whereby the electrode or the electrodes is or are polarised cathodically, so that copper detaches itself from the copper starting material in the electrolytic bath, whereby a further electrolytic bath is connected upstream and/or downstream of the electrolytic bath , whereby the at least one electrode or the electrodes of the further electrolytic bath is or are polarised anodically, so that copper from the copper-containing electrolyte of the further electrolytic bath is deposited onto the copper starting material and - extrusion of the electrolytically purified copper starting material through a forming die, so that the copper profile is obtained.
A ferromagnetic amorphous alloy ribbon, comprising: an alloy having a composition represented by Fe a Si b B c C d where 80.5 ≤ a ≤ 83 at.%, 0.5 ≤ b ≤ 6 at.%, 12 ≤ c ≤ 16.5 at.%, 0.01 ≤ d ≤ 1 at.% with a + b + c + d = 100 and incidental impurities, being cast from a molten state of the alloy with a molten alloy surface tension of greater than or equal to 1.1 N/m on a chill body surface; the ribbon having a ribbon length, a ribbon thickness, and a ribbon surface facing the chill body surface; the ribbon having ribbon surface protrusions being formed on the ribbon surface facing the chill body surface; the ribbon surface protrusions being measured in terms of a protrusion height and a number of protrusions; the protrusion height exceeding 3 μm and less than four times the ribbon thickness, and the number of protrusions being less than 10 within 1.5 m of the ribbon length; and the ribbon having a saturation magnetic induction exceeding 1.60 T and exhibiting a magnetic core loss of less than 0.14 W/kg when measured in an annealed straight strip form at 60 Hz and at 1.3 T induction level. an alloy having a composition represented by Fe a Si b B c C d where 80.5 ≤ a ≤ 83 at.%, 0.5 ≤ b ≤ 6 at.%, 12 ≤ c ≤ 16.5 at.%, 0.01 ≤ d ≤ 1 at.% with a + b + c + d = 100 and incidental impurities, being cast from a molten state of the alloy with a molten alloy surface tension of greater than or equal to 1.1 N/m on a chill body surface; the ribbon having a ribbon length, a ribbon thickness, and a ribbon surface facing the chill body surface; the ribbon having ribbon surface protrusions being formed on the ribbon surface facing the chill body surface; the ribbon surface protrusions being measured in terms of a protrusion height and a number of protrusions; the protrusion height exceeding 3 μm and less than four times the ribbon thickness, and the number of protrusions being less than 10 within 1.5 m of the ribbon length; and the ribbon having a saturation magnetic induction exceeding 1.60 T and exhibiting a magnetic core loss of less than 0.14 W/kg when measured in an annealed straight strip form at 60 Hz and at 1.3 T induction level.
A method for generating and detecting ultrasonic surface displacements on a remote target comprising: generating ultrasonic surface displacements at a surface of the remote target ; generating a detection laser beam ; optically filtering the detection laser beam by passing the detection laser beam through an optical resonant cavity with high finesse, wherein the optical resonant cavity with high finesse comprises a Sagnac cavity ; directing the detection laser beam to the surface of the target to produce light phase modulated by the ultrasonic displacements ; collecting the phase modulated light; and processing the phase modulated light to obtain data representative of the ultrasonic surface displacements at the surface . generating ultrasonic surface displacements at a surface of the remote target ; generating a detection laser beam ; optically filtering the detection laser beam by passing the detection laser beam through an optical resonant cavity with high finesse, wherein the optical resonant cavity with high finesse comprises a Sagnac cavity ; directing the detection laser beam to the surface of the target to produce light phase modulated by the ultrasonic displacements ; collecting the phase modulated light; and processing the phase modulated light to obtain data representative of the ultrasonic surface displacements at the surface .
A battery mounting structure for a vehicle , the battery mounting structure comprising: a plurality of vehicle body frame members that is arrayed in a vehicle width direction of the vehicle and is part of a lower frame of a vehicle body ; and a plurality of cell stacks that each include a plurality of single cells , characterized in that each of the cell stacks is configured to be restrained onto the vehicle body by being sandwiched between the vehicle body frame members directly or through another member such that each of the cell stacks is subjected to a compressive force (F) from the plurality of vehicle body frame members in a stacking direction of the single cells . a plurality of vehicle body frame members that is arrayed in a vehicle width direction of the vehicle and is part of a lower frame of a vehicle body ; and a plurality of cell stacks that each include a plurality of single cells , characterized in that each of the cell stacks is configured to be restrained onto the vehicle body by being sandwiched between the vehicle body frame members directly or through another member such that each of the cell stacks is subjected to a compressive force (F) from the plurality of vehicle body frame members in a stacking direction of the single cells .
A travel control device that controls a travel of a vehicle such that a vehicle speed is set to a target speed, the travel control device comprising: a road information acquiring section that acquires information of a road in a predetermined section ahead of the vehicle that travels with an accelerator opening of a first opening; a vehicle information acquiring section that acquires information of the vehicle; a speed estimating section that estimates, based on the information of the road and the information of the vehicle, a transition of a vehicle speed in the predetermined section of a case where the vehicle travels with the accelerator opening of a second opening that is greater than the first opening; and an accelerator control section that sets the accelerator opening of the vehicle to the second opening when a minimum value of the transition of the vehicle speed estimated by the speed estimating section is smaller than the target speed, wherein the road information acquiring section calculates a distance based on the product of the present vehicle speed and a predetermined time, and sets, as the predetermined section, a section corresponding to the calculated distance as measured from the present point of the vehicle in the road ahead. a road information acquiring section that acquires information of a road in a predetermined section ahead of the vehicle that travels with an accelerator opening of a first opening; a vehicle information acquiring section that acquires information of the vehicle; a speed estimating section that estimates, based on the information of the road and the information of the vehicle, a transition of a vehicle speed in the predetermined section of a case where the vehicle travels with the accelerator opening of a second opening that is greater than the first opening; and an accelerator control section that sets the accelerator opening of the vehicle to the second opening when a minimum value of the transition of the vehicle speed estimated by the speed estimating section is smaller than the target speed, wherein the road information acquiring section calculates a distance based on the product of the present vehicle speed and a predetermined time, and sets, as the predetermined section, a section corresponding to the calculated distance as measured from the present point of the vehicle in the road ahead.
A polarizer, comprising: a base layer ; and a wire grid layer (WG) which is disposed on the base layer and which includes a plurality of wire metal patterns extending along a first direction (D2), the plurality of wire metal patterns spaced apart from each other along a second direction (D1) crossing the first direction (D2), wherein the wire grid layer (WG) is made of an aluminum (Al) alloy containing nickel (Ni) and lanthanum (La), and wherein the content of nickel (Ni) in the aluminum (Al) alloy is 0.01 at% to 0.08 at%, and the content of lanthanum (La) in the aluminum (Al) alloy is 0.01 at% to 0.08 at%. a base layer ; and a wire grid layer (WG) which is disposed on the base layer and which includes a plurality of wire metal patterns extending along a first direction (D2), the plurality of wire metal patterns spaced apart from each other along a second direction (D1) crossing the first direction (D2), wherein the wire grid layer (WG) is made of an aluminum (Al) alloy containing nickel (Ni) and lanthanum (La), and wherein the content of nickel (Ni) in the aluminum (Al) alloy is 0.01 at% to 0.08 at%, and the content of lanthanum (La) in the aluminum (Al) alloy is 0.01 at% to 0.08 at%.
A system for a scalable coolant distribution unit, CDU, comprising: a parameters engine configured to determine real time pump parameters of a first CDU, wherein the real time pump parameters correspond to a functionality of the first CDU; a pump engine configured to alter pump parameters of the first CDU based on the real time pump parameters; a communication engine configured to automatically send the altered pump parameters of the first CDU to a second CDU; the pump engine configured to alter pump parameters of the second CDU based on the altered pump parameters of the first CDU and determined real time pump parameters of the second CDU; and a functionality engine configured to determine a functionality of the first CDU and the second CDU based on the real time pump parameters and altered pump parameters. a parameters engine configured to determine real time pump parameters of a first CDU, wherein the real time pump parameters correspond to a functionality of the first CDU; a pump engine configured to alter pump parameters of the first CDU based on the real time pump parameters; a communication engine configured to automatically send the altered pump parameters of the first CDU to a second CDU; the pump engine configured to alter pump parameters of the second CDU based on the altered pump parameters of the first CDU and determined real time pump parameters of the second CDU; and a functionality engine configured to determine a functionality of the first CDU and the second CDU based on the real time pump parameters and altered pump parameters.
A process for the preparation of a compound of Formula I comprising: a) reacting a compound of Formula II with a compound of Formula III to obtain a compound of Formula IV, where the compound of Formula II is, wherein the compound of Formula III is, wherein the compound of Formula IV is, and wherein 'X' represents a halogen; b) cyclizing the compound of Formula IV to obtain a compound of Formula V, wherein the compound of Formula V is, c) converting the compound of Formula V into a compound of Formula VI, where the compound of Formula VI is, and d) converting the compound of Formula VI into the compound of Formula I, wherein the compound of Formula I is a) reacting a compound of Formula II with a compound of Formula III to obtain a compound of Formula IV, where the compound of Formula II is, wherein the compound of Formula III is, wherein the compound of Formula IV is, and wherein 'X' represents a halogen; b) cyclizing the compound of Formula IV to obtain a compound of Formula V, wherein the compound of Formula V is, c) converting the compound of Formula V into a compound of Formula VI, where the compound of Formula VI is, and d) converting the compound of Formula VI into the compound of Formula I, wherein the compound of Formula I is
A population of microcapsules comprising a core material surrounded by a wall material comprising the reaction product of a polysaccharide having pendant amine groups reactive with an initiator of formula 1 and at least one multifunctional (meth)acrylate monomer free radically polymerized with the initiator of formula 1 wherein each R is independently selected from hydrogen, C 1 to C 8 alkyl, or a cyano group; wherein each y is independently an integer from 1 to 8.