mhurhangee/ep-ind-claims huggingface dataset:
An electric motor or generator system for use in a wheel of a vehicle comprising a rotor having a first set of permanent magnets; a stator having a first position sensor, as a Hall sensor or an inductive sensor, mounted on the stator and a second sensor, as a Hall sensor or an inductive sensor, mounted in a diametrically opposite position on the stator relative to the first position sensor, wherein the rotor surrounds the stator, wherein the first position sensor is arranged to output a first signal indicative of a first rotor flux angle associated with the first set of permanent magnets as the rotor rotates relative to the stator; and the second position sensor is arranged to output a second signal indicative of a second rotor flux angle associated with the first set of permanent magnets as the rotor rotates relative to the stator; characterised by means arranged to determine a corrected rotor flux angle by averaging the first rotor flux angle indicated by the first position sensor and the second rotor flux angle indicated by the second position sensor, for cancelling out at the first and second position sensors a varying sinusoidal phase angle offset error between a calculated commutation flux angle resulting from the first set of permanent magnets and the rotor flux angle resulting from drive magnets of the rotor.
A multi-bullet shooting electric gun having a plurality of barrels (11, 12, 13) and including an electric-type compressed air generating unit which blasts a bullet with air in order to shoot each bullet disposed in a cartridge portion of each of the barrels (11, 12, 13), the electric gun comprising: a cylinder assembly configured to have a plurality of cylinders (21, 22, 23) each of which serves as the compressed air generating unit, which are each positioned at rear portions of the plurality of barrels (11, 12, 13), each of which has an air-blast nozzle at a tip end, and in each of which a piston reciprocates; a piston assembly configured to have a plurality of the pistons (31, 32, 33) which respectively reciprocate inside the cylinders and generate compressed air, to bind the plurality of pistons (31, 32, 33) in one place by using a joint portion at the rear, and to be integrally provided with one piston shaft having a rack along a reciprocating direction and the joint portion; and an electric mechanism configured to cause the piston assembly to retract, to cause an elastic member to accumulate pressure, and to drive an output gear meshing with the rack in order to compress air by releasing the accumulated pressure. a cylinder assembly configured to have a plurality of cylinders (21, 22, 23) each of which serves as the compressed air generating unit, which are each positioned at rear portions of the plurality of barrels (11, 12, 13), each of which has an air-blast nozzle at a tip end, and in each of which a piston reciprocates; a piston assembly configured to have a plurality of the pistons (31, 32, 33) which respectively reciprocate inside the cylinders and generate compressed air, to bind the plurality of pistons (31, 32, 33) in one place by using a joint portion at the rear, and to be integrally provided with one piston shaft having a rack along a reciprocating direction and the joint portion; and an electric mechanism configured to cause the piston assembly to retract, to cause an elastic member to accumulate pressure, and to drive an output gear meshing with the rack in order to compress air by releasing the accumulated pressure.
An apparatus for a photon or neutron beam spectrum and intensity profile characterization, the apparatus comprises: - a diffractive element capable of diffracting the beam into spectral components; characterized in that, the device further comprises - a beam block attached to the diffractive element, wherein the beam block blocks a portion of the direct beam that would otherwise reach a fixed detector in a spectrometric mode; - a reflective element configured to receive the spectral components diffracted from the diffractive element; - said fixed detector positioned on an axis of the beam and configured to receive reflected spectral components from the reflective element; and - a device for translation of the beam block and the diffractive element; wherein the device is capable of translation in orthogonal direction with respect to the beam to block or unblock the beam. - a diffractive element capable of diffracting the beam into spectral components; characterized in that, the device further comprises - a beam block attached to the diffractive element, wherein the beam block blocks a portion of the direct beam that would otherwise reach a fixed detector in a spectrometric mode; - a reflective element configured to receive the spectral components diffracted from the diffractive element; - said fixed detector positioned on an axis of the beam and configured to receive reflected spectral components from the reflective element; and - a device for translation of the beam block and the diffractive element; wherein the device is capable of translation in orthogonal direction with respect to the beam to block or unblock the beam.
The use, for increasing viscosity of a personal care composition including a combination of surfactants, comprising at least two of ammonium laureth sulfate, ammonium lauryl sulfate, sodium laureth sulfate, sodium lauryl sulfate, decylglucoside and cocamidopropyl betaine, without concommitant increases in stringiness and reduced spreadability of the composition of at least one derivatized quaternized hydroxyethyl cellulose ether, wherein the quaternized cellulose ether comprises fewer than 4000 anhydroglucose repeat units, an average substitution level of hydrophobic substituents from 0.005 to 0.3 moles of substituent per mole of anhydroglucose unit, a nitrogen percentage from 0.3 to 3.0, provided that the average substitution level of hydrophobic substituents is less than the average substitution level of cationic substituents.
A synthetic combination comprising a purified bacterial population in association with a seed of a Glycine agricultural plant, wherein the purified bacterial population comprises a seed bacterial endophyte that is heterologous to the seed and is of the genus Ochrobactrum sp, wherein the Ochrobactrum sp. comprises a 16S nucleic acid sequence 100% identical to SEQ ID No 699 and produces auxin; wherein the purified Ochrobactrum sp. population is capable of providing increased tolerance to drought to a Glycine agricultural plant produced from the seed as compared to a reference plant grown under the same conditions.
A light source apparatus which generates a light to be supplied to an endoscope, comprising: a light-emitting element (23r, 23g, 23b) that emits a light; an optical element that receives the light emitted from the light-emitting element (23r, 23g, 23b) and emits the received light; a light emission intensity detection section (27r, 27g, 27b) that is arranged at a position where the light emission intensity detection section (27r, 27g, 27b) is able to receive a leak light of the light emitted from the light-emitting element (23r, 23g, 23b), the leak light not being used as an illumination light, and where the light emission intensity detection section (27r, 27g, 27b) is able to receive a light emitted from the light-emitting element (23r, 23g, 23b) and reflected by the optical element, characterized in that the optical element is a lens, and the light emission intensity detection section (27r, 27g, 27b) is arranged in a vicinity of an outside of an entrance pupil of the lens, and the light emission intensity detection section (27r, 27g, 27b) is disposed on a plane contacting an incident surface of the lens at a point of intersection of the incident surface and an optical axis such that a light-receiving surface of the light emission intensity detection section (27r, 27g, 27b) is directed in a direction vertical to the optical axis. a light-emitting element (23r, 23g, 23b) that emits a light; an optical element that receives the light emitted from the light-emitting element (23r, 23g, 23b) and emits the received light; a light emission intensity detection section (27r, 27g, 27b) that is arranged at a position
A positive electrode material comprising a first positive electrode active material represented by Formula 1 below, and a second positive electrode active material represented by Formula 2 below, wherein the first positive electrode active material and the second positive electrode active material are present at a weight ratio of 10:90 to 90:10, the positive electrode material has a bimodal particle size distribution including large diameter particles and small diameter particles, wherein the first positive electrode active material is the small diameter particles and the second positive electrode active material is the large diameter particles, or wherein the first positive electrode active material is the large diameter particles and the second positive electrode active material is the small diameter particles, and a difference in an average particle diameter (D 50) between the large diameter particles and the small diameter particles is 3 um or greater: [Formula 1] Li a [Ni b Co c M 1 d M a e]O 2 wherein, in Formula 1, M 1 is Mn, and M a is one or more elements selected from the group consisting of W, Cu, Fe, V, Cr, Ti, Zr, Zn, Al, In, Ta, Y, La, Sr, Ga, Sc, Gd, Sm, Ca, Ce, Nb, Mg, B, and Mo, and 0.9≤a≤1.2, 0.8≤b<1, 0.01≤c<0.2, 0.01≤d<0.2, and 0≤e≤0.02. [Formula 2] Li x [Ni y Co z Mn w M 2 v M b u]O 2 wherein, in Formula 2, M 2 is Al, and M b is one or more elements selected from the group consisting of W, Cu, Fe, V, Cr, Ti, Zr, Zn, In, Ta, Y, La, Sr, Ga, Sc, Gd, Sm, Ca, Ce, Nb, Mg, B, and Mo, and 0.9≤x≤1.2, 0.8≤y<1, 0.01≤z<0.2, 0.01≤w<0.2, 0.01≤v<0.2, and 0≤u≤0.02. the first positive electrode active material and the second positive electrode active material are present at a weight ratio of 10:90 to 90:10, the positive electrode material has a bimodal particle size distribution including large diameter particles and small diameter particles, wherein the first positive electrode active material is the small diameter particles and the second positive electrode active material is the large diameter particles, or wherein the first positive electrode active material is the large diameter particles and the second positive electrode active material is the small diameter particles, and a difference in an average particle diameter (D 50) between the large diameter particles and the small diameter particles is 3 um or greater: [Formula 1] Li a [Ni b Co c M 1 d M a e]O 2 wherein, in Formula 1, M 1 is Mn, and M a is one or more elements selected from the group consisting of W, Cu, Fe, V, Cr, Ti, Zr, Zn, Al, In, Ta, Y, La, Sr, Ga, Sc, Gd, Sm, Ca, Ce, Nb, Mg, B, and Mo, and 0.9≤a≤1.2, 0.8≤b<1, 0.01≤c<0.2, 0.01≤d<0.2, and 0≤e≤0.02. [Formula 2] Li x [Ni y Co z Mn w M 2 v M b u]O 2 wherein, in Formula 2, M 2 is Al, and M b is one or more elements selected from the group consisting of W, Cu, Fe, V, Cr, Ti, Zr, Zn, In, Ta, Y, La, Sr, Ga, Sc, Gd, Sm, Ca, Ce, Nb, Mg, B, and Mo, and 0.9≤x≤1.2, 0.8≤y<1, 0.01≤z<0.2, 0.01≤w<0.2, 0.01≤v<0.2, and 0≤u≤0.02.
A method for creating a feature on a needle the method comprising: providing a needle having a tube wall defined by an inner diameter and an outer diameter, the needle further having a length; inserting a stylet into a hollow interior of the needle; providing a lubricant between the stylet and the hollow interior of the needle; providing a crimping device having a first anvil and a second anvil (20, 22, 40, 42, 80, 82), the first and second anvils (20, 22, 40, 42, 80, 82) having opposing planar crimping surfaces (30, 32, 44, 46) an opposing portion of each planar crimping surface comprising a singular arched surface having a single curve, wherein a maximum diameter of the singular arched surface (50, 52) is less than the outer diameter of the needle and greater than the inner diameter of the needle; aligning the needle within the singular arched surfaces of the first and second anvils (20, 22, 40, 42, 80, 82) such that a portion of a wall thickness of the needle overlaps the singular arched surfaces and a planar portion of the opposing planar crimping surfaces, the hollow interior of the needle being confined within the singular arched surfaces; and crimping an outer surface of the needle between the planar portions (44, 46) of the opposing planar crimping surfaces such that a sheared portion of the outer surface is displaced outwardly into a gap between the planar portions (44, 46) of the opposing planar crimping surfaces. providing a needle having a tube wall defined by an inner diameter and an outer diameter, the needle further having a length; inserting a stylet into a hollow interior of the needle; providing a lubricant between the stylet and the hollow interior of the needle; providing a crimping device having a first anvil and a second anvil (20, 22, 40, 42, 80, 82), the first and second anvils (20, 22, 40, 42, 80, 82) having opposing planar crimping surfaces (30, 32, 44, 46) an opposing portion of each planar crimping surface comprising a singular arched surface having a single curve, wherein a maximum diameter of the singular arched surface (50, 52) is less than the outer diameter of the needle and greater than the inner diameter of the needle; aligning the needle within the singular arched surfaces of the first and second anvils (20, 22, 40, 42, 80, 82) such that a portion of a wall thickness of the needle overlaps the singular arched surfaces and a planar portion of the opposing planar crimping surfaces, the hollow interior of the needle being confined within the singular arched surfaces; and crimping an outer surface of the needle between the planar portions (44, 46) of the opposing planar crimping surfaces such that a sheared portion of the outer surface is displaced outwardly into a gap between the planar portions (44, 46) of the opposing planar crimping surfaces.
A munition assembly adapted to engage an underwater target, the assembly arranged to be launched from a gun, the assembly comprising: a carrier for a submunition, the carrier comprising a cavity in which the submunition is located; and a submunition, carried by the carrier in the cavity, the submunition arranged to be controllably expelled from the carrier; the submunition comprising: a submunition explosive charge; and a submunition fuze, wherein: the munition assembly is adapted to be launched, into the air, from a gun barrel, where the submunition is then arranged to be controllably expelled from the carrier and enter a body of water; and wherein the submunition fuze is a programmable fuze adapted to trigger the submunition explosive charge underwater in accordance with one or more of: upon detection of a target sonar signature; upon detection of a target magnetic signature; upon detection of a target electric field signature; at a predetermined pressure under the water surface; at a predetermined depth under the water surface; at a predetermined salinity of water; at a predetermined temperature of water; or at a predetermined speed-of-sound in water. a carrier for a submunition, the carrier comprising a cavity in which the submunition is located; and a submunition, carried by the carrier in the cavity, the submunition arranged to be controllably expelled from the carrier; a submunition explosive charge; and a submunition fuze, the munition assembly is adapted to be launched, into the air, from a gun barrel, where the submunition is then arranged to be controllably expelled from the carrier and enter a body of water; and wherein the submunition fuze is a programmable fuze adapted to trigger the submunition explosive charge underwater in accordance with one or more of: upon detection of a target sonar signature; upon detection of a target magnetic signature; upon detection of a target electric field signature; at a predetermined pressure under the water surface; at a predetermined depth under the water surface; at a predetermined salinity of water; at a predetermined temperature of water; or at a predetermined speed-of-sound in water. upon detection of a target sonar signature; upon detection of a target magnetic signature; upon detection of a target electric field signature; at a predetermined pressure under the water surface; at a predetermined depth under the water surface; at a predetermined salinity of water; at a predetermined temperature of water; or at a predetermined speed-of-sound in water.
Method for broadcasting routes in an autonomous system comprising a plurality of routers within a packet transmission network; and respective links connecting said routers according to a router topology; said method comprising the following steps by a first router (rout 1) of the autonomous system which is directly connected according to said topology considered to a second router (rout 2), for a route exiting said autonomous system through an exit router (rout out): /a/ determining a path between the second router and the exit router according to performance criteria based on router topology information, and determining whether, for the route considered, the first router is located on said path between the second router and the exit router, and /b/ announcing the route to said second router if the first router is located on the path determined in step /a/. /a/ determining a path between the second router and the exit router according to performance criteria based on router topology information, and determining whether, for the route considered, the first router is located on said path between the second router and the exit router, and /b/ announcing the route to said second router if the first router is located on the path determined in step /a/.
Electrical-energy transfer device achieving energy transfer through magnetic induction, comprising a first part which comprises a first frontal face and at least one first electrical-energy transfer element, and a second part which comprises at least one second electrical-energy transfer element, the first and second parts (32, 34) being able to move one relative to the other in a direction of closing between a distanced state and a close-up state, the first and second electrical-energy transfer elements being configured to perform a transfer of electrical energy between one another in the close-up state; the first part comprising a first housing opening onto the first frontal face of the first part and comprising at least a first lateral surface, said first housing being configured to at least partially house the second part, the second part having a second lateral surface for each first lateral surface of the first housing of the first part, the second part having an overall shape that complements the shape of the first housing, each first electrical-energy transfer element being positioned at the first lateral surface and each second electrical-energy transfer element being positioned at the second lateral surface and approximately centred with respect to one of the first electrical-energy transfer elements when the first and second parts (32, 34) are in the close-up state, the first part also comprising at least one layer of ferromagnetic elements surrounding the first lateral surface, each first electrical-energy transfer element being positioned between the layer of ferromagnetic elements and the first surface, characterized in that at least one first lateral surface has cross sections which decrease with increasing distance away from the first frontal face, in that the layer of ferromagnetic elements has a substantially identical geometry to the first lateral surface, give or take any scaling, in that the first part comprises at least one centring pin for centring in the first housing, which pin is oriented parallel to the direction of closing, in that the second part comprises at least one second housing configured to house the at least one centring pin, and in that the first part comprises a ferromagnetic element positioned in the centring pin.
A massager controlling apparatus comprising: a setting unit configured to set a massage mode including a massage pattern and a standard operation time required to perform the massage pattern of one cycle according to a user's input; and a control unit configured to control a moving speed of a driving module based on the standard operation time; wherein the control unit includes a body shape calculation unit configured to scan a body of the user to calculate a body shape information including a weight and a spinal length of the user; and a time adjusting unit configured to adjust the moving speed of the driving module so that the massage pattern of one cycle is ended at the standard operation time regardless of the body shape information, increase the standard operation time according to the increase signal of the standard operation time based on the user's input for detailed massage in comparison with the massage pattern according to the standard operation time, decrease the moving speed of the driving module so that perform one cycle of the massage pattern according to the increased standard operating time, and decrease the standard operation time according to the decrease signal of the standard operation time based on the user's input for quick massage in comparison with the massage pattern according to the standard operation time, increase the moving speed of the driving module so that perform one cycle of the massage pattern according to the decreased standard operating time. a setting unit configured to set a massage mode including a massage pattern and a standard operation time required to perform the massage pattern of one cycle according to a user's input; and a control unit configured to control a moving speed of a driving module based on the standard operation time; wherein the control unit includes a body shape calculation unit configured to scan a body of the user to calculate a body shape information including a weight and a spinal length of the user; and a time adjusting unit configured to adjust the moving speed of the driving module so that the massage pattern of one cycle is ended at the standard operation time regardless of the body shape information, increase the standard operation time according to the increase signal of the standard operation time based on the user's input for detailed massage in comparison with the massage pattern according to the standard operation time, decrease the moving speed of the driving module so that perform one cycle of the massage pattern according to the increased standard operating time, and decrease the standard operation time according to the decrease signal of the standard operation time based on the user's input for quick massage in comparison with the massage pattern according to the standard operation time, increase the moving speed of the driving module so that perform one cycle of the massage pattern according to the decreased standard operating time.