mhurhangee/patent-ind-claim-en huggingface dataset:
A particle separator for an additive manufacturing system comprising: an air supply device for producing an airstream ; a hopper containing a mixed powder and configured to feed the powder into the airstream , wherein the mixed powder includes particles of variable weight; a housing configured to receive the airstream including the mixed powder , the housing having an inner wall , an outer wall , and a bend portion generally constructed by the inner and outer walls ; and first and second offtake holes in the housing , wherein a first cross-sectional flow area of the first offtake hole is smaller than a second cross-sectional flow area of the second offtake hole such that the second offtake hole accepts particles with a first size that is larger than a second size of particles that are accepted by the first offtake hole , characterised in that : the first and second offtake holes are disposed downstream of the bend portion with the first offtake hole located closer to the inner wall than the second offtake hole and the second offtake hole located closer to the outer wall than the first offtake hole ; and the particle separator further comprises a turning vane disposed inside the housing and between the inner and outer walls generally at the bend portion . an air supply device for producing an airstream ; a hopper containing a mixed powder and configured to feed the powder into the airstream , wherein the mixed powder includes particles of variable weight; a housing configured to receive the airstream including the mixed powder , the housing having an inner wall , an outer wall , and a bend portion generally constructed by the inner and outer walls ; and first and second offtake holes in the housing , wherein a first cross-sectional flow area of the first offtake hole is smaller than a second cross-sectional flow area of the second offtake hole such that the second offtake hole accepts particles with a first size that is larger than a second size of particles that are accepted by the first offtake hole , characterised in that : the first and second offtake holes are disposed downstream of the bend portion with the first offtake hole located closer to the inner wall than the second offtake hole and the second offtake hole located closer to the outer wall than the first offtake hole ; and the particle separator further comprises a turning vane disposed inside the housing and between the inner and outer walls generally at the bend portion . the first and second offtake holes are disposed downstream of the bend portion with the first offtake hole located closer to the inner wall than the second offtake hole and the second offtake hole located closer to the outer wall than the first offtake hole ; and the particle separator further comprises a turning vane disposed inside the housing and between the inner and outer walls generally at the bend portion .
Alumina exhibiting a structure with a porosity such that the volume of the pores having a diameter of between 7 nm (70 Å) and 200 nm (2000 Å), determined by mercury porosimetry, is between 0.15 and 0.50 ml/g, comprising at least one alkali metal (M), such that the content by weight of alkali metal, expressed as M 2 O, is between 400 and 1500 ppm with respect to the total weight of the alumina, exhibiting a BET specific surface area of at least 150 m 2 /g and containing at most 500 ppm by weight of silica, expressed as SiO 2 , with respect to the total weight of said alumina.
An image generation device that is configured to generate an output image based on an input image captured by a camera attachable to an operation target body, comprising: an output image generation unit that is configured to associate a value of an input pixel in an input image plane where the input image is positioned with a value of an output pixel in an output image plane where the output image is positioned to generate the output image, wherein, when coordinate values for specifying a pixel on the input image and coordinate values for specifying a pixel on the output image are represented as integer values, a value of an output pixel specified by an integer coordinate point on the output image plane is determined based on values of two input pixels specified by two integer coordinate points selected from four integer coordinate points in the vicinity of a real number coordinate point on the input image plane corresponding to the integer coordinate point on the output image plane. an output image generation unit that is configured to associate a value of an input pixel in an input image plane where the input image is positioned with a value of an output pixel in an output image plane where the output image is positioned to generate the output image, wherein, when coordinate values for specifying a pixel on the input image and coordinate values for specifying a pixel on the output image are represented as integer values, a value of an output pixel specified by an integer coordinate point on the output image plane is determined based on values of two input pixels specified by two integer coordinate points selected from four integer coordinate points in the vicinity of a real number coordinate point on the input image plane corresponding to the integer coordinate point on the output image plane.
Device for detecting a direction of motion of a wheel on a rail track, the device being configured to be placed on or near a lateral side of the rail track, the device comprising: at least one permanent magnet for providing a magnetic field; a magnetic field sensor for sensing a magnetic field value indicative for a flux density, or a change in the flux density, of the provided magnetic field; at least one processor in communication with the magnetic field sensor, wherein the at least one processor is configured to: obtain a plurality of the magnetic field values for respective times from the magnetic field sensor; and to analyse the obtained plurality of magnetic field values such that a direction of motion of a wheel passing the device is obtained. at least one permanent magnet for providing a magnetic field; a magnetic field sensor for sensing a magnetic field value indicative for a flux density, or a change in the flux density, of the provided magnetic field; at least one processor in communication with the magnetic field sensor, wherein the at least one processor is configured to: obtain a plurality of the magnetic field values for respective times from the magnetic field sensor; and to analyse the obtained plurality of magnetic field values such that a direction of motion of a wheel passing the device is obtained. obtain a plurality of the magnetic field values for respective times from the magnetic field sensor; and to analyse the obtained plurality of magnetic field values such that a direction of motion of a wheel passing the device is obtained.
A non-aqueous pesticidal macrolide composition comprising: (i) At least 75% by weight of a dipropylene glycol monomethyl ether isomer mixture; (ii) at least 7% by weight of emamectin benzoate, and (iii) optionally, at least one surfactant.
A device for detecting an analyte within a sample , the device comprising: a light source ; an optical detector ; a metallic layer ; and a plurality of dielectric pillars extending through the metallic layer, wherein the optical detector is provided on one side of the metallic layer and the light source is provided on the opposite side of the metallic layer , and wherein a plurality of regions of concentrated light are supported in proximity to the ends of the plurality of dielectric pillars on the same side as the optical detector when the opposite side of the metallic layer is illuminated; characterised in that : the plurality of dielectric pillars are tapered and have larger cross-sections on the side toward the light source and smaller cross-sections on the side toward the optical detector . a light source ; an optical detector ; a metallic layer ; and a plurality of dielectric pillars extending through the metallic layer, wherein the optical detector is provided on one side of the metallic layer and the light source is provided on the opposite side of the metallic layer , and wherein a plurality of regions of concentrated light are supported in proximity to the ends of the plurality of dielectric pillars on the same side as the optical detector when the opposite side of the metallic layer is illuminated; characterised in that : the plurality of dielectric pillars are tapered and have larger cross-sections on the side toward the light source and smaller cross-sections on the side toward the optical detector .
A vehicle battery pack peripheral structure including: a floor assembly constituting a floor of a vehicle; a battery pack located below the floor assembly ; a bracket configured so as to mount the battery pack to the floor assembly ; and an undercover that covers the battery pack from below, the floor assembly including a cross member extending in a vehicle width direction along the floor assembly , the bracket being mounted to the battery pack and the cross member , wherein the cross member is disposed closer to a vehicle front side than a front end of the battery pack in a vehicle front-rear direction, characterized in that : the undercover includes a front panel disposed closer to the vehicle front side than the battery pack and a rear panel located closer to a vehicle rear side than the front panel , the battery pack located above the rear panel but not located above the front panel , wherein a rear-end region of the front panel in the vehicle front-rear direction and a front-end region of the rear panel in the vehicle front-rear direction are coupled to each other at a coupling region , and wherein a fixing region in which the battery pack and the bracket are fixed to each other is located closer to the vehicle rear side than the coupling region . a floor assembly constituting a floor of a vehicle; a battery pack located below the floor assembly ; a bracket configured so as to mount the battery pack to the floor assembly ; and an undercover that covers the battery pack from below, the floor assembly including a cross member extending in a vehicle width direction along the floor assembly , the bracket being mounted to the battery pack and the cross member , wherein the cross member is disposed closer to a vehicle front side than a front end of the battery pack in a vehicle front-rear direction, characterized in that : the undercover includes a front panel disposed closer to the vehicle front side than the battery pack and a rear panel located closer to a vehicle rear side than the front panel , the battery pack located above the rear panel but not located above the front panel , wherein a rear-end region of the front panel in the vehicle front-rear direction and a front-end region of the rear panel in the vehicle front-rear direction are coupled to each other at a coupling region , and wherein a fixing region in which the battery pack and the bracket are fixed to each other is located closer to the vehicle rear side than the coupling region . the undercover includes a front panel disposed closer to the vehicle front side than the battery pack and a rear panel located closer to a vehicle rear side than the front panel , the battery pack located above the rear panel but not located above the front panel , wherein a rear-end region of the front panel in the vehicle front-rear direction and a front-end region of the rear panel in the vehicle front-rear direction are coupled to each other at a coupling region , and wherein a fixing region in which the battery pack and the bracket are fixed to each other is located closer to the vehicle rear side than the coupling region .
A method of transmitting over a digital communications channel, the method implemented at a transmitter-side, comprising: allocating , to a first signal for a first user equipment, a first group of transmission resources from a delay-Doppler plane , which is represented by a first and a second orthogonal axes corresponding to a first transmission dimension and a second transmission dimension respectively, for transmission; allocating , to a second signal for a second user equipment, a second group of transmission resources from the delay-Doppler plane for transmission; transforming, using a first two-dimensional transform , a multiplexing of the first signal having the first group of transmission resources and the second signal having the second group of transmission resources from the delay-Doppler plane to a corresponding transformed signal in a time-frequency plane represented by a third and a fourth orthogonal axes corresponding to a third transmission dimension and a fourth transmission dimension respectively; converting the transformed signal to a formatted signal according to a transmission format of the digital communications channel; and transmitting the formatted signal over the digital communications channel, characterised in that transmission resources used by the first signal and the second signal are non-overlapping in the delay-Doppler plane . allocating , to a first signal for a first user equipment, a first group of transmission resources from a delay-Doppler plane , which is represented by a first and a second orthogonal axes corresponding to a first transmission dimension and a second transmission dimension respectively, for transmission; allocating , to a second signal for a second user equipment, a second group of transmission resources from the delay-Doppler plane for transmission; transforming, using a first two-dimensional transform , a multiplexing of the first signal having the first group of transmission resources and the second signal having the second group of transmission resources from the delay-Doppler plane to a corresponding transformed signal in a time-frequency plane represented by a third and a fourth orthogonal axes corresponding to a third transmission dimension and a fourth transmission dimension respectively; converting the transformed signal to a formatted signal according to a transmission format of the digital communications channel; and transmitting the formatted signal over the digital communications channel, characterised in that transmission resources used by the first signal and the second signal are non-overlapping in the delay-Doppler plane .
A non-naturally occurring zinc finger protein that binds to an Htt gene, the zinc finger protein comprising 5 zinc finger domains ordered F1 to F5, wherein the zinc finger domains comprise the recognition helix region sequences ordered as shown in a single row of the following Table: F1 F2 F3 F4 F5 QSGDLTR (SEQ ID NO:1) QSGDLTR (SEQ ID NO: 1) QSGDLTR (SEQ ID NO:1) KHGNLSE (SEQ ID NO:2) KRCNLRC (SEQ ID NO:3) CPSHLTR (SEQ ID NO:4) QSGDLTR (SEQ ID NO: 1) KHGNLSE (SEQ ID NO:2) KRCNLRC (SEQ ID NO:3) RQFNRHQ (SEQ ID NO:5)
A method comprising: providing a wafer comprising a semiconductor structure grown on a growth substrate , the semiconductor structure comprising a III-nitride light emitting layer sandwiched between an n-type region and a p-type region ; bonding the wafer to a second substrate , wherein the second substrate is transparent and comprises a wavelength converting material disposed in glass; removing the growth substrate ; and after bonding the wafer to the second substrate , processing the wafer into multiple light emitting devices ; characterised in that the second substrate has an index of refraction greater than 1.5 and in that said method further comprises testing the wafer after processing the wafer into multiple light emitting devices ; and altering the thickness of wavelength converting second substrate corresponding to each light emitting device according to results of said testing. providing a wafer comprising a semiconductor structure grown on a growth substrate , the semiconductor structure comprising a III-nitride light emitting layer sandwiched between an n-type region and a p-type region ; bonding the wafer to a second substrate , wherein the second substrate is transparent and comprises a wavelength converting material disposed in glass; removing the growth substrate ; and after bonding the wafer to the second substrate , processing the wafer into multiple light emitting devices ; characterised in that the second substrate has an index of refraction greater than 1.5 and in that said method further comprises testing the wafer after processing the wafer into multiple light emitting devices ; and altering the thickness of wavelength converting second substrate corresponding to each light emitting device according to results of said testing.
A method of evaluating a neutron scattering length density of scatterers in a material, comprising determining the neutron scattering length density, characterized in that the neutron scattering length density is determined based on a scattering intensity curve obtained by neutron scattering measurement, with the neutron scattering measurement being a small-angle neutron scattering measurement, with use of a scattering intensity curve obtained by X-ray scattering measurement, with the X-ray scattering measurement being a small-angle X-ray scattering measurement. determining the neutron scattering length density, characterized in that the neutron scattering length density is determined based on a scattering intensity curve obtained by neutron scattering measurement, with the neutron scattering measurement being a small-angle neutron scattering measurement, with use of a scattering intensity curve obtained by X-ray scattering measurement, with the X-ray scattering measurement being a small-angle X-ray scattering measurement.
A process for the preparation of a reactive electron deficient olefin, steps of which comprise: (a) reacting a cyanoacetate and a source of aldehyde, in the presence of a catalyst comprising a lanthanide element, under appropriate conditions and for a time sufficient to yield a cyanoacrylate and wherein the aldehyde is a member selected from the group consisting of paraformaldeyde, formalin, 1,3,5-trioxan, methylene diacetate, dimethoxymethane and acrolein; (b) optionally, separating from the mixture the so formed cyanoacrylate substantially free from the cyanoacetate, the source of aldehyde and/or the catalyst, and by-products. (a) reacting a cyanoacetate and a source of aldehyde, in the presence of a catalyst comprising a lanthanide element, under appropriate conditions and for a time sufficient to yield a cyanoacrylate and wherein the aldehyde is a member selected from the group consisting of paraformaldeyde, formalin, 1,3,5-trioxan, methylene diacetate, dimethoxymethane and acrolein; (b) optionally, separating from the mixture the so formed cyanoacrylate substantially free from the cyanoacetate, the source of aldehyde and/or the catalyst, and by-products.
A microcapsule composition, comprising an enzyme entrapped in a compartment formed by a membrane, which membrane is produced by cross-linking of (a) a polybranched polyamine having a molecular weight of more than 800 Da, and (b) an aliphatic or aromatic amine having a molecular weight of less than 300 Da; wherein the weight ratio of (a)/(b) is in the range of 0.1 to 1000; and wherein the enzyme is selected from the group consisting of protease, metalloprotease, subtilisin, amylase, lipase, cutinase, cellulase, mannanase, pectinase, xanthanase, DNase, laccase, peroxidase, haloperoxidase, perhydrolase, and combinations thereof.
A method of determining integrity of a closed container comprising at least one gas, said method comprising: applying a mechanical force to at least one side of said container; characterized by transmitting a light signal across at least a portion of an outside surface of at least one side of said container using an optical sensor; said optical sensor being sensitive to said at least one gas inside said container; wherein said optical sensor comprises a light source being a tunable diode laser, and a detector and said light is transmitted between said light source and said detector ; detecting said transmitted light signal ; determining , based on said transmitted light signal being detected and Tunable Diode Laser Absorption Spectroscopy (TDLAS), if a level of said at least one gas inside said container has changed outside of said container . applying a mechanical force to at least one side of said container; characterized by transmitting a light signal across at least a portion of an outside surface of at least one side of said container using an optical sensor; said optical sensor being sensitive to said at least one gas inside said container; wherein said optical sensor comprises a light source being a tunable diode laser, and a detector and said light is transmitted between said light source and said detector ; detecting said transmitted light signal ; determining , based on said transmitted light signal being detected and Tunable Diode Laser Absorption Spectroscopy (TDLAS), if a level of said at least one gas inside said container has changed outside of said container .
Distribution box for precision seed-drills including a drilled disc mounted in a rotating manner on a rotation axis for seed separation assisted by an airflow, said disc separating said seeds from the airflow and having drilling holes positioned at regular intervals along at least two concentric circles situated in the vicinity of its periphery, said drilling holes of said two circles being angularly offset relative to each other and being of a suitable size for the seeds to be sown, characterised in that said disc is provided on its periphery with stirring blades that are evenly spaced and angularly offset relative to said drilling holes , that said stirring blades extend over a circle concentric to said circles and that the circle extends between two circles , such that each blade acts on both the drilling holes of the outer circle and those of the inner circle .
A vehicle cruise control device that is configured to acquire information of surroundings of a vehicle , and, when it is possible to normally acquire information, set from then a traveling road along which the vehicle is to travel based on the acquired information of the surroundings, and to execute cruise control for causing the vehicle to travel along the set traveling road, and wherein, when normally acquiring information of surroundings becomes impossible, the vehicle cruise control device is configured to execute interim cruise control for causing the vehicle to travel along the set traveling road as set when it was possible to normally acquire information, while causing a vehicle speed to decrease, characterized in that the vehicle cruise control device is configured to : estimate an entire length (Lp) of the interim target trajectory along which the vehicle is to travel, estimate an interim travel time (Tp), from when the interim cruise control starts, necessary for the vehicle to complete the traveling along the set traveling road by dividing the estimated entire length (Lp) by the vehicle speed at that time, set a target deceleration variably according to the interim travel time (Tp) so that, when the interim travel time (Tp) is shorter, the target deceleration is higher as compared to where the interim travel time (Tp) is longer, and decelerate the vehicle so that a deceleration of the vehicle coincides with the target deceleration. estimate an entire length (Lp) of the interim target trajectory along which the vehicle is to travel, estimate an interim travel time (Tp), from when the interim cruise control starts, necessary for the vehicle to complete the traveling along the set traveling road by dividing the estimated entire length (Lp) by the vehicle speed at that time, set a target deceleration variably according to the interim travel time (Tp) so that, when the interim travel time (Tp) is shorter, the target deceleration is higher as compared to where the interim travel time (Tp) is longer, and decelerate the vehicle so that a deceleration of the vehicle coincides with the target deceleration.