mhurhangee/ep-ind-claims huggingface dataset:
A magnetic film having a radiator function for wireless charging, the magnetic film comprising: a magnetic layer having a thin-film shape and composed of a magnetic layer composition containing a magnetic material powder and a binder resin; and a thin-film coil for radiator use which is directly laminated on a surface of the magnetic layer, characterized in that the binder resin contains an additive agent, which is mixed in the binder resin, in an amount of less than 2% based on a total weight of the composition, wherein the additive agent is a silane coupling agent or a defoaming agent. a magnetic layer having a thin-film shape and composed of a magnetic layer composition containing a magnetic material powder and a binder resin; and a thin-film coil for radiator use which is directly laminated on a surface of the magnetic layer, characterized in that the binder resin contains an additive agent, which is mixed in the binder resin, in an amount of less than 2% based on a total weight of the composition, wherein the additive agent is a silane coupling agent or a defoaming agent.
A method for wireless communication between a remote controller and an unmanned aerial vehicle, UAV, using a plurality of cyclically repeating time division multiplexing, TDM, frames, wherein each TDM frame comprises a plurality of subframes, the method comprising: (a) transferring, at a first data bandwidth, uplink data from the remote controller to the UAV using a first subset of the plurality of subframes, wherein the uplink data comprises control data for controlling operations of the UAV; (b) transferring, at a second data bandwidth that is greater than the first data bandwidth, downlink data from the UAV to the remote controller using a second subset of the plurality of subframes, wherein the downlink data comprises image data; and (c) prior to performing (a) or (b), selecting a working frequency channel from a plurality of frequency channels based at least in part on one or more quality characteristics associated with each of the plurality of frequency channels, wherein the selected working frequency channel is used for transferring the downlink data; wherein the uplink data is encoded using a first coding scheme and the downlink data is encoded using a second coding scheme, the second coding scheme having a higher efficiency ratio than the first coding scheme and/or the uplink data is modulated using a first modulation scheme and the downlink data is modulated using a second modulation scheme, the second modulation scheme having a higher modulation order than the first modulation scheme. (a) transferring, at a first data bandwidth, uplink data from the remote controller to the UAV using a first subset of the plurality of subframes, wherein the uplink data comprises control data for controlling operations of the UAV; (b) transferring, at a second data bandwidth that is greater than the first data bandwidth, downlink data from the UAV to the remote controller using a second subset of the plurality of subframes, wherein the downlink data comprises image data; and (c) prior to performing (a) or (b), selecting a working frequency channel from a plurality of frequency channels based at least in part on one or more quality characteristics associated with each of the plurality of frequency channels, wherein the selected working frequency channel is used for transferring the downlink data;
A light-emitting device comprising an optical waveguide comprising a core and at least one cladding surrounding the core, wherein the optical waveguide comprises a gain medium comprising an optically-active phosphosilicate glass, comprising a rare-earth active ion dopant consisting of ytterbium oxide, said phosphosilicate glass comprising from about 1 to 30 mol% of phosphorus oxide, 50 to 98 mol% of silica and 0.01 to about 5 mol% of Yb 2 O 3, characterized in that said gain medium has a saturation energy E sat at a frequency of the light having a value per unit area of 2.1 or 2.2 μJ/μm 2, the saturation energy being given by E sat = hνA σ es + σ as ⋅ Γ where h is the Planck constant, ν is the corresponding frequency of the light of wavelength λ, A is the core area, σ es is the emission cross-section, σ as is the absorption cross-section and Γ is the overlap between the core and the propagating mode in the optical waveguide.
A recombinant oncolytic virus comprising: (i) a modified TATA box-based promoter operably linked to a gene, wherein the modified TATA box-based promoter lacks a functional TATA box and permits selective expression of the gene in a cancer cell; and/or (ii) a modified CAAT box-based promoter operably linked to a gene, wherein the modified CAAT box-based promoter lacks a functional CAAT box and permits selective expression of the gene in a cancer cell; wherein the recombinant oncolytic virus is selected from a recombinant vaccinia virus, adenovirus, adeno-associated virus, herpes simplex virus 1, myxoma virus, reovirus, poliovirus, vesicular stomatitis virus, measles virus, and Newcastle disease virus; the modified TATA box-based promoter is an early gene promoter; the modified CAAT box-based promoter is an early gene promoter; wherein the gene is a therapeutic transgene and/or the early gene; and the modification included in the modified TATA box-based promoter or CAAT box-based promoter does not comprise an addition, of or a substitution with, a separate, functional promoter sequence. (i) a modified TATA box-based promoter operably linked to a gene, wherein the modified TATA box-based promoter lacks a functional TATA box and permits selective expression of the gene in a cancer cell; and/or (ii) a modified CAAT box-based promoter operably linked to a gene, wherein the modified CAAT box-based promoter lacks a functional CAAT box and permits selective expression of the gene in a cancer cell; wherein the recombinant oncolytic virus is selected from a recombinant vaccinia virus, adenovirus, adeno-associated virus, herpes simplex virus 1, myxoma virus, reovirus, poliovirus, vesicular stomatitis virus, measles virus, and Newcastle disease virus; the modified TATA box-based promoter is an early gene promoter; the modified CAAT box-based promoter is an early gene promoter; wherein the gene is a therapeutic transgene and/or the early gene; and
A guide bush (18, 18a-18k) comprising a plurality of bush elements combined to form a cylindrical shape as a whole, wherein the plurality of bush elements (38, 38a-38i) comprises a cylindrical fitting portion (25, 25a) configured to be fitted in a fit-and-hold portion of a housing (11, 11a, 11b) having a cylindrical inner peripheral surface, the cylindrical fitting portion having an inner peripheral surface configured to guide an outer peripheral surface of a displacement shaft that has been inserted in the cylindrical fitting portion (25, 25a) in an axially displaceable manner, wherein a diameter of a circumscribed circle of the plurality of bush elements (38, 38a-38i) in a state in which end faces of the plurality of bush elements with respect to a circumferential direction abut each other is not greater than an inside diameter (d) of the fit-and-hold portion, wherein a gap is provided between the end faces of the plurality of bush elements (38, 38a-38i) with respect to the circumferential direction in a state in which the cylindrical fitting portion (25, 25a) is fitted in the fit-and-hold portion and the displacement shaft is inserted in the cylindrical fitting portion, wherein the plurality of bush elements (38, 38a-38i) further comprises a flange portion (27, 27a-27c) provided to protrude radially outward from an axially partial outer peripheral surface of the cylindrical fitting portion (25, 25a) and configured to engage with an engagement groove formed on the inner peripheral surface of the fit-and-hold portion, wherein a diameter of a circumscribed circle of the flange portion (27, 27a-27c) in the state in which the end faces of the plurality of bush elements (38, 38a-38i) with respect to the circumferential direction abut each other is not greater than the inside diameter of the fit-and-hold portion characterized in that the guide bush further comprises a joint portion (40, 40a) configured to couple the plurality of bush elements (38, 38a-38i) to each other in a state before the displacement shaft is inserted into the cylindrical fitting portion (25, 25a) and to break or to elongate in the circumferential direction in accordance with the insertion of the displacement shaft into the cylindrical fitting portion, wherein the joint portion (40, 40a) is provided to bridge between the end faces of the plurality of bush elements (38, 38a-38i) with respect to the circumferential direction, and couples, at least axially partially, the end faces with respect to the circumferential direction to each other.
A method for predicting the degree of weight loss attainable by applying one or more dietary interventions to a subject and/or the degree of maintenance of weight loss following one or more dietary interventions; which method comprises determining the level of microRNA-486 (miR-486) in one or more samples obtained from the subject; and/or determining the nucleotide of the subject at one or more polymorphic positions genetically linked to miR-486 wherein the one or more polymorphic positions are selected from: (i) position 26 of SEQ ID NO: 3 (ii) position 26 of SEQ ID NO: 4; and (iii) position 26 of SEQ ID NO: 5. (i) position 26 of SEQ ID NO: 3 (ii) position 26 of SEQ ID NO: 4; and (iii) position 26 of SEQ ID NO: 5.
Stator of a directly driven wind power generator, having disposed thereon stator segments which, when viewed in the circumferential direction, are in each case positioned on in particular two flanges of a common stator support that run in parallel, wherein the flanges of the stator support have bores, and wherein each stator segment is secured to the flanges by way of at least two securing devices, wherein the stator segment has a segment support, characterized in that the segment support provides recesses into which a bore part is insertable, wherein a securing device has a bore part, an alignment pin or a screw, and at least one shim, wherein the stator segment is able to be positioned and secured vertically in a gap between the upper periphery of the bore part and the radially upper periphery of the recess by way of the bore part situated in the recess, the alignment pin inserted into the bore of the stator support or the screw and the shim, so as to obtain a uniform air gap between the stator and a rotor. wherein the flanges of the stator support have bores, and wherein each stator segment is secured to the flanges by way of at least two securing devices, wherein the stator segment has a segment support, characterized in that the segment support provides recesses into which a bore part is insertable, wherein a securing device has a bore part, an alignment pin or a screw, and at least one shim, wherein the stator segment is able to be positioned and secured vertically in a gap between the upper periphery of the bore part and the radially upper periphery of the recess by way of the bore part situated in the recess, the alignment pin inserted into the bore of the stator support or the screw and the shim, so as to obtain a uniform air gap between the stator and a rotor.
Cyclotron for accelerating charged particles around an axis, comprising - an electromagnet with an upper pole and a lower pole, configured for producing a given magnetic field in the direction of said axis; - a Dee electrode assembly and a counter Dee electrode assembly separated from each other by a gap and means for submitting said Dee electrode assembly and said counter Dee electrode assembly to a given accelerating voltage for accelerating said charged particles; - a pair of ion sources (1, 2) located in a central region of said cyclotron; said electromagnet, Dee electrode assembly and sources (1,2) being adapted for producing said charged particles along paths in said cyclotron characterized in that said ion sources (1,2) are located at a distance of said axis such that the particles emitted from the first ion source pass between said first and second ion sources after a path of half a turn, and radially outwards of the second ion source after a path of three half-turns, and the particles emitted from the second ion source pass between said second and said first ion source after a path of half a turn, and radially outwards of the first ion source after a path of three half-turns - an electromagnet with an upper pole and a lower pole, configured for producing a given magnetic field in the direction of said axis; - a Dee electrode assembly and a counter Dee electrode assembly separated from each other by a gap and means for submitting said Dee electrode assembly and said counter Dee electrode assembly to a given accelerating voltage for accelerating said charged particles; - a pair of ion sources (1, 2) located in a central region of said cyclotron; said electromagnet, Dee electrode assembly and sources (1,2) being adapted for producing said charged particles along paths in said cyclotron
A distributed fibre optic sensor apparatus comprising: an optical source configured to, in use, launch interrogating radiation (201, 202) into an optical fibre; a sampling detector (105, 106) configured to, in use, sample interrogating radiation which is backscattered from within said optical fibre; and a processor configured to determine any phase modulation for at least one spatial sensing portion of said optical fibre wherein said processor is configured to: take a plurality of samples corresponding to radiation backscattered from at least part of a spatial sensing portion of interest following each launch; divide said plurality of samples into a plurality of processing channels; process at least some of said plurality of processing channels to determine at least phase data for said channel (Φ 1, Φ n); apply a quality metric to said data from said processing channels; and combine the determined phase data for said channels into an overall phase value for said spatial sensing portion of interest based on the results of applying said quality metric. an optical source configured to, in use, launch interrogating radiation (201, 202) into an optical fibre; a sampling detector (105, 106) configured to, in use, sample interrogating radiation which is backscattered from within said optical fibre; and a processor configured to determine any phase modulation for at least one spatial sensing portion of said optical fibre wherein said processor is configured to: take a plurality of samples corresponding to radiation backscattered from at least part of a spatial sensing portion of interest following each launch; divide said plurality of samples into a plurality of processing channels; process at least some of said plurality of processing channels to determine at least phase data for said channel (Φ 1, Φ n); apply a quality metric to said data from said processing channels; and combine the determined phase data for said channels into an overall phase value for said spatial sensing portion of interest based on the results of applying said quality metric. take a plurality of samples corresponding to radiation backscattered from at least part of a spatial sensing portion of interest following each launch; divide said plurality of samples into a plurality of processing channels; process at least some of said plurality of processing channels to determine at least phase data for said channel (Φ 1, Φ n); apply a quality metric to said data from said processing channels; and combine the determined phase data for said channels into an overall phase value for said spatial sensing portion of interest based on the results of applying said quality metric.
A sensor for measuring the thickness of a layer of a grain/residue mixture in the cleaning arrangement of a combine harvester, characterised in that the sensor comprises a support structure and a plurality of sensor elements mounted as a stack of sensor elements on the support structure, the sensor being configured to be mounted in the cleaning arrangement so that, during use, at least a portion of the stack of sensor elements is buried in or in close proximity to the grain/residue layer, the sensor elements being configured to measure an electrical property that changes as a function of the immediate surroundings of the sensor element, wherein the sensor elements are furthermore configured to be read out independently from each other.
A gutta-percha remover comprising a shaft, a tapered working portion connected to the shaft, and one, two, or more screw-shaped grooves formed in the working portion, wherein as to cross sections (13a; 13b) of a base end and a tip of the working portion, the tip of the working portion is greater in rate of the area of each cross-section (13a; 13b) to corresponding circle (13a3; 13b3) circumscribing said each cross section (13a; 13b), wherein the circumference of the cross-section of the tip of the working portion is formed from an arc (13b1) having a length of 50% or more of the circle (13b3) circumscribing the cross section and a convex-shaped curve (13b2) connecting a first end of the arc and a second end of the arc (13b1) in a convex shape, wherein said convex shape spans from the first end of the arc to the second end of the arc.
A two part material composition comprising: a. an epoxy component including a first flame retardant; and b. a curing component which includes - an adhesion promoter including methoxypropanol, and - a second flame retardant; wherein an adhesive is formed when the epoxy component is combined with the curing component. a. an epoxy component including a first flame retardant; and b. a curing component which includes - an adhesion promoter including methoxypropanol, and - a second flame retardant; - an adhesion promoter including methoxypropanol, and - a second flame retardant;
A method of fabricating orthodontic aligners comprising: (i) providing an aligner forming machine for forming aligners from plastic sheets; (ii) acquiring an image of a maloccluded dentition in an orthodontic treatment facility; (iii) creating an original digital model based on the acquired image; (iv) determining a final teeth arrangement representing a target teeth arrangement and based on the final teeth arrangement; (v) calculating a treatment plan for repositioning the maloccluded dentition from the initial to the final teeth arrangements; (vi) manipulating the original digital model to create at least one successive digital model of at least one successive teeth arrangements in a digital format; (vii) in an orthodontic service center, fabricating at least one successive pattern corresponding to the at least one successive digital models of successive teeth arrangements, wherein each pattern represents one of the at least one successive teeth arrangements; (viii) shipping the at least one patterns to the orthodontic treatment facility; (ix) at the orthodontic treatment facility, fabricating at least one orthodontic aligner from the plastic sheets as negative molds of the successive patterns. (i) providing an aligner forming machine for forming aligners from plastic sheets; (ii) acquiring an image of a maloccluded dentition in an orthodontic treatment facility; (iii) creating an original digital model based on the acquired image; (iv) determining a final teeth arrangement representing a target teeth arrangement and based on the final teeth arrangement; (v) calculating a treatment plan for repositioning the maloccluded dentition from the initial to the final teeth arrangements; (vi) manipulating the original digital model to create at least one successive digital model of at least one successive teeth arrangements in a digital format; (vii) in an orthodontic service center, fabricating at least one successive pattern corresponding to the at least one successive digital models of successive teeth arrangements, wherein each pattern represents one of the at least one successive teeth arrangements; (viii) shipping the at least one patterns to the orthodontic treatment facility; (ix) at the orthodontic treatment facility, fabricating at least one orthodontic aligner from the plastic sheets as negative molds of the successive patterns.
A high strength special steel consisting of, by weight%: carbon: from not less than 0.1 to 0.5%; silicon (Si): from 0.1 to 2.3%; manganese (Mn): from 0.3 to 1.5%; chromium (Cr): from 1.1 to 4.0%; molybdenum (Mo): from 0.3 to 1.5%; nickel (Ni): from 0.1 to 4.0%; vanadium: from 0.01 to 0.50%; boron: from 0.001 to 0.010%; niobium (Nb): from 0.05 to 0.50%; the balance being iron (Fe); and inevitable impurities, wherein the inevitable impurities may include Aluminum (Al): 0.003% or less, Copper (Cu): 0.3% or less and Oxygen: 0.003% or less, wherein the high strength special steel has a tensile strength of 1563MPa or more, measured according to KS B 0802 or ISO 6892, and a fatigue life of 570,000 cycles or more, measured according to KS B ISO 1143 or ISO 1143.
A method of power control for a user device, comprising: determining, by the user device within a wireless network, a base station channel bandwidth; receiving, by the user device, a resource block allocation including one or more resource blocks in a user device channel bandwidth that are allocated to the user device, the user device channel bandwidth being a bandwidth part of the base station channel bandwidth that is less than the base station channel bandwidth; characterized by determining, by the user device, a first distance of the resource block allocation from a first edge of the base station channel bandwidth; determining, by the user device, a second distance of the resource block allocation from a second edge of the base station channel bandwidth, selecting a maximum transmission power as a first maximum transmission power for uplink transmission via the resource block allocation if both the first distance and the second distance are each greater than or equal to a threshold; selecting a maximum transmission power as a second maximum transmission power, which is less than the first maximum transmission power, for uplink transmission via the resource block allocation if the distance of the resource block allocation from at least one of the first edge and the second edge of the base station channel bandwidth is less than the threshold; and controlling, by the user device, based on the distance, to utilize the a first maximum transmission power or the second maximum transmission power for uplink transmission via the resource block allocation. determining, by the user device within a wireless network, a base station channel bandwidth; receiving, by the user device, a resource block allocation including one or more resource blocks in a user device channel bandwidth that are allocated to the user device, the user device channel bandwidth being a bandwidth part of the base station channel bandwidth that is less than the base station channel bandwidth; characterized by determining, by the user device, a first distance of the resource block allocation from a first edge of the base station channel bandwidth; determining, by the user device, a second distance of the resource block allocation from a second edge of the base station channel bandwidth, selecting a maximum transmission power as a first maximum transmission power for uplink transmission via the resource block allocation if both the first distance and the second distance are each greater than or equal to a threshold; selecting a maximum transmission power as a second maximum transmission power, which is less than the first maximum transmission power, for uplink transmission via the resource block allocation if the distance of the resource block allocation from at least one of the first edge and the second edge of the base station channel bandwidth is less than the threshold; and controlling, by the user device, based on the distance, to utilize the a first maximum transmission power or the second maximum transmission power for uplink transmission via the resource block allocation.