mhurhangee/ep-ind-claims huggingface dataset:
A WGM microresonator comprising a dielectric matrix, characterized in that in the dielectric matrix with positive real part of the electric permittivity Re(ε)>0 in the UV/VIS/NIR wavelength range of electromagnetic radiation and with low dielectric losses it comprises at least one type of plasmonic nanoparticles with negative real part of the electric permittivity Re(ε)<0 in the UV/VIS/NIR wavelength range of electromagnetic radiation and at least one type of luminescent semiconductor or perovskite quantum dots, wherein the plasmonic nanoparticles have diameter of 10 to 50 nm, and wherein diameter of quantum dots is from 1 to 15 nm.
An apparatus for scanning a structure to detect differences in density between different parts of the structure, the apparatus comprising: a source of radiation; a plurality of first detectors (30a, 30b, 30c, 30d) arranged to detect radiation emitted by said source along a plurality of respective first paths (32a, 32b, 32c, 32d); and a plurality of second detectors (40a, 40b, 40c, 40d) arranged to detect radiation emitted by said source along a plurality of respective second paths (42a, 42b, 42c, 42d); wherein each said first and second paths (32, 42) is substantially aligned with a respective radius of a circle centred on the source; wherein an angular separation between at least two neighbouring first paths is S; wherein the first and second detectors (30, 40) and the source are arranged for rotation in a fixed relationship with respect to each other, about an axis of rotation located between the source and the detectors (30, 40), wherein said axis of rotation is substantially orthogonal to said circle; wherein there are 2N + 1 detectors (30, 40); characterized in that said first paths are located on a first side of a plane containing the source and said axis of rotation and the positions D L of the first detectors are given by D L = nS, where n = 0, 1, 2,... N and said second paths are located on a second side of said plane and the positions D R of the second detectors are given by D R = (n+f)S, where n = 0, 1, 2,... N-1 and where 0 < f < 1. a source of radiation; a plurality of first detectors (30a, 30b, 30c, 30d) arranged to detect radiation emitted by said source along a plurality of respective first paths (32a, 32b, 32c, 32d); and a plurality of second detectors (40a, 40b, 40c, 40d) arranged to detect radiation emitted by said source along a plurality of respective second paths (42a, 42b, 42c, 42d); wherein each said first and second paths (32, 42) is substantially aligned with a respective radius of a circle centred on the source; wherein an angular separation between at least two neighbouring first paths is S; wherein the first and second detectors (30, 40) and the source are arranged for rotation in a fixed relationship with respect to each other, about an axis of rotation located between the source and the detectors (30, 40), wherein said axis of rotation is substantially orthogonal to said circle; wherein there are 2N + 1 detectors (30, 40); characterized in that said first paths are located on a first side of a plane containing the source and said axis of rotation and the positions D L of the first detectors are given by D L = nS, where n = 0, 1, 2,... N and said second paths are located on a second side of said plane and the positions D R of the second detectors are given by D R = (n+f)S, where n = 0, 1, 2,... N-1 and where 0 < f < 1.
A media-guiding system for guiding a media travelling from upstream to downstream along a transport path in an in-track direction, the media having a first side and an opposing second side, comprising: a media-guiding roller having a roller axis and an exterior surface having one or more grooves formed around the exterior surface, wherein the media travels along the transport path past the media-guiding roller with the first side of the media facing the exterior surface of the web-guiding roller, and wherein the media-guiding roller has a width in the direction of the roller axis which is less than 20% of a cross-track width of the web of media; and an air source for providing an air flow into one or more of the grooves, the air flow being directed between the first side of the media and the exterior surface of the media-guiding roller thereby producing a Bernoulli force to draw the media toward the exterior surface of the media-guiding roller and providing an increased traction between the media and the media-guiding roller. a media-guiding roller having a roller axis and an exterior surface having one or more grooves formed around the exterior surface, wherein the media travels along the transport path past the media-guiding roller with the first side of the media facing the exterior surface of the web-guiding roller, and wherein the media-guiding roller has a width in the direction of the roller axis which is less than 20% of a cross-track width of the web of media; and an air source for providing an air flow into one or more of the grooves, the air flow being directed between the first side of the media and the exterior surface of the media-guiding roller thereby producing a Bernoulli force to draw the media toward the exterior surface of the media-guiding roller and providing an increased traction between the media and the media-guiding roller.
A vector for use in the treatment of Huntington's disease, which vector comprises the full sequence of cholesterol 24-hydroxylase encoding nucleic acid.
A client node (202, 502) for managing concurrent transmission of data, comprising: a first radio (354, 506) configured to use a first Radio Access Technology, RAT; a second radio (358, 516) configured to use a second RAT; a first protocol stack corresponding to the first RAT; a second protocol stack corresponding to the second RAT, wherein the first RAT and the second RAT are different; and a processor coupled to the first radio and the second radio and configured to execute instructions to instantiate a supervisory layer (352, 720) that spans across the first and second protocol stacks, wherein instantiation of the supervisory layer causes the processor to: initiate transmission, by the first radio, of a first set of data including a subset of priority data using the first protocol stack; and initiate transmission, by the second radio, of a second set of data using the second protocol stack, wherein the second set of data comprises the subset of priority data. a first radio (354, 506) configured to use a first Radio Access Technology, RAT; a second radio (358, 516) configured to use a second RAT; a first protocol stack corresponding to the first RAT; a second protocol stack corresponding to the second RAT, wherein the first RAT and the second RAT are different; and a processor coupled to the first radio and the second radio and configured to execute instructions to instantiate a supervisory layer (352, 720) that spans across the first and second protocol stacks, wherein instantiation of the supervisory layer causes the processor to: initiate transmission, by the first radio, of a first set of data including a subset of priority data using the first protocol stack; and initiate transmission, by the second radio, of a second set of data using the second protocol stack, wherein the second set of data comprises the subset of priority data. initiate transmission, by the first radio, of a first set of data including a subset of priority data using the first protocol stack; and initiate transmission, by the second radio, of a second set of data using the second protocol stack, wherein the second set of data comprises the subset of priority data.
A rotor for a vertical shaft impact crusher which rotates about a rotation shaft extending in a vertical direction and accelerates an object to be crushed by a centrifugal force, comprising: a rotor upper plate including a rotor upper plate hole which is an inlet for the object to be crushed, which is inserted into the rotor, and forming an upper portion of the rotor, wherein the rotor upper plate hole is disposed at the center of the rotor upper plate; a rotor lower plate disposed under the rotor upper plate to be spaced apart from the rotator upper plate and forms a bottom of the rotor; and a rotor side wall which is arranged between the rotor upper plate and the rotor lower plate to be coupled with the rotor upper plate and the rotor lower plate, and disposed at a position spaced apart from the rotor upper plate hole in a radial direction of a rotation center of the rotor so that in use a rotor protective layer is formed at inner circumferential wall of the rotor side wall; wherein the rotor further comprises: a circular hole which is formed on the rotor side wall and is an outlet, through which the object to be crushed accelerated by the rotor comes out of the rotor; anc in use a funnel-shaped rotor protective layer centered around the circular hole formed in an inner space of the rotor around the circular hole. a rotor upper plate including a rotor upper plate hole which is an inlet for the object to be crushed, which is inserted into the rotor, and forming an upper portion of the rotor, wherein the rotor upper plate hole is disposed at the center of the rotor upper plate; a rotor lower plate disposed under the rotor upper plate to be spaced apart from the rotator upper plate and forms a bottom of the rotor; and a rotor side wall which is arranged between the rotor upper plate and the rotor lower plate to be coupled with the rotor upper plate and the rotor lower plate, and disposed at a position spaced apart from the rotor upper plate hole in a radial direction of a rotation center of the rotor so that in use a rotor protective layer is formed at inner circumferential wall of the rotor side wall; wherein the rotor further comprises: a circular hole which is formed on the rotor side wall and is an outlet, through which the object to be crushed accelerated by the rotor comes out of the rotor; anc in use a funnel-shaped rotor protective layer centered around the circular hole formed in an inner space of the rotor around the circular hole. a circular hole which is formed on the rotor side wall and is an outlet, through which the object to be crushed accelerated by the rotor comes out of the rotor; anc in use a funnel-shaped rotor protective layer centered around the circular hole formed in an inner space of the rotor around the circular hole.
Apparatus for a household appliance, wherein the apparatus comprises an add-on part (18 to 20, 29) shaped as a bearing bush and a household appliance component (9 to 13) which has a plate-like base body, in which a hole (14 to 17) for passing through the bearing bush is embodied, and the hole (14 to 17) is surrounded by a collar, which protrudes from the hole plane, on a delimiting edge at least in regions, wherein the delimiting edge has at least a number n, where 3 ≤ n ≤ 8, in particular n = 6, of corners, and the bearing bush separate from the household appliance component (9 to 13) is inserted into the hole (14 to 17) and held therein, wherein fixing elements are embodied in one piece on a functional body of the bearing bush having a geometry formed in the shape of a pot, which fixing elements engage behind the collar in the assembled state of the bearing bush and the bearing bush has an axially fixed position, wherein the fixing elements are bending lugs which are able to be bent outwards radially after the axial introduction of the bearing bush into the hole (14 to 17), wherein the fixing elements which have been bent outwards radially engage behind the collar in the region of a rear edge, so that an axial positional securing of the bearing bush in connection with a contact flange of the bearing bush is achieved.
A mobile communication system comprising: a first base station; a second base station; and a user equipment connected to the first base station as a master base station, wherein when a random access procedure toward a secondary cell of the second base station is triggered at the user equipment, the user equipment is configured to perform a contention based random access procedure on the secondary cell of the second base station, based upon selecting the secondary cell of the second base station on which a random access signal is to be transmitted in accordance with an instruction from the first base station; characterized by wherein upon receiving a changing instruction for changing the secondary cell of the second base station for the random access procedure from the first base station, the user equipment is configured to stop the ongoing contention based random access procedure toward the second base station. a first base station; a second base station; and a user equipment connected to the first base station as a master base station, wherein when a random access procedure toward a secondary cell of the second base station is triggered at the user equipment, the user equipment is configured to perform a contention based random access procedure on the secondary cell of the second base station, based upon selecting the secondary cell of the second base station on which a random access signal is to be transmitted in accordance with an instruction from the first base station; characterized by wherein upon receiving a changing instruction for changing the secondary cell of the second base station for the random access procedure from the first base station, the user equipment is configured to stop the ongoing contention based random access procedure toward the second base station.
A bi-folding cowl for an aircraft (101, 201), the bi-folding cowl comprising: an upper portion; and a lower portion, wherein the upper portion and the lower portion are mechanically connected on adjacent edges and are rotatable relative to each other, characterised in that the bi-folding cowl comprises three distinct open positions; wherein the three distinct open positions comprises: (i) a fully-opened position wherein the upper portion and lower portion are folded together along an adjacent edge; (ii) a partially-opened position wherein the upper portion and lower portion are partially folded; and (iii) a fully-opened, lying flat position wherein the bi-folding cowl, when in the fully-opened position, is further rotated to lay on a top surface of the aircraft (101, 201). an upper portion; and a lower portion, wherein the upper portion and the lower portion are mechanically connected on adjacent edges and are rotatable relative to each other, characterised in that the bi-folding cowl comprises three distinct open positions; wherein the three distinct open positions comprises: (i) a fully-opened position wherein the upper portion and lower portion are folded together along an adjacent edge; (ii) a partially-opened position wherein the upper portion and lower portion are partially folded; and (iii) a fully-opened, lying flat position wherein the bi-folding cowl, when in the fully-opened position, is further rotated to lay on a top surface of the aircraft (101, 201). (i) a fully-opened position wherein the upper portion and lower portion are folded together along an adjacent edge; (ii) a partially-opened position wherein the upper portion and lower portion are partially folded; and (iii) a fully-opened, lying flat position wherein the bi-folding cowl, when in the fully-opened position, is further rotated to lay on a top surface of the aircraft (101, 201).
A hair straightener, comprising: a heating unit for heating hair while exercising a pressure on the hair; a temperature sensor for measuring a temperature of the heated hair to obtain a measured temperature; characterized by a pressure adjustment unit for adjusting the pressure exercised by the heating unit on the hair, in dependence on the measured temperature. a heating unit for heating hair while exercising a pressure on the hair; a temperature sensor for measuring a temperature of the heated hair to obtain a measured temperature; characterized by a pressure adjustment unit for adjusting the pressure exercised by the heating unit on the hair, in dependence on the measured temperature.
Extension device of a firearm, preferably a rifle, mountable in an operating configuration, to a muzzle of a barrel of the firearm, comprising: i) a main body which extends along an axis (X-X) and comprises an inner wall which defines around the axis (X-X) a firing cavity, and comprises: - an inner element housable inside the barrel and suitable to firmly engage with an inner barrel wall; - an outer element which extends axially adjacent to the inner element and is suitable to be arranged outside the barrel with the inner element housed in the barrel; ii) a secondary body fitted axially on the main body; wherein the extension device is characterized by the fact that comprises also an attachment body fitted axially on the outer element and fixable to the outer element performing an axial thrust action on the secondary body until it closes in a pack on the muzzle of the firearm. i) a main body which extends along an axis (X-X) and comprises an inner wall which defines around the axis (X-X) a firing cavity, and comprises: - an inner element housable inside the barrel and suitable to firmly engage with an inner barrel wall; - an outer element which extends axially adjacent to the inner element and is suitable to be arranged outside the barrel with the inner element housed in the barrel; - an inner element housable inside the barrel and suitable to firmly engage with an inner barrel wall; - an outer element which extends axially adjacent to the inner element and is suitable to be arranged outside the barrel with the inner element housed in the barrel; ii) a secondary body fitted axially on the main body;
A process for producing a crystal of 17-cyclopropylmethyl-3,14β-dihydroxy-4,5α-epoxy-6β-[N-methyl-trans-3-(3-furyl)acrylamido]morphinan hydrochloride, comprising reacting 17-cyclopropylmethyl-3,14β-dihydroxy-4,5α-epoxy-6β-[N-methyl-trans-3-(3-furyl)acrylamido]morphinan with hydrochloric acid in a good solvent which is selected from the list consisting of methanol, ethanol and n-propanol, followed by mixing the reaction solution with a poor solvent which is selected from the list consisting of 2-propanol, 2-butanol and t-butanol and stirring the mixture.
System with a track connected to an electrical energy source, at least one vehicle for operation on the track, at least one cordless hand controller with accumulator for controlling the vehicle and a charging station for charging the accumulator, characterised in that the charging station is equipped with connecting means for the electrical connection of the charging station with the track.
A method for controlling a smart device that is bound to a user account comprising: Acquiring (201;301) a video stream captured by a smart camera that is bound to the user account, wherein the video stream includes multi-frame video that includes a plurality of one-frame video images; Performing pattern recognition on each of the plurality of one-frame video images, wherein the pattern recognition is configured to determine an area that includes at least one smart device in at least one of the plurality of one-frame video images; determining, based on the pattern recognition, a target area that includes the smart device in a first one-frame video image of the plurality of one-frame video images; characterised in that the method is further comprising: displaying the first one-frame video image including the target area on a touch screen; detecting, via the touch screen, a control operation within the target area of the first one-frame video image; and controlling the smart device located in the target area based on the control operation. Acquiring (201;301) a video stream captured by a smart camera that is bound to the user account, wherein the video stream includes multi-frame video that includes a plurality of one-frame video images; Performing pattern recognition on each of the plurality of one-frame video images, wherein the pattern recognition is configured to determine an area that includes at least one smart device in at least one of the plurality of one-frame video images; determining, based on the pattern recognition, a target area that includes the smart device in a first one-frame video image of the plurality of one-frame video images; characterised in that the method is further comprising: displaying the first one-frame video image including the target area on a touch screen; detecting, via the touch screen, a control operation within the target area of the first one-frame video image; and controlling the smart device located in the target area based on the control operation. displaying the first one-frame video image including the target area on a touch screen; detecting, via the touch screen, a control operation within the target area of the first one-frame video image; and controlling the smart device located in the target area based on the control operation.
An aircraft comprising: - a wing; - a fuselage; - a turret at the front end of said fuselage and comprising at least one weapon; and - a feed duct for feeding said weapon with ammunition supplied in the form of a belt and extending along a side on the outside of said fuselage; said wing being characterized by comprising a compartment for housing at least one portion of said belt and connected to a loading opening of said feed duct for loading said feed duct. - a wing; - a fuselage; - a turret at the front end of said fuselage and comprising at least one weapon; and - a feed duct for feeding said weapon with ammunition supplied in the form of a belt and extending along a side on the outside of said fuselage;
A method of determining a travelling tube of a commercial vehicle, the method comprising the steps of - determination of a future vehicle trajectory; and - determination of a travelling tube as a function of the future vehicle trajectory; wherein the travelling tube is determined as a function of a current operating state of at least one axle of the commercial vehicle, wherein the commercial vehicle comprises at least one lift axle, which is preferably a liftable leading or trailing axle, and the current operating state of the axle indicates whether the lift axle is currently in the raised or lowered state. - determination of a future vehicle trajectory; and - determination of a travelling tube as a function of the future vehicle trajectory;