mhurhangee/patent-ind-claim-en huggingface dataset:
A valve holder for holding and implanting a prosthetic heart valve comprising a frame and a plurality of flexible leaflets, the valve holder comprising: a body for holding the prosthetic heart valve, the body having a top surface , a bottom surface , and a central axis extending between the top and bottom surfaces ; a rotor positioned in the body , wherein when the prosthetic heart valve is coupled to the body , the rotor is rotatable around the central axis of the body to adjust the prosthetic heart valve to a delivery position; a latch having an opening couplable with a handle , and through which an activator is couplable to the rotor for rotating the rotor around the central axis of the body , and a guide attached to the body , wherein an alignment keyway having a shape corresponding to a shape of a key of the activator is provided on the guide , wherein the alignment keyway is for limiting rotation of the dial and the rotor relative to the body and for permitting the key to pass therethrough when disconnecting the activator from the rotor , wherein the activator is only disconnectable from the rotor when the key is rotationally aligned with the keyway . a body for holding the prosthetic heart valve, the body having a top surface , a bottom surface , and a central axis extending between the top and bottom surfaces ; a rotor positioned in the body , wherein when the prosthetic heart valve is coupled to the body , the rotor is rotatable around the central axis of the body to adjust the prosthetic heart valve to a delivery position; a latch having an opening couplable with a handle , and through which an activator is couplable to the rotor for rotating the rotor around the central axis of the body , and a guide attached to the body , wherein an alignment keyway having a shape corresponding to a shape of a key of the activator is provided on the guide , wherein the alignment keyway is for limiting rotation of the dial and the rotor relative to the body and for permitting the key to pass therethrough when disconnecting the activator from the rotor , wherein the activator is only disconnectable from the rotor when the key is rotationally aligned with the keyway .
A method performed by a terminal in a wireless communication system, the method comprising: receiving, from a base station, information on an index of a feedback channel resource of a primary carrier , wherein the information is received by using a secondary carrier associated with the primary carrier; and transmitting, to the base station, hybrid automatic repeat request-acknowledgment, HARQ-ACK, information associated with the secondary carrier through the feedback channel resource of the primary carrier, wherein the primary carrier is used for a downlink signaling and an uplink signaling, and wherein the secondary carrier is used for the downlink signaling. receiving, from a base station, information on an index of a feedback channel resource of a primary carrier , wherein the information is received by using a secondary carrier associated with the primary carrier; and transmitting, to the base station, hybrid automatic repeat request-acknowledgment, HARQ-ACK, information associated with the secondary carrier through the feedback channel resource of the primary carrier, wherein the primary carrier is used for a downlink signaling and an uplink signaling, and wherein the secondary carrier is used for the downlink signaling.
A thermal conductor for at least one double vacuum tube of a solar thermal collector with double vacuum tubes, intended to be in contact with a heat-collecting tube , extending inside said at least one double vacuum tube , and the inner wall of said at least one double vacuum tube , said thermal conductor comprising a heat-absorbing element able to absorb the solar radiation passing through said at least one double vacuum tube , to ensure thermal transfer from the inner wall of said at least one double vacuum tube to the heat-collecting tube , characterized in that it includes at least: - a first conductive element , including a first peripheral portion intended to extend at least partially in contact with the inner wall of said at least one double vacuum tube and an inner portion , connected to the first peripheral portion , intended to extend at least partially in contact with the heat-collecting tube , the first conductive element further including a pivot element (PI), - a second conductive element , including a second peripheral portion intended to extend at least partially in contact with the inner wall of said at least one double vacuum tube , the second conductive element further including a second connection portion with the first conductive element , the second connection portion being mounted in rotation on the pivot element (P1) of the first conductive element so as to allow the rotational movement of the second conductive element relative to at the first conductive element , - an elastic return member in contact with at least the second conductive element , able to exert an elastic return force on the second conductive element for driving it in rotation relative to the first conductive element , in contact with the inner wall of said at least one double vacuum tube . - a first conductive element , including a first peripheral portion intended to extend at least partially in contact with the inner wall of said at least one double vacuum tube and an inner portion , connected to the first peripheral portion , intended to extend at least partially in contact with the heat-collecting tube , the first conductive element further including a pivot element (PI), - a second conductive element , including a second peripheral portion intended to extend at least partially in contact with the inner wall of said at least one double vacuum tube , the second conductive element further including a second connection portion with the first conductive element , the second connection portion being mounted in rotation on the pivot element (P1) of the first conductive element so as to allow the rotational movement of the second conductive element relative to at the first conductive element , - an elastic return member in contact with at least the second conductive element , able to exert an elastic return force on the second conductive element for driving it in rotation relative to the first conductive element , in contact with the inner wall of said at least one double vacuum tube .
A body-worn alcohol detection device comprising: a housing comprising an electronics module and an alcohol detection module ; a strap for securing the housing to a limb of a user; wherein the electronics module includes a processor , a communication module and a biometric camera for capturing an image of the inside of the user's mouth; and wherein the alcohol detection module includes an alcohol detection sensor and a sample collection device ; and wherein the device further comprises a reflective tube to ensure a continuous connection between the user's mouth and the alcohol detection device ; wherein the reflective tube includes several layers including an exterior layer , a film layer and an interior layer enclosing a hollow channel ; wherein the film layer comprises multiple fiber optic light guide pipes that are aligned with light sources from a tamper module of the body-worn alcohol detection device and that run parallel to a length of the reflective tube and are arranged in a circular array around a diameter of the tube . a housing comprising an electronics module and an alcohol detection module ; a strap for securing the housing to a limb of a user; wherein the electronics module includes a processor , a communication module and a biometric camera for capturing an image of the inside of the user's mouth; and wherein the alcohol detection module includes an alcohol detection sensor and a sample collection device ; and wherein the device further comprises a reflective tube to ensure a continuous connection between the user's mouth and the alcohol detection device ; wherein the reflective tube includes several layers including an exterior layer , a film layer and an interior layer enclosing a hollow channel ; wherein the film layer comprises multiple fiber optic light guide pipes that are aligned with light sources from a tamper module of the body-worn alcohol detection device and that run parallel to a length of the reflective tube and are arranged in a circular array around a diameter of the tube .
A process component having a housing , an actuator which can be brought into a first end position and a second end position, having an adjusting arrangement by means of which the actuator can be brought out of the first end position into the second end position and vice versa in an axial direction (L), which adjusting arrangement comprises a first electric coil and a second electric coil , and which cooperates with a first permanent magnet arrangement which is arranged on the actuator , and the actuator rests against a first mechanical stop in the first end position, wherein the housing comprises a valve seat and a closing element which cooperates in a sealing manner with the valve seat in the first end position is arranged on the actuator , and wherein the first mechanical stop comprises the valve seat , further having a second permanent magnet arrangement which is provided on the housing and which cooperates with the first permanent magnet arrangement , and the adjusting arrangement is arranged between a first connection and a second connection of the process component and the process component comprises a continuous fluid connection between the first connection and the second connection in at least one position of the actuator , wherein the first permanent magnet arrangement and the second permanent magnet arrangement are designed such that the actuator is set in the first end position by means of the attractive force of the permanent magnet arrangements , wherein the first electric coil is configured to compensate for the magnetic field that exists in the first position between the first and second permanent magnet arrangement during energization, such that the setting of the actuator in the first end position is cancelled, and the second electric coil is configured to cause a movement of the actuator in an axial direction during energization of the first coil , wherein the actuator comprises a closing body , characterized in that the first permanent magnet arrangement is arranged in the closing body and at least one blade that extends in the direction of movement is provided on the closing body , and in that the blade comprises a third permanent magnet arrangement which cooperates with the second permanent magnet arrangement .
A heat source detection device configured to detect a heat source on the earth using observation data of a radiometer , the radiometer being provided in a geostationary satellite , the heat source detection device comprising: a calculation unit configured to calculate, by curve fitting using Planck's law, a heat source proportion value indicating a proportion, to the observation data, of a wavelength distribution due to the heat source included in the observation data; and a determination unit configured to determine presence or absence of the heat source according to the heat source proportion value calculated by the calculation unit , characterized in that the calculation unit is configured to set a first wavelength distribution D1, a second wavelength distribution D2 and a third wavelength distribution D3 based on predetermined temperatures determined according to a flaming state, a smoldering state and a background, respectively, to calculate coefficients a, b and c satisfying a radiance G of the observation data = aD1+bD2+cD3 using a non-linear least squares method and to set the heat source proportion value to a/(a+b+c), b/(a+b+c) or c/(a+b+c). a calculation unit configured to calculate, by curve fitting using Planck's law, a heat source proportion value indicating a proportion, to the observation data, of a wavelength distribution due to the heat source included in the observation data; and a determination unit configured to determine presence or absence of the heat source according to the heat source proportion value calculated by the calculation unit , characterized in that the calculation unit is configured to set a first wavelength distribution D1, a second wavelength distribution D2 and a third wavelength distribution D3 based on predetermined temperatures determined according to a flaming state, a smoldering state and a background, respectively, to calculate coefficients a, b and c satisfying a radiance G of the observation data = aD1+bD2+cD3 using a non-linear least squares method and to set the heat source proportion value to a/(a+b+c), b/(a+b+c) or c/(a+b+c).
A variable efficiency electric generator , comprising: a gas cooled rotor arranged along a centerline of the generator ; a gas cooled core arranged coaxially and surrounding the rotor ; a plurality of coils arranged within the core ; a stator frame arranged to fixedly support the core and rotationally support the rotor ; a gas cooling system configured to circulate a cooling gas within the generator ; and a low pressure frame surrounding a portion of the rotor and an entirety of the core and stator windings , the low pressure frame configured to operatively contain an internal pressure of two bar relative to atmospheric pressure; characterized by a variable pressure control system configured to variably regulate a pressure of the cooling gas between zero bar and two bar relative to atmospheric pressure in accordance with a predetermined operational scheme; wherein the variable pressure control system further comprises a controller and a pressurizing unit ; wherein the controller is configured to sense a generator output signal of the generator , to compare the sensed generator output signal to a load demand of the generator and to determine an optimum operating pressure of the cooling gas based on a predetermined operational scheme; wherein the pressurizing unit is configured to adjust an operating pressure of the cooling gas in accordance with the determined optimum operating pressure; wherein the predetermined operational scheme is customized to maximize generator efficiency; and wherein the maximum operational efficiency of the generator is at a part-load condition. a gas cooled rotor arranged along a centerline of the generator ; a gas cooled core arranged coaxially and surrounding the rotor ; a plurality of coils arranged within the core ; a stator frame arranged to fixedly support the core and rotationally support the rotor ; a gas cooling system configured to circulate a cooling gas within the generator ; and a low pressure frame surrounding a portion of the rotor and an entirety of the core and stator windings , the low pressure frame configured to operatively contain an internal pressure of two bar relative to atmospheric pressure; characterized by a variable pressure control system configured to variably regulate a pressure of the cooling gas between zero bar and two bar relative to atmospheric pressure in accordance with a predetermined operational scheme; wherein the variable pressure control system further comprises a controller and a pressurizing unit ; wherein the controller is configured to sense a generator output signal of the generator , to compare the sensed generator output signal to a load demand of the generator and to determine an optimum operating pressure of the cooling gas based on a predetermined operational scheme; wherein the pressurizing unit is configured to adjust an operating pressure of the cooling gas in accordance with the determined optimum operating pressure; wherein the predetermined operational scheme is customized to maximize generator efficiency; and wherein the maximum operational efficiency of the generator is at a part-load condition.
A method for fastening an object to a façade, said façade comprising at least one supporting wall which is made of a hard material and which is coated externally with a thermal insulation coat made of a crumbly material, the object being fastened to the wall by means of a fastening member and an intermediary supporting part made of a hard material, said fastening member being received in a receiving area of said intermediary supporting part which includes an opposite and distinct fastening area intended to be in contact onto said supporting wall, so that the object is fastened to the supporting wall in an indirect way by offsetting to the outside of the façade the receiving area for the object fastening member, said object being fastened to the intermediary supporting part after fastening of this intermediary supporting part onto the wall , said method being characterized in that said intermediary supporting part is a rectangular prism intended to extend through the insulation coat from the receiving area to said fastening area so that both fastening and receiving areas are in continuation one to the other, said fastening area comprising cavities which are accessible from outside of the intermediary supporting part for receiving means for fastening the intermediary supporting part to the wall.
A radio-controlled vehicle comprising a frame , a motor and a radiator ; the frame having a longitudinal axis (X) and comprising a left longitudinal member , a right longitudinal member ; wherein the frame comprises, furthermore, a front guide and a rear guide , which transversely connect said right longitudinal member and left longitudinal member to one another; wherein each guide (43A; 43B) is a tubular body having an inner cavity (44A; 44B) and a longitudinal axis (WA; WB); each guide (43A; 43B) is connected to the left longitudinal member and to the right longitudinal member so as to be transverse, substantially perpendicular, to said longitudinal axis (X) of the frame ; wherein each guide (43A; 43B) has a left opening and a right opening , which establish a communication between the respective cavity (44A; 44B) and the outside in the area of a right end and a left end, respectively, of each guide (43A; 43B); wherein the frame comprises an adjustment unit , which comprises, in turn, a first cylinder housed inside the front guide and a second cylinder housed inside the rear guide ; wherein each cylinder (47A; 47B) comprises a plurality of rods (511; 5111), each capable of sliding and selectively projecting outwards from the respective guide (43A; 43B) through said left opening or said right opening ; wherein the frame has a first housing , which houses said motor ; wherein said first housing is interposed, along the longitudinal axis (X) of the frame , between the front guide and the rear guide ; wherein the frame comprises a second housing , which houses said radiator ; wherein the rear guide is interposed, along the longitudinal axis (X) of the frame , between said first and said second housing .
A system, comprising: an electron source ; a micro-lens array , MLA, configured to receive one or more primary electron beams from the electron source and split the one or more primary electron beams into a plurality of primary electron beamlets; a micro-stigmator array , MSA, comprising a plurality of dodecapole electrostatic stigmators, wherein the MSA is configured to eliminate at least one of fourth-order focusing aberrations or sixth-order focusing aberrations of the plurality of primary electron beamlets; and projection optics configured to receive the plurality of primary electron beamlets and focus the plurality of primary electron beamlets onto a surface of a sample; wherein each dodecapole electrostatic stigmator of the plurality of dodecapole electrostatic stigmators comprises twelve conductive plates, wherein each conductive plate of the twelve conductive plates are separated by a gap angle δ , wherein a first conductive plate, a fourth conductive plate, a seventh conductive plate, and a tenth conductive plate are defined by a plate angle 2 α , wherein α is in the range of 20° ~35°, and wherein a second conductive plate, a third conductive plate, a fifth conductive plate, a sixth conductive plate, an eighth conductive plate, a ninth conductive plate, an eleventh conductive plate, and a twelfth conductive plate are defined by a plate angle β , such that β = 45° - α - ( 3 δ / 2 ). an electron source ; a micro-lens array , MLA, configured to receive one or more primary electron beams from the electron source and split the one or more primary electron beams into a plurality of primary electron beamlets; a micro-stigmator array , MSA, comprising a plurality of dodecapole electrostatic stigmators, wherein the MSA is configured to eliminate at least one of fourth-order focusing aberrations or sixth-order focusing aberrations of the plurality of primary electron beamlets; and projection optics configured to receive the plurality of primary electron beamlets and focus the plurality of primary electron beamlets onto a surface of a sample; wherein each dodecapole electrostatic stigmator of the plurality of dodecapole electrostatic stigmators comprises twelve conductive plates, wherein each conductive plate of the twelve conductive plates are separated by a gap angle δ , wherein a first conductive plate, a fourth conductive plate, a seventh conductive plate, and a tenth conductive plate are defined by a plate angle 2 α , wherein α is in the range of 20° ~35°, and wherein a second conductive plate, a third conductive plate, a fifth conductive plate, a sixth conductive plate, an eighth conductive plate, a ninth conductive plate, an eleventh conductive plate, and a twelfth conductive plate are defined by a plate angle β , such that β = 45° - α - ( 3 δ / 2 ).