mhurhangee/patent-ind-claim-en huggingface dataset:
Component (C) for a large structure, which component is suitable for a thermonuclear fusion reactor, characterized in that said component (C) comprises at least one first component (A) and one second component (B), which components further comprise a plurality of first components (Ai) and/or second components (Bj) and are arranged one beside the other and/or one after the other and/or one on top of the other, said component (C) further comprising a thin inert metal encapsulating foil for sealing said component (C) and for creating a vacuum in said component in order to prevent oxidation of the first and the second component (A, B) constituting said component during its subsequent use, and in that said component (C) is formed by joining, by means of diffusion welding assisted by hot isostatic compaction or pressing (HIP), said first and second component (A, B) in said thin inert metal foil.
A method of manufacturing an optoelectronic device (10; 40; 50; 70; 80), comprising the successive steps of: a) providing a substrate (90; 100) at least partially made of a semiconductor material; b) forming a stack of semiconductor layers , said stack comprising first and second opposite faces , the second face being on the side of the substrate, said stack comprising light-emitting diodes , said substrate having third and fourth opposite faces , said stack being formed on the third face; c) bonding the stack , on the side of the first face , to an electronic circuit ; d) forming through openings in the substrate from the side of the fourth face , said openings being opposite at least part of the light-emitting diodes and delimiting walls (30; 122) in the substrate; e) forming conductive pads (36; 72) on the second face in at least some of the openings in contact with the stack; and f) forming photoluminescent blocks in at least some of the openings. a) providing a substrate (90; 100) at least partially made of a semiconductor material; b) forming a stack of semiconductor layers , said stack comprising first and second opposite faces , the second face being on the side of the substrate, said stack comprising light-emitting diodes , said substrate having third and fourth opposite faces , said stack being formed on the third face; c) bonding the stack , on the side of the first face , to an electronic circuit ; d) forming through openings in the substrate from the side of the fourth face , said openings being opposite at least part of the light-emitting diodes and delimiting walls (30; 122) in the substrate; e) forming conductive pads (36; 72) on the second face in at least some of the openings in contact with the stack; and f) forming photoluminescent blocks in at least some of the openings.
An organic light-emitting device containing a host material, a delayed fluorescent material and a light-emitting material satisfying the following expression : E S 1 H > E S 1 F > E S 1 D wherein E S1 (H) represents a lowest excited singlet energy level of the host material, E S1 (F) represents a lowest excited singlet energy level of the delayed fluorescent material, and E S1 (D) represents a lowest excited singlet energy level of the light-emitting material, wherein the organic light-emitting device is an organic semiconductor laser, characterized in that the delayed fluorescent material has an energy difference ΔE st between a lowest excited singlet state and a lowest excited triplet state at 77 K of 0.3 eV or less, energy from an excited singlet state of the host material transfers to the delayed fluorescent material and the light-emitting material, a triplet excited state of the delayed fluorescent material transfers to a singlet excited state of the delayed fluorescent material through reverse intersystem crossing, and the excited singlet energy of the delayed fluorescent material transfers to the light-emitting material. wherein E S1 (H) represents a lowest excited singlet energy level of the host material, E S1 (F) represents a lowest excited singlet energy level of the delayed fluorescent material, and E S1 (D) represents a lowest excited singlet energy level of the light-emitting material, wherein the organic light-emitting device is an organic semiconductor laser, characterized in that the delayed fluorescent material has an energy difference ΔE st between a lowest excited singlet state and a lowest excited triplet state at 77 K of 0.3 eV or less, energy from an excited singlet state of the host material transfers to the delayed fluorescent material and the light-emitting material, a triplet excited state of the delayed fluorescent material transfers to a singlet excited state of the delayed fluorescent material through reverse intersystem crossing, and the excited singlet energy of the delayed fluorescent material transfers to the light-emitting material.
One-piece fluid hose for conducting a fluid, comprising: a hose wall , which comprises at least one circumferential thickening bulge in order to increase the tensile stiffness of the fluid hose , wherein the fluid hose comprises a fluid inlet opening and a fluid outlet opening , wherein fluid is conductable in the fluid hose from the fluid inlet opening to the fluid outlet opening in a fluid flow direction , wherein the circumferential thickening bulge is formed on an inner side of the hose wall , wherein the circumferential thickening bulge comprises a first side , which faces the fluid inlet opening , wherein the circumferential thickening bulge 115) comprises a second side , which faces the fluid outlet opening , wherein the first side is inclined in respect to the inside at a first angle of inclination , wherein the second side is inclined in respect to the inside at a second angle of inclination , characterized in that the first angle of inclination is greater than the second angle of inclination , a hose wall , which comprises at least one circumferential thickening bulge in order to increase the tensile stiffness of the fluid hose , wherein the fluid hose comprises a fluid inlet opening and a fluid outlet opening , wherein fluid is conductable in the fluid hose from the fluid inlet opening to the fluid outlet opening in a fluid flow direction , wherein the circumferential thickening bulge is formed on an inner side of the hose wall , wherein the circumferential thickening bulge comprises a first side , which faces the fluid inlet opening , wherein the circumferential thickening bulge 115) comprises a second side , which faces the fluid outlet opening , wherein the first side is inclined in respect to the inside at a first angle of inclination , wherein the second side is inclined in respect to the inside at a second angle of inclination , characterized in that the first angle of inclination is greater than the second angle of inclination ,
A vacuum-based fruit gripper assembly for use in a fruit-picking machine, said fruit gripper assembly comprising: a) a support having a main axis and receivable onto a fruit-picking machine, said support comprising an aperture therethrough for communication with a source of suction generator; and b) a flexible gripping suction-nipple for engaging a fruit, mounted on said support and connected to said aperture, wherein said nipple is equipped with an interlock mechanism, and wherein said nipple has two configurations: - a first open-configuration when the nipple is not attached to a fruit and no vacuum is generated, in which said interlock mechanism is open and the nipple is free to twist; and - a second locked-configuration when the nipple is attached to a fruit and vacuum is applied and the nipple is cramped due to the attachment of the fruit and the application of vacuum, in which said interlock mechanism is locked thereby preventing twisting of the nipple, characterized in that said interlock mechanism comprises ribs , and wherein the interlock mechanism comprises grooves and bulges or protrusions that interact with one another when the nipple is cramped. a) a support having a main axis and receivable onto a fruit-picking machine, said support comprising an aperture therethrough for communication with a source of suction generator; and b) a flexible gripping suction-nipple for engaging a fruit, mounted on said support and connected to said aperture, - a first open-configuration when the nipple is not attached to a fruit and no vacuum is generated, in which said interlock mechanism is open and the nipple is free to twist; and - a second locked-configuration when the nipple is attached to a fruit and vacuum is applied and the nipple is cramped due to the attachment of the fruit and the application of vacuum, in which said interlock mechanism is locked thereby preventing twisting of the nipple, characterized in that said interlock mechanism comprises ribs , and wherein the interlock mechanism comprises grooves and bulges or protrusions that interact with one another when the nipple is cramped.
Connection system comprising at least one multiple-part vehicle axle (3a; 3b) and at least one connecting bridge device (1a; 1b) so as to attach a multi-point control arm (2a; 2b) to the multiple-part vehicle axle (3a; 3b), wherein the connecting bridge device (1a; 1b) comprises at least one main body (4a; 4b) for receiving and dissipating forces and/or momentums transmitted between the vehicle axle (3a; 3b) and the multi-point control arm (2a; 2b); at least one axle fastening unit (5a; 5b, 6a; 6b) for fastening the main body (4a; 4b) to the vehicle axle (3a; 3b); and at least one control arm coupling unit (8a; 8b, 9a), which is intersected by a plane of main extent (7a; 7b) of the main body (4a; 4b), for coupling the main body (4a; 4b) to the multi-point control arm (2a; 2b), characterized in that the vehicle axle has two attachment units (20a, 21a; 20b, 21b), which are disposed separately from a central part (19a; 19b) of the vehicle axle (3a; 3b), for fastening the connecting bridge device (1a; 1b), wherein the central part (19a; 19b) at least partially forms a drive housing for receiving a drive unit (22a; 22b), wherein in each case one attachment unit (20a, 21a; 20b, 21b) is disposed in each case on one axle sub-body which is configured separately from the central part (19a; 19b). at least one main body (4a; 4b) for receiving and dissipating forces and/or momentums transmitted between the vehicle axle (3a; 3b) and the multi-point control arm (2a; 2b); at least one axle fastening unit (5a; 5b, 6a; 6b) for fastening the main body (4a; 4b) to the vehicle axle (3a; 3b); and at least one control arm coupling unit (8a; 8b, 9a), which is intersected by a plane of main extent (7a; 7b) of the main body (4a; 4b), for coupling the main body (4a; 4b) to the multi-point control arm (2a; 2b), characterized in that the vehicle axle has two attachment units (20a, 21a; 20b, 21b), which are disposed separately from a central part (19a; 19b) of the vehicle axle (3a; 3b), for fastening the connecting bridge device (1a; 1b), wherein the central part (19a; 19b) at least partially forms a drive housing for receiving a drive unit (22a; 22b), wherein in each case one attachment unit (20a, 21a; 20b, 21b) is disposed in each case on one axle sub-body which is configured separately from the central part (19a; 19b).
A light emitting device comprising: a package defining a recess and having a lead electrode provided in the recess ; one or more light emitting elements provided in the recess ; and a sealing member filled in the recess to seal the one or more light emitting elements wherein a surface of the sealing member constitutes a light emitting surface of the light emitting device, wherein the sealing member contains a parent material and filler particles unevenly distributed in the light emitting surface side, wherein the specific gravity of the filler particles is smaller than that of the parent material, wherein the light emitting surface of the sealing member has an irregular geometry formed associated with the filler particles having a particle size of 1 μm or more and 35 μm or less wherein the parent material of the sealing member covers the filler particles and the irregular geometry of the surface of the sealing member is formed in a manner that the surface of the parent material of the sealing member is approximately in conformity with the shapes of the filler particles , wherein a color of at least part of the upper surface of the package is a dark color, and wherein the recess has an inner wall of a dark color, wherein the filler particles are porous or hollow, and wherein the parent material of the sealing member and the filler particles have a difference in refractive index of 0.1 or smaller. a package defining a recess and having a lead electrode provided in the recess ; one or more light emitting elements provided in the recess ; and a sealing member filled in the recess to seal the one or more light emitting elements wherein a surface of the sealing member constitutes a light emitting surface of the light emitting device, wherein the sealing member contains a parent material and filler particles unevenly distributed in the light emitting surface side, wherein the specific gravity of the filler particles is smaller than that of the parent material, wherein the light emitting surface of the sealing member has an irregular geometry formed associated with the filler particles having a particle size of 1 μm or more and 35 μm or less wherein the parent material of the sealing member covers the filler particles and the irregular geometry of the surface of the sealing member is formed in a manner that the surface of the parent material of the sealing member is approximately in conformity with the shapes of the filler particles , wherein a color of at least part of the upper surface of the package is a dark color, and wherein the recess has an inner wall of a dark color, wherein the filler particles are porous or hollow, and wherein the parent material of the sealing member and the filler particles have a difference in refractive index of 0.1 or smaller.
A method for determining a unit time of a serial transmission protocol, wherein the serial transmission protocol defines a unit time, UT, by transmitting a calibration pulse having a predetermined length of N*UT and wherein a receiver is operated by a system clock, the method comprising: dividing the system clock by M, wherein M evenly divides N, measuring a calibration pulse length value using the divided system clock; determining a number of system clock pulses per unit time from the measured calibration pulse value; sampling a received data nibble length by using a sampling clock derived from the system clock through a clock divider, wherein the sampling clock has a variable period set by the clock divider, wherein a first period value is used for a first number of count periods and a second period value is used for second count period to produce an average count period, wherein an addition of the number of first count periods and the number of second count periods equals the determined calibration pulse length value, and wherein the serial transmission protocol transmits a plurality of subsequent data nibble pulses , wherein each data nibble value is encoded into a length of a pulse, wherein the length is defined by multiples of the unit time, UT, and wherein a length of a data nibble pulse or the calibration pulse is defined by the time between two falling edges of a serial transmission signal. dividing the system clock by M, wherein M evenly divides N, measuring a calibration pulse length value using the divided system clock; determining a number of system clock pulses per unit time from the measured calibration pulse value; sampling a received data nibble length by using a sampling clock derived from the system clock through a clock divider, wherein the sampling clock has a variable period set by the clock divider, wherein a first period value is used for a first number of count periods and a second period value is used for second count period to produce an average count period, wherein an addition of the number of first count periods and the number of second count periods equals the determined calibration pulse length value, and wherein the serial transmission protocol transmits a plurality of subsequent data nibble pulses , wherein each data nibble value is encoded into a length of a pulse, wherein the length is defined by multiples of the unit time, UT, and wherein a length of a data nibble pulse or the calibration pulse is defined by the time between two falling edges of a serial transmission signal.
An additive manufacturing machine by fusion on a power bed comprising an enclosure of a fusion chamber, characterised in that it comprises a means for receiving unfused powders placed in the enclosure and comprising four sides: a right-hand partition and a left-hand partition , a front partition and a rear partition , characterised in that at least two opposite sides (20d, 20g; 20a, 20b) each consists of two hinged parts (200a, 201a; 200b, 201b) allowing folding of said sides.
A composite comprising a composition of pheromones and a composite foam, wherein the pheromones are selected from monocarboxylic and dicarboxylic acids with hydrocarbonated chains, saturated or unsaturated, linear or branched, liable to treat behavior or medical changes related to anxiety or stress of non-human mammals, and/or esters or salts of said acids, and the composite foam is a polyurethane that comprises both hydrophobic and hydrophilic polyurethane foam entities.
Wheel-force dynamometer for measuring forces and torques acting on a vehicle tyre and a vehicle wheel , by means of force sensors , the wheel-force dynamometer comprising: a wheel axle, a housing , force sensors and a supporting structure , wherein the vehicle wheel is rotatably mounted by means of a wheel axle, and the wheel axle is designed as a rotor which is mounted in an axially fixed and circumferentially rotatable manner in a rigid and locationally-fixed housing , wherein the wheel-force dynamometer is characterized in that the housing has a housing body and a housing cap , wherein the rotor is clamped between the housing body and the housing cap , wherein a rotor base of the rotor passes through an opening in the housing cap and wherein the force sensors are arranged between the housing body and a supporting structure .
A method performed by a first communication node (110; 121) for determining the position of a second communication node in a wireless communications network , the method comprising transmitting a timing measurement message to the second communication node as a beamformed transmission based on channel sounding feedback information received from the second communication node , wherein the channel sounding feedback information is obtained by performing, prior to the transmission of the timing measurement message and in response to receiving a ranging request message from the second communication node , at least one Non-Data Packet, NDP, channel sounding message exchange with the second communication node ; receiving an acknowledgement message from the second communication node for the timing measurement message in the beamformed transmission; and determining the position of the second communication node at least partly based on a transmission time of the timing measurement message and a reception time of the acknowledgement message. transmitting a timing measurement message to the second communication node as a beamformed transmission based on channel sounding feedback information received from the second communication node , wherein the channel sounding feedback information is obtained by performing, prior to the transmission of the timing measurement message and in response to receiving a ranging request message from the second communication node , at least one Non-Data Packet, NDP, channel sounding message exchange with the second communication node ; receiving an acknowledgement message from the second communication node for the timing measurement message in the beamformed transmission; and determining the position of the second communication node at least partly based on a transmission time of the timing measurement message and a reception time of the acknowledgement message.
Vacuum cleaner nozzle comprising: - a suction and scraping surface, - a suction slot , arranged to be connected to a suction circuit of the vacuum cleaner and opening onto the suction and scraping surface, - at least one thread lifter arrange on the suction and scraping surface, next to the suction slot , characterised in that the thread lifter comprises a portion that opens into the suction slot . - a suction and scraping surface, - a suction slot , arranged to be connected to a suction circuit of the vacuum cleaner and opening onto the suction and scraping surface, - at least one thread lifter arrange on the suction and scraping surface, next to the suction slot ,
A gas sensor comprising: a substrate ; a first heating element ; and a second heating element that is formed around the periphery of the first heating element and has a wider forming area than the first heating element , heating control means configured such that : the first heating element is heated to a predetermined temperature to measure a gas amount, and wherein the second heating element is heated when the gas sensor is activated characterized in that a voltage applied or a current flowing to the second heating element is monitored, and a heating power applied to the first heating element is restricted to be smaller than that in a normal operation while the voltage applied or the current flowing to the second heating element exceeds a predetermined threshold value, and the restriction of the heating power is released when the voltage applied or the current flowing to the second heating element becomes lower than the predetermined threshold value. a substrate ; a first heating element ; and a second heating element that is formed around the periphery of the first heating element and has a wider forming area than the first heating element , heating control means configured such that : the first heating element is heated to a predetermined temperature to measure a gas amount, and wherein the second heating element is heated when the gas sensor is activated characterized in that a voltage applied or a current flowing to the second heating element is monitored, and a heating power applied to the first heating element is restricted to be smaller than that in a normal operation while the voltage applied or the current flowing to the second heating element exceeds a predetermined threshold value, and the restriction of the heating power is released when the voltage applied or the current flowing to the second heating element becomes lower than the predetermined threshold value. the first heating element is heated to a predetermined temperature to measure a gas amount, and wherein the second heating element is heated when the gas sensor is activated characterized in that a voltage applied or a current flowing to the second heating element is monitored, and a heating power applied to the first heating element is restricted to be smaller than that in a normal operation while the voltage applied or the current flowing to the second heating element exceeds a predetermined threshold value, and the restriction of the heating power is released when the voltage applied or the current flowing to the second heating element becomes lower than the predetermined threshold value.