mhurhangee/ep-ind-claims huggingface dataset:
Assembly for holding or supporting a timepiece balance spring including a cock provided with an upper surface and a lower surface on which a balance spring stud and a stud-holder are arranged, wherein the stud-holder includes: - means for securing said stud to the cock, the means for securing said stud comprising an orifice traversing said cock and provided with a peripheral rim to form a housing for insertion of the stud, characterized in that said means for securing said stud also include a rotating element (30, 300) comprising attachment means for rotatable attachment thereof inside the housing, said rotating element having an outer edge (33, 303) coopering with the stud to lock said stud between the outer edge (33, 303) of the rotating element and the peripheral rim of the housing when the rotating element is assembled in the housing. - means for securing said stud to the cock, the means for securing said stud comprising an orifice traversing said cock and provided with a peripheral rim to form a housing for insertion of the stud, characterized in that said means for securing said stud also include a rotating element (30, 300) comprising attachment means for rotatable attachment thereof inside the housing, said rotating element having an outer edge (33, 303) coopering with the stud to lock said stud between the outer edge (33, 303) of the rotating element and the peripheral rim of the housing when the rotating element is assembled in the housing.
A fluorescent microscopy system comprising: a detector; a microscope element having a field of view with respect to a detector, a fluorescence excitation apparatus comprising a light source to output excitation light, and an optical system configured to convert the excitation light into an excitation beam along an excitation beam path from the optical system to a specimen in a sample plane for exciting the specimen in the sample plane, the excitation beam having a distribution of light flux suitable for simultaneously lighting substantially all of said field of view; the detector being arranged to detect an image of fluorescent light emitted from the specimen; the microscope element comprising an objective lens adjustably positioned to receive this fluorescent light to be imaged from the specimen and to focus this fluorescent light along a path onto the detector; a dichroic mirror in the microscope element for reflecting the excitation beam onto the objective lens, for focusing of the excitation beam onto the specimen; an objective bypass (900, 920, 930, 940) disposable in the excitation beam path to receive the excitation beam, and to direct and focus the excitation beam on the specimen in the sample plane, wherein the objective bypass is configured for guiding the excitation beam around the objective lens; and a switching arrangement having a mechanical actuator adapted to selectively move the objective bypass (900, 920, 930), 940) into the excitation beam path to enable bypassing or to remove the objective bypass from the excitation beam path. a detector; a microscope element having a field of view with respect to a detector, a fluorescence excitation apparatus comprising a light source to output excitation light, and an optical system configured to convert the excitation light into an excitation beam along an excitation beam path from the optical system to a specimen in a sample plane for exciting the specimen in the sample plane, the excitation beam having a distribution of light flux suitable for simultaneously lighting substantially all of said field of view; the detector being arranged to detect an image of fluorescent light emitted from the specimen; the microscope element comprising an objective lens adjustably positioned to receive this fluorescent light to be imaged from the specimen and to focus this fluorescent light along a path onto the detector; a dichroic mirror in the microscope element for reflecting the excitation beam onto the objective lens, for focusing of the excitation beam onto the specimen; an objective bypass (900, 920, 930, 940) disposable in the excitation beam path to receive the excitation beam, and to direct and focus the excitation beam on the specimen in the sample plane, wherein the objective bypass is configured for guiding the excitation beam around the objective lens; and a switching arrangement having a mechanical actuator adapted to selectively move the objective bypass (900, 920, 930), 940) into the excitation beam path to enable bypassing or to remove the objective bypass from the excitation beam path.
A control system for an electrical machine, the electrical machine configured to be electrically coupled to an electric power system, wherein the electric power system is configured to transmit at least one phase of electric power to and from the electrical machine, said control system facilitates the electrical machine remaining electrically connected to the electric power system during and subsequent to at least one voltage amplitude of the electric power operating outside of a predetermined range for an undetermined period of time, wherein the control system comprises at least one phase-locked loop regulator coupled in electronic data communication with at least a portion of the electric power system, said at least one phase-locked loop regulator comprising: at least one PLL comprising at least one phase detector function block and at least one proportional-integral filter; and at least one PLL state machine coupled in electronic data communication with at least a portion of said PLL; characterized in that: said PLL state machine comprises at least one algorithm configured to determine a state of said PLL regulator as a function of at least one voltage amplitude of the electric power and at least one table of numerical values comprising at least: said plurality of proportional gain constants; said plurality of integral gain constants; said plurality of integral filter limits; and said plurality of summation filter limits. said PLL state machine comprises at least one algorithm configured to determine a state of said PLL regulator as a function of at least one voltage amplitude of the electric power and at least one table of numerical values comprising at least: said plurality of proportional gain constants; said plurality of integral gain constants; said plurality of integral filter limits; and said plurality of summation filter limits.
A clutch of thermocoupling type comprizing - a drum fixed to a first shaft, - an independent rotating system provided inside the drum, the rotating system comprising slides (2, 2') fixed to a second shaft through springs (4, 4′, 4ʺ, 4′′′) from shape memory material, preferably nitinol, stored in an arched form, the springs being attached at one end to a flange which forms a common body with the second shaft; the clutch of thermocoupling type performs coupling or decoupling between the drum fixed to the first shaft and the second shaft depending on the speed of rotation or the temperature of the rotating system by means of the shape memory material springs (4, 4′,4ʺ, 4′′′) which modify their shape and the elastic constant depending on the temperature of the rotating system or its rotation speed, allowing the rotating system to be coupled to the drum at high rotation speeds or at high temperatures above a certain threshold. - a drum fixed to a first shaft, - an independent rotating system provided inside the drum,
A boiler system using a fuel cell comprising: a boiler installed in a home or a building; a fuel cell for generating electricity and reaction heat by electrochemical reaction between a fuel and oxygen; a storage tank for recovering and storing the reaction heat generated by the fuel cell with a fluid; a room heating line buried beneath a room floor of the home or the building; a warm water line connected to supply warm water to a washroom or a kitchen of the home or the building through the boiler or the storage tank when water is supplied thereto from the outside; and a suction and exhaust integrated pipe having at least two of at least one first exhaust line, at least one first suction line of the boiler, at least one second exhaust line, and at least one second suction line of the fuel cell connected thereto to be used in common, wherein the suction and exhaust integrated pipe is constructed of a first pipe member used by the first suction line of the boiler and the second suction line of the fuel cell in common, and another first pipe member used by the first exhaust line of the boiler and the second exhaust line of the fuel cell in common, characterized in that the boiler system further comprises damper means or electronic valve means used at each of crossing points of the first suction line of the boiler and the second suction line of the fuel cell and the first exhaust line of the boiler and the second exhaust line of the fuel cell. a boiler installed in a home or a building; a fuel cell for generating electricity and reaction heat by electrochemical reaction between a fuel and oxygen; a storage tank for recovering and storing the reaction heat generated by the fuel cell with a fluid; a room heating line buried beneath a room floor of the home or the building; a warm water line connected to supply warm water to a washroom or a kitchen of the home or the building through the boiler or the storage tank when water is supplied thereto from the outside; and a suction and exhaust integrated pipe having at least two of at least one first exhaust line, at least one first suction line of the boiler, at least one second exhaust line, and at least one second suction line of the fuel cell connected thereto to be used in common, wherein the suction and exhaust integrated pipe is constructed of a first pipe member used by the first suction line of the boiler and the second suction line of the fuel cell in common, and another first pipe member used by the first exhaust line of the boiler and the second exhaust line of the fuel cell in common, characterized in that the boiler system further comprises damper means or electronic valve means used at each of crossing points of the first suction line of the boiler and the second suction line of the fuel cell and the first exhaust line of the boiler and the second exhaust line of the fuel cell.
Method of working material with high-energy radiation, wherein a polymer matrix is irradiated with high-energy radiation, in particular with a laser beam, wherein the radiation is focused onto a focal point and the focal point is set such that the focal point lies behind the surface of the polymer matrix facing the radiation, and material removal is brought about at the polymer matrix, and consequently a reaction space is created within the polymer matrix, reactants (15, 17) are present in the reaction space after the removal of material, wherein the reactants (15, 17) are formed during the creation of the reaction space from the material of the region of the polymer matrix at which the reaction space has been created, and the reactants (15, 17) in the reaction space react under irradiation of the reaction space with high-energy radiation, in particular with a laser beam, to form a product, the reaction space is spatially bounded by the polymer matrix and by a workpiece that is in contact with the polymer matrix and is transparent to the radiation wavelength, preferably a glass substrate, and the radiation passes through the workpiece before it impinges on the polymer matrix, the product is deposited on the workpiece that is in contact with the polymer matrix and is transparent to the radiation wavelength when the reaction space is irradiated with high-energy radiation, in particular with a laser beam.
Composition comprising the constituents water, electroconductive nanoobjects, said electroconductive nanoobjects having two external dimensions in the range of from 1 nm to 100 nm and their third external dimension in the range of from 1 μm to 100 μm, wherein said electroconductive nanoobjects comprise one or more materials selected from the group consisting of silver, copper and gold, wherein the weight fraction of said electroconductive nanoobjects is in the range of from 0.01 wt.-% to 1 wt.-% based on the total weight of the composition, dispersed in the water, fibers of crystalline cellulose, said dispersed fibers of crystalline cellulose having a length in the range of from 80 nm to 300 nm and a diameter in the range of from 5 nm to 30 nm, wherein the total weight fraction of said dispersed fibers of crystalline cellulose is in the range of from 0.02 wt.-% to 5 wt.-%, based on the total weight of the composition. water, electroconductive nanoobjects, said electroconductive nanoobjects having two external dimensions in the range of from 1 nm to 100 nm and their third external dimension in the range of from 1 μm to 100 μm, wherein said electroconductive nanoobjects comprise one or more materials selected from the group consisting of silver, copper and gold, wherein the weight fraction of said electroconductive nanoobjects is in the range of from 0.01 wt.-% to 1 wt.-% based on the total weight of the composition, dispersed in the water, fibers of crystalline cellulose, said dispersed fibers of crystalline cellulose having a length in the range of from 80 nm to 300 nm and a diameter in the range of from 5 nm to 30 nm, wherein the total weight fraction of said dispersed fibers of crystalline cellulose is in the range of from 0.02 wt.-% to 5 wt.-%, based on the total weight of the composition.
A terminal (1, 31) comprising: a conductive, rectangular tube-shaped terminal main body (3, 36); a box-like frame (4, 37, 37') which is received in the terminal main body (3, 36) and into which a mating terminal (9, 32) is inserted; a plurality of one contact spring pieces (18, 79, 179) made of conductive material formed at an upper basal plate portion (15, 73) of the frame (4, 37, 37'), the plurality of one contact spring pieces (18, 79, 179) projecting in a direction from an upper wall (5, 62) of the terminal main body (3, 36) to a lower wall (6, 61) of the terminal main body (3, 36) so as to tilt with respect to a mating terminal insertion direction; and a plurality of the other contact spring pieces (19, 78, 178) made of conductive material formed at a lower basal plate portion (16, 72) of the frame, the plurality of the other contact spring pieces (19, 78, 178) projecting in a direction from the lower wall (6, 61) to the upper wall (5, 62) so as to tilt with respect to the mating terminal insertion direction characterized in that the box-like frame (4, 37, 37') includes the upper basal plate portion (15, 73), the lower basal plate portion (16, 72) and vertical connecting plate portions (17, 74) connecting both ends of the upper basal plate portion (15, 73) and both ends of the lower basal plate portion (16, 72). a conductive, rectangular tube-shaped terminal main body (3, 36); a box-like frame (4, 37, 37') which is received in the terminal main body (3, 36) and into which a mating terminal (9, 32) is inserted; a plurality of one contact spring pieces (18, 79, 179) made of conductive material formed at an upper basal plate portion (15, 73) of the frame (4, 37, 37'), the plurality of one contact spring pieces (18, 79, 179) projecting in a direction from an upper wall (5, 62) of the terminal main body (3, 36) to a lower wall (6, 61) of the terminal main body (3, 36) so as to tilt with respect to a mating terminal insertion direction; and a plurality of the other contact spring pieces (19, 78, 178) made of conductive material formed at a lower basal plate portion (16, 72) of the frame, the plurality of the other contact spring pieces (19, 78, 178) projecting in a direction from the lower wall (6, 61) to the upper wall (5, 62) so as to tilt with respect to the mating terminal insertion direction characterized in that the box-like frame (4, 37, 37') includes the upper basal plate portion (15, 73), the lower basal plate portion (16, 72) and vertical connecting plate portions (17, 74) connecting both ends of the upper basal plate portion (15, 73) and both ends of the lower basal plate portion (16, 72).
A method of attenuating an optical beam, comprising: spatially dispersing the optical beam into a plurality of wavelengths that are distributed along a first axis of the SLM, selecting a level of attenuation to be applied to an optical beam; selecting a pattern of on-state and off-state pixels in a two dimensional spatial light modulator such that the pattern will modulate the optical beam to provide the selected level of attenuation; and directing the optical beam onto the SLM while the pixels are arranged in the selected pattern, wherein the pattern is periodic along the first axis, which is a spectral dispersion axis, and symmetric along a second axis, which is a beam axis, along which an intensity distribution of the optical beam extends, so that insensitivity to beam position is achieved, wherein the periodicity of the selected pattern is less than a diameter of the optical beam. spatially dispersing the optical beam into a plurality of wavelengths that are distributed along a first axis of the SLM, selecting a level of attenuation to be applied to an optical beam; selecting a pattern of on-state and off-state pixels in a two dimensional spatial light modulator such that the pattern will modulate the optical beam to provide the selected level of attenuation; and directing the optical beam onto the SLM while the pixels are arranged in the selected pattern, wherein the pattern is periodic along the first axis, which is a spectral dispersion axis, and symmetric along a second axis, which is a beam axis, along which an intensity distribution of the optical beam extends, so that insensitivity to beam position is achieved, wherein the periodicity of the selected pattern is less than a diameter of the optical beam.
A method for transmitting service, comprising: receiving a specific service sent in specific subframes, wherein the specific service is a multimedia broadcast multicast service, or a unicast service, or one or more than one kinds of services transmitted in broadcast or multicast mode, the specific subframes being selected from specific radio frames, the specific radio frames being selected from a time unit, wherein the time unit comprises 2 M radio frames, each of the radio frames containing a number R of subframes that can be allocated to carry the service, where R is a natural number, and M is a nonnegative integer; and receiving position information of the specific radio frames; and characterized in that the time unit comprises 2 M radio frames, each of which contains R subframes that can be allocated to the specific service, where R is a natural number, where M is a nonnegative integer; wherein the position information of the specific radio frames is an interval of the specific radio frames, the interval of the specific radio frames in the time unit is 2 m, 0≤m≤M. receiving a specific service sent in specific subframes, wherein the specific service is a multimedia broadcast multicast service, or a unicast service, or one or more than one kinds of services transmitted in broadcast or multicast mode, the specific subframes being selected from specific radio frames, the specific radio frames being selected from a time unit, wherein the time unit comprises 2 M radio frames, each of the radio frames containing a number R of subframes that can be allocated to carry the service, where R is a natural number, and M is a nonnegative integer; and receiving position information of the specific radio frames;
An aircraft comprising a plurality of aircraft zones and a system for distributing air to the plurality of aircraft zones, the system for distributing air comprising: an air mixer including an air inlet plenum and a manifold, said manifold including a plurality of sections fluidly coupled to the plurality of aircraft zones; characterized in that the system further comprises at least one thermoelectric device associated with said plurality of sections of said manifold, said at least one thermoelectric device operable to condition air within said plurality of sections to a desired temperature corresponding to the plurality of aircraft zones; wherein said at least one thermoelectric device defines a plurality of zones, each of said plurality of zones being associated with one of said plurality of sections of said manifold and sized based on a demand of a respective one of the plurality of aircraft zones; and a controller operable to control an amount and polarity of current provided to the at least one thermoelectric device. an air mixer including an air inlet plenum and a manifold, said manifold including a plurality of sections fluidly coupled to the plurality of aircraft zones; characterized in that the system further comprises at least one thermoelectric device associated with said plurality of sections of said manifold, said at least one thermoelectric device operable to condition air within said plurality of sections to a desired temperature corresponding to the plurality of aircraft zones; wherein said at least one thermoelectric device defines a plurality of zones, each of said plurality of zones being associated with one of said plurality of sections of said manifold and sized based on a demand of a respective one of the plurality of aircraft zones; and a controller operable to control an amount and polarity of current provided to the at least one thermoelectric device.
A cartridge having a front end and a rear end and capable of connecting to a game apparatus by inserting the cartridge, the front end first, into a cartridge insertion slot of the game apparatus, the cartridge comprising a plurality of terminals electrically connected to terminals of the game apparatus in the cartridge insertion slot, wherein, the plurality of terminals include a clock terminal configured to receive a clock signal from the game apparatus, and a strobe terminal configured to output a strobe signal to the game apparatus, and a direction in which the cartridge is inserted into or removed from the cartridge insertion slot is a first direction, characterized by the strobe terminal and the clock terminal are arranged sequentially in the first direction, and the clock terminal is closer to the front end of the cartridge than the strobe terminal is to the front end of the cartridge. a plurality of terminals electrically connected to terminals of the game apparatus in the cartridge insertion slot, wherein, the plurality of terminals include a clock terminal configured to receive a clock signal from the game apparatus, and a strobe terminal configured to output a strobe signal to the game apparatus, and a direction in which the cartridge is inserted into or removed from the cartridge insertion slot is a first direction, characterized by the strobe terminal and the clock terminal are arranged sequentially in the first direction, and the clock terminal is closer to the front end of the cartridge than the strobe terminal is to the front end of the cartridge.
A method performed by a radio node (10, 100) in a radio access network, the method comprising transmitting and/or receiving reference signaling in a mini-slot, the timing of the reference signaling in the mini-slot being determined based on a timing structure configuration of a slot relative to which the mini-slot is positioned within the slot; wherein the mini-slot has a length strictly less than the length of a slot, wherein the timing structure configuration indicates a timing of data signaling and structure reference signaling in the slot, the structure reference signaling indicating the timing of the reference signaling in the slot, wherein the determined timing of reference signaling in the mini-slot coincides with the indicated timing of reference signaling in the slot, and transmitting and/or receiving the reference signaling in the mini-slot.