mhurhangee/ep-ind-claims huggingface dataset:
An automatic cleaner comprising: a casing comprising a suction port; a suction device disposed in the casing to suction a foreign substance through the suction port; a moving device that moves the casing; and a side brush assembly movably installed on the casing, wherein the side brush assembly comprises a brush housing rotatable about a first rotation shaft, and a brush rotatably mounted on the brush housing by a second rotation shaft, and the second rotation shaft is moved together with a rotation of the brush housing, characterized in that the side brush assembly further comprises a buffer member (266; 267, 268) configured to absorb shock applied to the brush housing, wherein the buffer member (266; 267, 268) comprises a first link member connected to the brush housing, a second link member connected to the casing, and an elastic member configured to provide elastic force to the first or second link member (266, 267); wherein a cam mechanism includes a rotation cam, the first and the second link members (266, 267) and the elastic member; wherein an end of the first link member is hinged to a first hinge pin provided on the rotation cam, wherein the other end of the first link member and an end of the second link member are hinged to each other through a connecting pin, and wherein the other end of the second link member is hinged to a second hinge pin fixed to the casing. a casing comprising a suction port; a suction device disposed in the casing to suction a foreign substance through the suction port; a moving device that moves the casing; and a side brush assembly movably installed on the casing, wherein the side brush assembly comprises a brush housing rotatable about a first rotation shaft, and a brush rotatably mounted on the brush housing by a second rotation shaft, and the second rotation shaft is moved together with a rotation of the brush housing, characterized in that the side brush assembly further comprises a buffer member (266; 267, 268) configured to absorb shock applied to the brush housing, wherein the buffer member (266; 267, 268) comprises a first link member connected to the brush housing, a second link member connected to the casing, and an elastic member configured to provide elastic force to the first or second link member (266, 267); wherein a cam mechanism includes a rotation cam, the first and the second link members (266, 267) and the elastic member; wherein an end of the first link member is hinged to a first hinge pin provided on the rotation cam, wherein the other end of the first link member and an end of the second link member are hinged to each other through a connecting pin, and wherein the other end of the second link member is hinged to a second hinge pin fixed to the casing.
A three-dimensional network having a surface and an interior, said three-dimensional network (a) is composed of a water-swellable polymer formed by crosslinking water soluble polymer chains; (b) is crosslinked to the surface of a rigid substrate; and (c) comprises probe molecules covalently attached to the polymer chains, characterized in that (i) said network comprises at least 5 channels, that converge at a point in the interior of the network such that the lateral distance between the channels decreases from the surface toward the point in the interior and (ii) a majority of the probe molecules are immobilized in the interior of the network and at least a portion of the probe molecules adjoin a channel. (a) is composed of a water-swellable polymer formed by crosslinking water soluble polymer chains; (b) is crosslinked to the surface of a rigid substrate; and (c) comprises probe molecules covalently attached to the polymer chains, characterized in that (i) said network comprises at least 5 channels, that converge at a point in the interior of the network such that the lateral distance between the channels decreases from the surface toward the point in the interior and (ii) a majority of the probe molecules are immobilized in the interior of the network and at least a portion of the probe molecules adjoin a channel. (i) said network comprises at least 5 channels, that converge at a point in the interior of the network such that the lateral distance between the channels decreases from the surface toward the point in the interior and (ii) a majority of the probe molecules are immobilized in the interior of the network and at least a portion of the probe molecules adjoin a channel.
Amplifier arrangement, in particular for a driver laser arrangement of an EUV light source comprising: an optical amplifier (6, 6a, 6b) for amplifying pulsed laser radiation, at least one reflective element, in particular a target material of the EUV light source or a stop (5a, 5b), at which a portion of the laser radiation (4a, 4b) emerging from the optical amplifier (6, 6a, 6b) is reflected back to the optical amplifier (6, 6a, 6b), and at least one optical isolator (1, 1a, 1b) arranged in the beam path of the laser radiation (4a, 4b) and having a polarizer device (2, 2a, 2b) for suppressing a polarization component (s, p) of the laser radiation (4a, 4b) and a phase shifting device (3a, 3b) arranged between the polarizer device (2, 2a, 2b) and the reflective element (20, 5a, 5b), wherein at least the polarizer device (2, 2a, 2b) of the optical isolator (1, 1a, 1b) is positioned at a location at which the laser radiation (4a, 4b) has a laser power (Po) of more than 500 W, wherein the polarizer device (2, 2a, 2b) is configured for reflecting a non-suppressed polarization component (s) of the laser radiation (4a, 4b), and wherein the polarizer device (2, 2a, 2b) has at least one thin-film reflector (9a,..., 9e) which absorbs the polarization component (p) to be suppressed, characterized in that the at least one absorbent thin-film reflector (9a,..., 9e) forms a deflection mirror of the optical amplifier (6, 6a), which is arranged in a housing of the optical amplifier (6, 6a) and is surrounded by a gaseous amplifier medium. an optical amplifier (6, 6a, 6b) for amplifying pulsed laser radiation, at least one reflective element, in particular a target material of the EUV light source or a stop (5a, 5b), at which a portion of the laser radiation (4a, 4b) emerging from the optical amplifier (6, 6a, 6b) is reflected back to the optical amplifier (6, 6a, 6b), and at least one optical isolator (1, 1a, 1b) arranged in the beam path of the laser radiation (4a, 4b) and having a polarizer device (2, 2a, 2b) for suppressing a polarization component (s, p) of the laser radiation (4a, 4b) and a phase shifting device (3a, 3b) arranged between the polarizer device (2, 2a, 2b) and the reflective element (20, 5a, 5b), wherein at least the polarizer device (2, 2a, 2b) of the optical isolator (1, 1a, 1b) is positioned at a location at which the laser radiation (4a, 4b) has a laser power (Po) of more than 500 W, wherein the polarizer device (2, 2a, 2b) is configured for reflecting a non-suppressed polarization component (s) of the laser radiation (4a, 4b), and wherein the polarizer device (2, 2a, 2b) has at least one thin-film reflector (9a,..., 9e) which absorbs the polarization component (p) to be suppressed, characterized in that the at least one absorbent thin-film reflector (9a,..., 9e) forms a deflection mirror of the optical amplifier (6, 6a), which is arranged in a housing of the optical amplifier (6, 6a) and is surrounded by a gaseous amplifier medium.
A method of lighting a high-pressure discharge lamp including an arc tube part having an internal space, a pair of tungsten electrodes disposed in opposition to each other within the internal space, and mercury and halogen encapsulated into the internal space, comprising: lighting the high-pressure discharge lamp at an arc tube part temperature of greater than or equal to 750 degrees Celsius and less than or equal to 870 degrees Celsius in a condition that an encapsulated rate of the mercury is set to be greater than or equal to 0.33 mg/mm 3 and less than or equal to 0.495 mg/mm 3 and an encapsulated rate of the halogen is set to be greater than or equal to 20×10 -4 μmol/mm 3 and less than or equal to 50×10 -4 μmol/mm 3. lighting the high-pressure discharge lamp at an arc tube part temperature of greater than or equal to 750 degrees Celsius and less than or equal to 870 degrees Celsius in a condition that an encapsulated rate of the mercury is set to be greater than or equal to 0.33 mg/mm 3 and less than or equal to 0.495 mg/mm 3 and an encapsulated rate of the halogen is set to be greater than or equal to 20×10 -4 μmol/mm 3 and less than or equal to 50×10 -4 μmol/mm 3.
A secure system, comprising: a plurality of circuit blocks on an integrated circuit, IC, chip; a plurality of charge storage devices distributed throughout the IC chip, the system being arranged such that each charge storage device independently provides power to a corresponding circuit block of the plurality of circuit blocks; and a charge distribution controller, wherein the charge distribution controller is arranged to connect and disconnect the terminals of each charge storage device of the plurality of charge storage devices to, respectively, a power line and a ground line of a power supply and to connect and disconnect the high and low supply rails of each circuit block of the plurality of circuit blocks, respectively, to the terminals of a corresponding charge storage device of the plurality of charge storage devices, wherein the charge distribution controller is arranged to connect each charge storage device to the power line and the ground line for charging the respective charge storage device and to connect each charge storage device to the corresponding circuit block during operation of the corresponding circuit block. a plurality of circuit blocks on an integrated circuit, IC, chip; a plurality of charge storage devices distributed throughout the IC chip, the system being arranged such that each charge storage device independently provides power to a corresponding circuit block of the plurality of circuit blocks; and a charge distribution controller, wherein the charge distribution controller is arranged to connect and disconnect the terminals of each charge storage device of the plurality of charge storage devices to, respectively, a power line and a ground line of a power supply and to connect and disconnect the high and low supply rails of each circuit block of the plurality of circuit blocks, respectively, to the terminals of a corresponding charge storage device of the plurality of charge storage devices, wherein the charge distribution controller is arranged to connect each charge storage device to the power line and the ground line for charging the respective charge storage device and to connect each charge storage device to the corresponding circuit block during operation of the corresponding circuit block.
A biaxially stretched polypropylene film for a capacitor, which has projections on both surfaces thereof, and has a thickness t1 (μm) of 4 to 20 μm, wherein when one of both the surfaces that is smaller in SRz is represented by a surface A and the other surface is represented by a surface B, all of the following expressions are satisfied: 800 ≤ SRzB ≤ 1, 300 nm, 0.1 ≤ SRzA / SRzB ≤ 0.8, PBmin ≥ 100 nm, PBmax ≤ 1, 500 nm, and 0.4 ≤ PB 450 − 750 / PB ≤ 0.7, wherein: SRzA: a ten-point average roughness (nm) of the surface A, SRzB: a ten-point average roughness (nm) of the surface B, PBmin: a minimum projection height (nm) of the surface B, PBmax: a maximum projection height (nm) of the surface B, PB450-750: the number of projections which are present in the surface B and each have a height of 450 nm or more but less than 750 nm per 0.1 mm 2 (number/0.1-mm 2), and PB: the total number of projections present in the surface B per 0.1 mm 2 (number/0.1-mm2); wherein the biaxially stretched polypropylene film contains a branched polypropylene in a proportion of 0.05 to 10.0% by mass. SRzA: a ten-point average roughness (nm) of the surface A, SRzB: a ten-point average roughness (nm) of the surface B, PBmin: a minimum projection height (nm) of the surface B, PBmax: a maximum projection height (nm) of the surface B, PB450-750: the number of projections which are present in the surface B and each have a height of 450 nm or more but less than 750 nm per 0.1 mm 2 (number/0.1-mm 2), and PB: the total number of projections present in the surface B per 0.1 mm 2 (number/0.1-mm2);
A facility for heat-shrinking sleeves made of a heat-shrinkable material inserted onto supports, such as containers, comprising: - an enclosure, - means for heating by steam arranged in the enclosure, - water steam generation means for supplying the heating means with steam, - at least one conveyor for carrying the supports through the enclosure between an intake of the enclosure and an output of the enclosure, in the facility the steam-generation means comprises an adjustment means suitable for controlling the steam-generation means according to at least one measurement of the temperature prevailing in the enclosure such as to make the measured temperature tend towards a given set temperature, wherein the temperature is measured in a predetermined area of the enclosure, and adjustment means are arranged to control the steam generation means such as to make the temperature in the predetermined area tend towards the given set temperature, wherein the facility comprise means be capable of measuring and controlling a temperature prevailing in at least two different predetermined areas of the enclosure, wherein adjustment means comprises a plurality of temperature sensors mounted in the enclosure and capable of each measuring a temperature prevailing in a different predetermined area of the enclosure, the facility being characterized in that said sensors are arranged at different heights in the enclosure. - an enclosure, - means for heating by steam arranged in the enclosure, - water steam generation means for supplying the heating means with steam, - at least one conveyor for carrying the supports through the enclosure between an intake of the enclosure and an output of the enclosure,
Humidity analyser for plant samples, comprising: - a receiver which receives the load formed by a plant sample and is driven in rotation by a drive device, - a drying installation for drying by means of heated dry air, having blowing members (43, 44) directed at the load through the receiver, - a weighing installation for weighing the receiver containing the load, - a control unit which is connected to the receiver, to the device for driving in rotation, to the drying installation and to the weighing installation in order to control the weighing of the loaded receiver before and after the drying phase as well as the rotation of the receiver and the actuation of the drying installation, characterised in that - the receiver is rotatably mounted in a support carried by a positioning unit which engages the receiver with the drive device in order to drive it in rotation or to disengage it before and after the phase of driving in rotation and place it in the weighing installation. - a receiver which receives the load formed by a plant sample and is driven in rotation by a drive device, - a drying installation for drying by means of heated dry air, having blowing members (43, 44) directed at the load through the receiver, - a weighing installation for weighing the receiver containing the load, - a control unit which is connected to the receiver, to the device for driving in rotation, to the drying installation and to the weighing installation in order to control the weighing of the loaded receiver before and after the drying phase as well as the rotation of the receiver and the actuation of the drying installation, - the receiver is rotatably mounted in a support carried by a positioning unit which engages the receiver with the drive device in order to drive it in rotation or to disengage it before and after the phase of driving in rotation and place it in the weighing installation.
A LED backlight system, comprising: a plurality of backlight segments, each backlight segment supporting a sidelight emitting LED (140, 340); a light guide (120, 320) included in each backlight segment, with the light guide further defining a cavity (130, 330) having a top and sidewalls, with the sidelight emitting LED positioned in the cavity; and a top out-coupling structure positioned between the top of the cavity and the sidelight emitting LED, wherein a reflective layer is formed on the top out-coupling structure, and wherein a sidewall in-coupling structure is formed or defined in the sidewalls of the cavity. a plurality of backlight segments, each backlight segment supporting a sidelight emitting LED (140, 340); a light guide (120, 320) included in each backlight segment, with the light guide further defining a cavity (130, 330) having a top and sidewalls, with the sidelight emitting LED positioned in the cavity; and a top out-coupling structure positioned between the top of the cavity and the sidelight emitting LED, wherein a reflective layer is formed on the top out-coupling structure, and wherein a sidewall in-coupling structure is formed or defined in the sidewalls of the cavity.
Apparatus for the treatment of an object, comprising a chamber configured to hold said object to be treated, a sensor element to be associated with said object and operable to sense a parameter related to the temperature of the object during the treatment thereof, and a detector, characterized in that said sensor element is a magnetically susceptible microwire sensor operable to generate a temperature-sensitive re-magnetization response under the influence of an applied alternating magnetic field, said re-magnetization response being: correlated with said temperature parameter during said treatment of said object, defined by at least one detectable pulse of magnetic field perturbation, and different below and above at least one set point temperature, and said detector including an antenna assembly (132, 134) proximal to said chamber and operable to generate said alternating magnetic field in the region of said sensor, and to detect said re-magnetization response of said sensor as a measure of said parameter. said sensor element is a magnetically susceptible microwire sensor operable to generate a temperature-sensitive re-magnetization response under the influence of an applied alternating magnetic field, said re-magnetization response being: correlated with said temperature parameter during said treatment of said object, defined by at least one detectable pulse of magnetic field perturbation, and different below and above at least one set point temperature, and said detector including an antenna assembly (132, 134) proximal to said chamber and operable to generate said alternating magnetic field in the region of said sensor, and to detect said re-magnetization response of said sensor as a measure of said parameter.
An organic solar cell comprising: a substrate; a first electrode provided on the substrate; a second electrode provided to face the first electrode; an organic material layer of one or more layers including a photoactive layer provided between the first electrode and the second electrode; and an electrode reformed layer provided between the first electrode and the photoactive layer, wherein the electrode reformed layer has a single layer structure characterized by the electrode reform layer including a metal oxide and MgF 2. a substrate; a first electrode provided on the substrate; a second electrode provided to face the first electrode; an organic material layer of one or more layers including a photoactive layer provided between the first electrode and the second electrode; and an electrode reformed layer provided between the first electrode and the photoactive layer, wherein the electrode reformed layer has a single layer structure characterized by the electrode reform layer including a metal oxide and MgF 2.
A heater unit comprising: a heater-mounting part attached to an outside of an object; a coil coupled to the heater-mounting part and generating a magnetic field by electric current flowing therein; a magnetic member disposed at a side of the coil and coupled to the heater-mounting part; a cover member covering an outside of the coil and an outside of the magnetic member; and a coupling member (260, 270) for detachably coupling the heater-mounting part to the object, characterized in that the heater-mounting part comprises: a coil-mounting surface on which the coil is mounted; a magnetic member coupling part (244a, 244b) having insertion recesses into which the magnetic member is inserted, the magnetic member coupling part (244a, 244b) being spaced apart from the coil-mounting surface outward; a mounting space between the coil-mounting surface and the magnetic member coupling part (244a, 244b), and receiving the coupling member (260, 270); and a catching protrusion disposed at a region of the coil-mounting surface to catch the coil. a heater-mounting part attached to an outside of an object; a coil coupled to the heater-mounting part and generating a magnetic field by electric current flowing therein; a magnetic member disposed at a side of the coil and coupled to the heater-mounting part; a cover member covering an outside of the coil and an outside of the magnetic member; and a coupling member (260, 270) for detachably coupling the heater-mounting part to the object, characterized in that the heater-mounting part comprises: a coil-mounting surface on which the coil is mounted; a magnetic member coupling part (244a, 244b) having insertion recesses into which the magnetic member is inserted, the magnetic member coupling part (244a, 244b) being spaced apart from the coil-mounting surface outward; a mounting space between the coil-mounting surface and the magnetic member coupling part (244a, 244b), and receiving the coupling member (260, 270); and a catching protrusion disposed at a region of the coil-mounting surface to catch the coil. a coil-mounting surface on which the coil is mounted; a magnetic member coupling part (244a, 244b) having insertion recesses into which the magnetic member is inserted, the magnetic member coupling part (244a, 244b) being spaced apart from the coil-mounting surface outward; a mounting space between the coil-mounting surface and the magnetic member coupling part (244a, 244b), and receiving the coupling member (260, 270); and a catching protrusion disposed at a region of the coil-mounting surface to catch the coil.