mhurhangee/ep-ind-claims huggingface dataset:
A washing machine comprising: a cabinet; a tub that is disposed to accommodate washing water in the cabinet and has a fastening hole formed in a rear side of the tub; a drum that is rotatably disposed in the tub; a tub fixing part that is provided in plural numbers at a rear side of the cabinet in a position corresponding to the fastening hole; a fixing member that is inserted into the tub fixing part and is fastened to the fastening hole so that the tub is fixed to the rear side of the cabinet; and beads (110, 120, 130, 210, 220, 230, 310, 320, 330) that are provided at each of both side walls (100, 200, 300) of the cabinet so as to have a shape of grooves formed in a direction of an inner side of the cabinet, wherein the beads comprise first beads provided in one pair while being disposed to substantially extend in parallel to right and left edges of a side wall of the cabinet, second beads provided in one pair while being disposed to substantially extend in parallel to upper and lower edges of the side wall of the cabinet, and a connection part that connects both ends of the first beads and both ends of the second beads, and wherein the tub fixing part comprises a circular hole (141, 241) into which the fixing member is inserted, protrusion beads (143, 243) that are disposed adjacent to the hole along a circumference of the hole, and reinforcement grooves (145, 245) that are disposed to extend from the hole toward an outer side of the hole in a direction of a radius of the hole and are provided in plural numbers in a radial form around the hole. a cabinet; a tub that is disposed to accommodate washing water in the cabinet and has a fastening hole formed in a rear side of the tub; a drum that is rotatably disposed in the tub; a tub fixing part that is provided in plural numbers at a rear side of the cabinet in a position corresponding to the fastening hole; a fixing member that is inserted into the tub fixing part and is fastened to the fastening hole so that the tub is fixed to the rear side of the cabinet; and beads (110, 120, 130, 210, 220, 230, 310, 320, 330) that are provided at each of both side walls (100, 200, 300) of the cabinet so as to have a shape of grooves formed in a direction of an inner side of the cabinet, wherein the beads comprise first beads provided in one pair while being disposed to substantially extend in parallel to right and left edges of a side wall of the cabinet, second beads provided in one pair while being disposed to substantially extend in parallel to upper and lower edges of the side wall of the cabinet, and a connection part that connects both ends of the first beads and both ends of the second beads, and wherein the tub fixing part comprises a circular hole (141, 241) into which the fixing member is inserted, protrusion beads (143, 243) that are disposed adjacent to the hole along a circumference of the hole, and reinforcement grooves (145, 245) that are disposed to extend from the hole toward an outer side of the hole in a direction of a radius of the hole and are provided in plural numbers in a radial form around the hole.
Hollow metal nano particles comprising: a hollow core portion; and a shell portion including a first metal and a second metal, wherein at least two major peaks showing an atomic percentage of at least one of the first metal and the second metal are present in cross-sectional element analysis data of the particles which are obtained using an energy dispersive spectrometer, wherein the hollow metal nano particles have an average particle diameter of 12 nm or less, and wherein the average particle diameter is measured through a statistical distribution on 200 or more hollow metal nanoparticles using a graphic software based on HR-TEM image, the hollow metal nano particles are fabricated by a method comprising 1) forming a solution by adding a first metal salt, a second metal salt, and a surfactant to a solvent; and 2) forming hollow metal nano particles by adding a reducing agent to the solution, the forming of the solution comprises forming a micelle by the surfactant, and surrounding an outer portion of the micelle with the first metal salt and the second metal salt, and the forming of the hollow metal nano particles comprises forming the micelle region to a hollow form. a hollow core portion; and a shell portion including a first metal and a second metal, wherein at least two major peaks showing an atomic percentage of at least one of the first metal and the second metal are present in cross-sectional element analysis data of the particles which are obtained using an energy dispersive spectrometer, wherein the hollow metal nano particles have an average particle diameter of 12 nm or less, and wherein the average particle diameter is measured through a statistical distribution on 200 or more hollow metal nanoparticles using a graphic software based on HR-TEM image, the hollow metal nano particles are fabricated by a method comprising 1) forming a solution by adding a first metal salt, a second metal salt, and a surfactant to a solvent; and 2) forming hollow metal nano particles by adding a reducing agent to the solution, the forming of the solution comprises forming a micelle by the surfactant, and surrounding an outer portion of the micelle with the first metal salt and the second metal salt, and the forming of the hollow metal nano particles comprises forming the micelle region to a hollow form.
A method for directing a person in an area, in which a plurality of signal transmitters (4, 4A) are arranged at defined locations, comprising: determining a current position of a mobile device carried along by the person in the area; determining a next signal transmitter (4, 4A) to be reached by the person based on the current position; and transmitting a control command to the determined signal transmitter (4, 4A), wherein the control command causes the determined signal transmitter (4, 4A) to generate a signal that can be perceived by the person, characterized in that the current position is determined when the mobile device receives data from a first signal transmitter (4, 4A), wherein the data, which is stored in a data set of a database together with a location of the first signal transmitter (4, 4A), is used for obtaining the location of the first signal transmitter (4, 4A) from the data set. determining a current position of a mobile device carried along by the person in the area; determining a next signal transmitter (4, 4A) to be reached by the person based on the current position; and transmitting a control command to the determined signal transmitter (4, 4A), wherein the control command causes the determined signal transmitter (4, 4A) to generate a signal that can be perceived by the person, characterized in that the current position is determined when the mobile device receives data from a first signal transmitter (4, 4A), wherein the data, which is stored in a data set of a database together with a location of the first signal transmitter (4, 4A), is used for obtaining the location of the first signal transmitter (4, 4A) from the data set.
An oral composition, comprising: a solvent comprising water and a cosolvent chosen from C 1 -C 5 alkyl alcohols and acetone; a basic copolymer comprising basic acrylate monomeric units, basic methacrylate monomeric units, or a combination thereof; no less than 0.5 wt-% of an acid buffering or neutralizing agent; and optionally an active agent; wherein the oral composition comprises from 6 to 15 wt-% of water, from 30 to 60 wt-% of the cosolvent, and from 25 to 55 wt-% of the basic copolymer; wherein the basic copolymer is dissolved in the oral composition; wherein the oral composition is capable of forming a film on a surface when contacted with an aqueous solution; and wherein the wt-% of each component is based on the total weight of the composition. a solvent comprising water and a cosolvent chosen from C 1 -C 5 alkyl alcohols and acetone; a basic copolymer comprising basic acrylate monomeric units, basic methacrylate monomeric units, or a combination thereof; no less than 0.5 wt-% of an acid buffering or neutralizing agent; and optionally an active agent; wherein the oral composition comprises from 6 to 15 wt-% of water, from 30 to 60 wt-% of the cosolvent, and from 25 to 55 wt-% of the basic copolymer; wherein the basic copolymer is dissolved in the oral composition; wherein the oral composition is capable of forming a film on a surface when contacted with an aqueous solution; and wherein the wt-% of each component is based on the total weight of the composition.
Method for the optimal arrangement of a random generator on an electronic component (FPGAe), wherein the electronic component (FPGAe), on which the random generator is realised, is designed as a programmable integrated circuit, in particular as what is known as a Field Programmable Gate Array or FPGA, and has a basic structure consisting of a plurality of basic blocks (B1, B2,..., Bn), characterised in that during an initialisation phase, starting from a starting configuration for a respective current arrangement of the random generator on the respective electronic component (FPGAe), the following steps are performed with a predefined number of repetitions: - Carrying out a predefined test sequence with the respective current arrangement of the random generator; - Forwarding a test result to a reconfiguration module (RE, 3); - Reconfiguring the respective current arrangement of the random generator on the electronic component (FPGAe) by way of the reconfiguration module (RM, 4), wherein the respective current arrangement of the basic blocks (B1, B2,..., Bn), by way of which the random generator is represented, is adjusted or changed; wherein, on each repetition, the test result of the respective current arrangement of the random generator is compared with the test result of a respective previous arrangement of the random generator and the respective current arrangement of the random generator is then saved, if the test result for the respective current arrangement of the random generator has a better test result than the respective previous arrangement of the random generator. - Carrying out a predefined test sequence with the respective current arrangement of the random generator; - Forwarding a test result to a reconfiguration module (RE, 3); - Reconfiguring the respective current arrangement of the random generator on the electronic component (FPGAe) by way of the reconfiguration module (RM, 4), wherein the respective current arrangement of the basic blocks (B1, B2,..., Bn), by way of which the random generator is represented, is adjusted or changed;
An expiratory valve of a ventilation device, comprising a valve body having a fluid inlet and a fluid outlet for breathing air of a patient formed therein, said valve body comprising a support having a top side on which a valve membrane can be placed with an abutment area formed at the outer edge thereof, with the top side of the support having an uneven design; characterized in that the top side of the support is located in an outwardly curved imaginary surface with respect to the valve plenum enclosed by the valve body, and that the unevenness of the top side of the support is such that, only when the expiratory valve is installed in the ventilation device and the valve body is subject to stress causing deformation of the same, the top side of the support comes to lie in a planar surface and the valve membrane now has its abutment area in sheet-like contact with the top side of the support.
Floating game device (1, 101, 201, 301, 401) comprising a submerged part (3, 103, 203, 303, 403), an above-water part (2, 102, 202, 302, 402) and a floating element (4, 104, 204, 304, 404) comprising outer (4c, 104c, 204c, 404c) and inner (4d, 104d, 204d, 404d) edges, the above-water part including a first structure (5, 105, 205, 305, 405) and a first flexible surface (6, 106, 206, 306, 406) supported by that first structure, the floating element constituting a waterline that delimits the submerged part from the above-water part, and the submerged part comprising a second structure (7, 107, 207, 307, 407) and a second flexible surface (8, 108, 208, 308, 408) supported by that second structure, assembly means being configured to keep the first structure and the second structure assembled with the floating element, in a plane forming an angle with said waterline, said floating element having a part that is offset relative to the plane formed by the first and second structures, the second flexible surface being configured on the submerged part to form a resistance means in the water, said floating game device being characterized in that at least one of the first and second flexible surfaces is fixed on one of the outer and inner edges of said part of the floating element offset relative to the plane formed by the first and second structures, such that the force exerted by the water on said offset part of the floating element can be transferred onto the above-water part or the submerged part.
An assembly for use in a gas turbine engine comprising: an underlying metal sheet; at least one ceramic matrix composite panel attached to said metal sheet with at least one fastener assembly; said at least one fastener assembly including a fastener having a threaded portion extending rearwardly from a head, said head having a frustoconical surface facing said threaded portion, and said frustoconical surface of said head being received in a frustoconical bore in said ceramic matrix composite panel; and a sleeve received about said threaded portion of said fastener, and extending away from said panel, beyond said metal sheet; characterised by further comprising a bushing (138;238) positioned on an opposed side of said metal sheet from said ceramic matrix composite panel, and said bushing (138;238) having a flange (144;244) extending away from said metal sheet, said sleeve having a lip extending radially outwardly toward said flange (144;244) on said bushing (138;238), such that said flange (144;244) on said bushing (138;238) extends beyond a space defined between said lip and a seating surface (142;242) on said bushing (138;238); and a wave spring received within said space. an underlying metal sheet; at least one ceramic matrix composite panel attached to said metal sheet with at least one fastener assembly; said at least one fastener assembly including a fastener having a threaded portion extending rearwardly from a head, said head having a frustoconical surface facing said threaded portion, and said frustoconical surface of said head being received in a frustoconical bore in said ceramic matrix composite panel; and a sleeve received about said threaded portion of said fastener, and extending away from said panel, beyond said metal sheet; characterised by further comprising a bushing (138;238) positioned on an opposed side of said metal sheet from said ceramic matrix composite panel, and said bushing (138;238) having a flange (144;244) extending away from said metal sheet, said sleeve having a lip extending radially outwardly toward said flange (144;244) on said bushing (138;238), such that said flange (144;244) on said bushing (138;238) extends beyond a space defined between said lip and a seating surface (142;242) on said bushing (138;238); and a wave spring received within said space.
Valve for selectively opening a fluid line, in particular for a satellite propulsion system, comprising: - an inlet element, - an outlet area, - a closure element which in an initial position blocks a fluidic connection between the inlet element and the outlet region, and - an actuator element which is adapted to be supported on the closure element, wherein the actuator element has a thermal expansion behavior which differs from at least the inlet element, and wherein the actuator element extends along a longitudinal axis of the inlet element and, upon reaching a predetermined degree of heating, is adapted to be supported on the closure element with such a force, that the closure element is moved out of its initial position and allows a fluidic connection between the inlet element and the outlet area, characterized in that the valve further comprises a biasing device which extends along the longitudinal axis of the inlet element, which is arranged in an interspace between the actuator element and the inlet element and is supported on the closure element, and which is adapted to bias the closure element out of its initial position at the latest upon reaching the predetermined degree of heating. - an inlet element, - an outlet area, - a closure element which in an initial position blocks a fluidic connection between the inlet element and the outlet region, and - an actuator element which is adapted to be supported on the closure element, wherein the actuator element has a thermal expansion behavior which differs from at least the inlet element, and wherein the actuator element extends along a longitudinal axis of the inlet element and, upon reaching a predetermined degree of heating, is adapted to be supported on the closure element with such a force, that the closure element is moved out of its initial position and allows a fluidic connection between the inlet element and the outlet area, characterized in that the valve further comprises a biasing device which extends along the longitudinal axis of the inlet element, which is arranged in an interspace between the actuator element and the inlet element and is supported on the closure element, and which is adapted to bias the closure element out of its initial position at the latest upon reaching the predetermined degree of heating.
An electric power steering apparatus comprising: a torque sensor configured to detect steering torque of a handwheel; a motor configured to assist handwheel steering power; and a control unit configured to control a current of the motor, based on information from the torque sensor, and output a PWM signal for driving the motor, wherein the control unit includes a microcomputer, and wherein the microcomputer includes: a control amount calculation means configured to calculate a target motor current value, based on the information from the torque sensor, monitor a current supplied to the motor, perform feedback control in accordance with the difference between the target motor current value and a real motor current value detected by a monitor and then calculate a control amount; and a gain changing means configured to change a gain utilized for the feedback control, in the case where it is detected from the control amount that a duty ratio of the PWM signal is the same as or larger than a predetermined value, characterized in that the gain changing means is further configured to decrease the gain to a preliminarily determined value in a predetermined time, the decrease being implemented based on a control period so that the gain is decreased with a time constant that is smaller than a time constant in which torque for the current of the motor is produced. a torque sensor configured to detect steering torque of a handwheel; a motor configured to assist handwheel steering power; and a control unit configured to control a current of the motor, based on information from the torque sensor, and output a PWM signal for driving the motor, wherein the control unit includes a microcomputer, and wherein the microcomputer includes: a control amount calculation means configured to calculate a target motor current value, based on the information from the torque sensor, monitor a current supplied to the motor, perform feedback control in accordance with the difference between the target motor current value and a real motor current value detected by a monitor and then calculate a control amount; and a gain changing means configured to change a gain utilized for the feedback control, in the case where it is detected from the control amount that a duty ratio of the PWM signal is the same as or larger than a predetermined value, characterized in that the gain changing means is further configured to decrease the gain to a preliminarily determined value in a predetermined time, the decrease being implemented based on a control period so that the gain is decreased with a time constant that is smaller than a time constant in which torque for the current of the motor is produced.
A method for coating a plastic component, comprising the following steps: irradiating at least one portion of the surface of the plastic component with ultraviolet light, wherein the portion is irradiated with a radiation intensity of at least 20,000 μW/cm 2 for a period of at least 5 seconds, and after step A, applying at least one layer of a coating agent to the portion, wherein in step B a first layer of a first coating agent is applied to the portion, and wherein after step B the following steps are carried out: irradiating the first layer applied to the portion in step B with ultraviolet light, wherein the first layer is irradiated with a radiation intensity of at least 20,000 μW/cm 2 for a period of at least 5 seconds, and after step C, applying a second layer of a second coating agent to the first layer, wherein the first and/or the second coating agent (18, 22) is a lacquer that contains acrylate or consists of acrylate. irradiating at least one portion of the surface of the plastic component with ultraviolet light, wherein the portion is irradiated with a radiation intensity of at least 20,000 μW/cm 2 for a period of at least 5 seconds, and after step A, applying at least one layer of a coating agent to the portion, wherein in step B a first layer of a first coating agent is applied to the portion, and wherein after step B the following steps are carried out: irradiating the first layer applied to the portion in step B with ultraviolet light, wherein the first layer is irradiated with a radiation intensity of at least 20,000 μW/cm 2 for a period of at least 5 seconds, and after step C, applying a second layer of a second coating agent to the first layer, irradiating the first layer applied to the portion in step B with ultraviolet light, wherein the first layer is irradiated with a radiation intensity of at least 20,000 μW/cm 2 for a period of at least 5 seconds, and after step C, applying a second layer of a second coating agent to the first layer, wherein the first and/or the second coating agent (18, 22) is a lacquer that contains acrylate or consists of acrylate.