mhurhangee/ep-ind-claims huggingface dataset:
A laundry treating apparatus comprising: a control panel including a rotary knob; a light guide including an inner wall and an outer wall which are circular to define an annular space therebetween, and a plurality of ribs disposed between the inner wall and outer wall to define a plurality of cells each arranged to accommodate an LED; and a window, which includes an annular light transmission portion exposed to the outside, arranged to receive light from each cell to create an annular lighting pattern around the rotary knob, wherein at least one rib includes a ridge portion that decreases in thickness in a direction toward the window, characterized in that said at least one rib has a triangular section pointed toward the window, and at least one other rib has a constant thickness, and wherein one end of each ridge portion is in the same plane as one end of the inner wall and one end of the outer wall. a control panel including a rotary knob; a light guide including an inner wall and an outer wall which are circular to define an annular space therebetween, and a plurality of ribs disposed between the inner wall and outer wall to define a plurality of cells each arranged to accommodate an LED; and a window, which includes an annular light transmission portion exposed to the outside, arranged to receive light from each cell to create an annular lighting pattern around the rotary knob, wherein at least one rib includes a ridge portion that decreases in thickness in a direction toward the window, characterized in that said at least one rib has a triangular section pointed toward the window, and at least one other rib has a constant thickness, and wherein one end of each ridge portion is in the same plane as one end of the inner wall and one end of the outer wall.
A multi-arm polyethylene glycol derivative represented by the following formula: wherein L represents a group selected from a linear or branched alkylene, arylene, or cycloalkylene group having two or more carbon atoms and combinations thereof, which may be alkyleneoxyalkylene or aryleneoxyalkylene in case of an ether bond in a chain; X represents a dehydroxylation residue of a linear sugar alcohol having 5 or 7 carbon atoms; m is the number of polyethylene glycol chains bonded to X and represents 4 or 6; n is the average addition molar number of oxyethylene groups and n represents an integer of 3 to 600; Y represents a single bond or an alkylene group which may have an ester bond, a urethane bond, an amide bond, an ether bond, a carbonate bond, a secondary amino group, a urea bond, a thioether bond or a thioester bond in a chain or at an end; and Z represents a chemically reactive functional group selected from functional groups containing a carboxylic acid, an active ester, an active carbonate, an aldehyde, an amine, an oxyamine, a hydrazide, an azide, an unsaturated bond, a thiol, a dithiopyridine, a sulfone, a maleimide, a vinylsulfone, an α-iodoacetyl, an acrylate, an isocyanate, an isothiocyanate or an epoxide.
Method for deciding on a distribution path of a task in a device that comprises one or more busses (112, 114, 212, 214, 312, 314, 412, 512, 514, 612, 614, 712a, 712b, 712c, 812, 814) and a plurality of processing elements (122-134, 222, 322-334, 422-434, 522-550, 620-640, 720a-742, 822-842), wherein for the at least one processing element (122-134, 222, 322-334, 422-434, 522-550, 620-640, 720a-742, 822-842), at least two paths for communicating with this processing element (122-134, 222, 322-334, 422-434, 522-550, 620-640, 720a-742, 822-842) are available, the method comprising the steps: - identifying one or more processing elements (122-134, 222, 322-334, 422-434, 522-550, 620-640, 720a-742, 822-842) from the plurality of processing elements that are capable of processing the task, characterized by - identifying at least two paths for communicating with the one or more identified processing elements (122-134, 222, 322-334, 422-434, 522-550, 620-640, 720a-742, 822-842), - predicting a cycle length for one or more of the identified processing elements (122-134, 222, 322-334, 422-434, 522-550, 620-640, 720a-742, 822-842) and the identified at least two paths, - selecting a preferred processing element from the identified processing elements (122-134, 222, 322-334, 422-434, 522-550, 620-640, 720a-742, 822-842) and selecting a preferred path from the identified at least two paths, wherein the selection of the preferred processing element (122-134, 222, 322-334, 422-434, 522-550, 620-640, 720a-742, 822-842) and the selection of the preferred paths is based on the prediction of the cycle length. - identifying one or more processing elements (122-134, 222, 322-334, 422-434, 522-550, 620-640, 720a-742, 822-842) from the plurality of processing elements that are capable of processing the task, characterized by - identifying at least two paths for communicating with the one or more identified processing elements (122-134, 222, 322-334, 422-434, 522-550, 620-640, 720a-742, 822-842), - predicting a cycle length for one or more of the identified processing elements (122-134, 222, 322-334, 422-434, 522-550, 620-640, 720a-742, 822-842) and the identified at least two paths, - selecting a preferred processing element from the identified processing elements (122-134, 222, 322-334, 422-434, 522-550, 620-640, 720a-742, 822-842) and selecting a preferred path from the identified at least two paths, wherein the selection of the preferred processing element (122-134, 222, 322-334, 422-434, 522-550, 620-640, 720a-742, 822-842) and the selection of the preferred paths is based on the prediction of the cycle length.
A supporting structure for controlled gravity displacement of carried material characterized in that it comprises at least two spiral supports having an upper surface and a lower surface, said spiral supports form coils and have a common axis, wherein the vertical distance between the adjoining threads of the spiral supports is in range from 0.5m to 2.0m, the supporting structure further includes a system of vents for gas inflow to the upper surface of each spiral support that end on the upper surface of the spiral support and/or above the upper surface of the spiral support in the distance of not more than 0.7 of the vertical distance between the adjoining threads of the spiral supports, wherein the supporting structure is adapted to the rotary mounting inside an envelope with the spiral support axis oriented vertically with deviation not more than 8°. said spiral supports form coils and have a common axis, wherein the vertical distance between the adjoining threads of the spiral supports is in range from 0.5m to 2.0m, the supporting structure further includes a system of vents for gas inflow to the upper surface of each spiral support that end on the upper surface of the spiral support and/or above the upper surface of the spiral support in the distance of not more than 0.7 of the vertical distance between the adjoining threads of the spiral supports, wherein the supporting structure is adapted to the rotary mounting inside an envelope with the spiral support axis oriented vertically with deviation not more than 8°.
Polyester polyol, suitable for use in the manufacture of a polyurethane, said polyester polyol having an ABA-structure, in which A represents a lactide-oligomer and in which B represents an initiator, wherein the initiator comprises a reaction product comprising a long chain dicarboxylic acid component having 18 or more carbon atoms, and wherein the polyester polyol of ABA structure is characterized in that: the total length of both parts A constituting the lactide oligomer part of the polyol comprises 4 to 16 lactoyl units; and the amount of lactide in the polyester polyol is between 10 and 70% by weight, based on the total weight of the polyol. the total length of both parts A constituting the lactide oligomer part of the polyol comprises 4 to 16 lactoyl units; and the amount of lactide in the polyester polyol is between 10 and 70% by weight, based on the total weight of the polyol.
Wind farm having at least two wind energy installations, each having an operational controller, and a farm master having a power regulator for controlling the wind energy installations, to which a desired value signal for the wind farm power output (P S_Park) is applied and which outputs desired signals for the power output of the wind energy installation (P S_WEA), characterized in that the power regulator has a predictor which is designed to determine corrected desired values for the wind energy installations if the desired value signal for the wind farm changes, wherein the corrected desired values are applied to the power regulator.
Module for a telecommunication subrack, the module being configured to be removably and horizontally mounted in the subrack, the module comprising; a connector part disposed in a rear of the module and comprising one or more output connectors for connecting the module to the backplane; characterized by comprising: a power part arranged in the front of the module for securing power feed to a backplane of the subrack, the power part comprising: one or more input connectors arranged on the left and/or right side of the power part, as seen from the front, for accommodating power cables from an external power supply; ventilation openings arranged in the bottom of the power part; and power filtering functions, including circuitry for filtering out electrical noise derived from the external power supply; and a fan assembly disposed between the power part and the connector part and comprising one or more fans for cooling of the subrack. a power part arranged in the front of the module for securing power feed to a backplane of the subrack, the power part comprising: one or more input connectors arranged on the left and/or right side of the power part, as seen from the front, for accommodating power cables from an external power supply; ventilation openings arranged in the bottom of the power part; and power filtering functions, including circuitry for filtering out electrical noise derived from the external power supply; one or more input connectors arranged on the left and/or right side of the power part, as seen from the front, for accommodating power cables from an external power supply; ventilation openings arranged in the bottom of the power part; and power filtering functions, including circuitry for filtering out electrical noise derived from the external power supply; and a fan assembly disposed between the power part and the connector part and comprising one or more fans for cooling of the subrack.
A method of forming a fluid level sensor comprising: coupling an array of heating elements and sensors to a first side of a substrate, the sensors juxtaposed to the heating elements such that the heating elements provide heat for the sensors to detect; coupling a second side of the substrate to a carrier via a releasable adhesive; coupling an electrical interface to the carrier via the releasable adhesive; electrically coupling the array to the electrical interface via a conductive wire; overmolding the electrical interface, the first side of the substrate, and the conductive wire to form an overmolded fluid level sensor. coupling an array of heating elements and sensors to a first side of a substrate, the sensors juxtaposed to the heating elements such that the heating elements provide heat for the sensors to detect; coupling a second side of the substrate to a carrier via a releasable adhesive; coupling an electrical interface to the carrier via the releasable adhesive; electrically coupling the array to the electrical interface via a conductive wire; overmolding the electrical interface, the first side of the substrate, and the conductive wire to form an overmolded fluid level sensor.
An adsorption structure unit comprising an adsorption structure, the adsorption structure comprising: a filter portion having a plurality of flow paths divided by a plurality of partition walls made of porous ceramic and a plugged portion shutting a feed water inflow end or a feed water outflow end of the plurality of flow paths; a water-impermeable outer tube accommodating the filter portion, the outer tube having a length exceeding a total length of the filter portion and both end surfaces of the outer tube forming a flat surface; and a seal material blocking a gap between the filter portion and the outer tube in at least one end portion of the filter portion, the seal material being embedded up to an outside surface of the filter portion; and a housing for storing the adsorption structure; characterized in that the housing is constituted by a first housing on a side where feed water is supplied and a second housing on a side where the feed water is discharged, and is adapted to supply feed water from one end of the adsorption structure, and to discharge the feed water from the other end; first ring members (61, 62) are disposed between end portions on both sides of the outer tube and an inner surface of the housing to provide a watertight structure; and the first housing and the second housing form a sealed structure via a second ring member different from the first ring members (61,62). a filter portion having a plurality of flow paths divided by a plurality of partition walls made of porous ceramic and a plugged portion shutting a feed water inflow end or a feed water outflow end of the plurality of flow paths; a water-impermeable outer tube accommodating the filter portion, the outer tube having a length exceeding a total length of the filter portion and both end surfaces of the outer tube forming a flat surface; and a seal material blocking a gap between the filter portion and the outer tube in at least one end portion of the filter portion, the seal material being embedded up to an outside surface of the filter portion; and a housing for storing the adsorption structure; characterized in that the housing is constituted by a first housing on a side where feed water is supplied and a second housing on a side where the feed water is discharged, and is adapted to supply feed water from one end of the adsorption structure, and to discharge the feed water from the other end; first ring members (61, 62) are disposed between end portions on both sides of the outer tube and an inner surface of the housing to provide a watertight structure; and the first housing and the second housing form a sealed structure via a second ring member different from the first ring members (61,62).
System comprising an optical device intended to be worn by a user and a calculation module, the optical device comprising a light sensor (302-a), the light sensor (302-a) being located in an internal side of the optical device and in a vicinity of a front part of the optical device, the light sensor (302-a) being configured to determine an amount of light that it receives, the calculation module being configured to determine an amount of backlight received by the optical device using the amount of light received by the light sensor (302-a). the optical device comprising a light sensor (302-a), the light sensor (302-a) being located in an internal side of the optical device and in a vicinity of a front part of the optical device, the light sensor (302-a) being configured to determine an amount of light that it receives, the calculation module being configured to determine an amount of backlight received by the optical device using the amount of light received by the light sensor (302-a).
A fuel cell, comprising: a first electrode; a second electrode; and an electrolyte located between the first electrode and the second electrode, wherein the first electrode includes an electron-conducting material and a catalyst, the catalyst comprising dendritic structures, the dendritic structures being metal dendrimers, the dendritic structures being dendritic nanosheets, the dendritic nanosheets being generally disk-shaped with a diameter between 1 nm and 1000 nm, and having a thickness between 1 nm and 50 nm. a first electrode; a second electrode; and an electrolyte located between the first electrode and the second electrode, wherein the first electrode includes an electron-conducting material and a catalyst, the catalyst comprising dendritic structures, the dendritic structures being metal dendrimers, the dendritic structures being dendritic nanosheets, the dendritic nanosheets being generally disk-shaped with a diameter between 1 nm and 1000 nm, and having a thickness between 1 nm and 50 nm.
A method to produce a veneered element, the method comprising - applying a first layer on a substrate, - applying a second layer on the first layer, - applying a veneer layer on the second layer, - pressing the first layer, the second layer and the veneer layer together to form a veneered element, wherein, after pressing, the second layer is transparent or translucent such that the first layer is visible through a defect of the veneer layer such as a crack, cavity, hole and/or knot, and wherein, during pressing, any defect of the veneer layer such as a crack, cavity, hole and/or knot is at least partially filled with material originating from both the first and the second layer. - applying a first layer on a substrate, - applying a second layer on the first layer, - applying a veneer layer on the second layer, - pressing the first layer, the second layer and the veneer layer together to form a veneered element, wherein, after pressing, the second layer is transparent or translucent such that the first layer is visible through a defect of the veneer layer such as a crack, cavity, hole and/or knot, and wherein, during pressing, any defect of the veneer layer such as a crack, cavity, hole and/or knot is at least partially filled with material originating from both the first and the second layer.
A laundry treating apparatus comprising: an accommodating body comprising a bottom surface; a front surface extended from the bottom surface upward; a rear surface fixed to the bottom surface and facing the front surface; and first and second lateral surfaces (214, 215) connecting the front surface and the rear surface with each other; a dry chamber mounted in the accommodating body and comprising a chamber bottom; a chamber front; a chamber rear; chamber first and second sides (234, 235) which are spaced a preset distance apart from the bottom surface, the front surface, the rear surface and the first and second lateral surfaces (214, 215); and a rack provided in the dry chamber and providing a space in which drying objects are disposed, characterized by further comprising an air inlet hole (217, 219) penetrating the rear surface of the accommodating body; an air supply unit for supplying heated air to a space formed between the accommodating body and the dry chamber via the air inlet hole; and an air supply hole (238a, 238b) penetrating the chamber front and allowing internal air of the accommodating body to be supplied to the dry chamber. an accommodating body comprising a bottom surface; a front surface extended from the bottom surface upward; a rear surface fixed to the bottom surface and facing the front surface; and first and second lateral surfaces (214, 215) connecting the front surface and the rear surface with each other; a dry chamber mounted in the accommodating body and comprising a chamber bottom; a chamber front; a chamber rear; chamber first and second sides (234, 235) which are spaced a preset distance apart from the bottom surface, the front surface, the rear surface and the first and second lateral surfaces (214, 215); and a rack provided in the dry chamber and providing a space in which drying objects are disposed, characterized by further comprising an air inlet hole (217, 219) penetrating the rear surface of the accommodating body; an air supply unit for supplying heated air to a space formed between the accommodating body and the dry chamber via the air inlet hole; and an air supply hole (238a, 238b) penetrating the chamber front and allowing internal air of the accommodating body to be supplied to the dry chamber.
A method of fabricating a cover window, the method comprising the steps of: forming, on a glass article having a flat upper surface, a mask layer and a recess portion having a partially recessed upper surface on the mask layer; and etching the mask layer and the glass article to form the cover window having a partially recessed upper surface on the mask layer characterized by the mask layer including water glass, wherein the forming of the cover window is performed by a wet etching process, and wherein in the forming of the cover window, the mask layer is dissolved by an etchant and the upper surface of the glass article is partially etched. forming, on a glass article having a flat upper surface, a mask layer and a recess portion having a partially recessed upper surface on the mask layer; and etching the mask layer and the glass article to form the cover window having a partially recessed upper surface on the mask layer characterized by the mask layer including water glass, wherein the forming of the cover window is performed by a wet etching process, and wherein in the forming of the cover window, the mask layer is dissolved by an etchant and the upper surface of the glass article is partially etched.
A method for startup of a crystal oscillator, XO, (10, 20, 30) with aid of external clock injection, the method comprising: utilizing an external oscillator which is external to an XO core circuit of the XO (10, 20, 30) to generate an injected signal, wherein the XO (10, 20, 30) comprises the XO core circuit, the external oscillator positioned outside of the XO core circuit, and at least one injection switch, the at least one injection switch is coupled between an injection node of the XO (10, 20, 30) and an output terminal of the XO core circuit, the external oscillator is coupled to the injection node, and a quality factor of the external oscillator is lower than a quality factor of the XO core circuit; turning on the at least one injection switch to make energy of the injected signal be injected into the XO core circuit, thereby increasing energy of an intrinsic oscillation signal of the XO core circuit, wherein a modulation signal is generated on the injection node according to combination of the injected signal and the intrinsic oscillation signal; and controlling the external oscillator to selectively change an injection frequency of the injected signal according to the modulation signal; wherein the at least one injection switch is turned on while the external oscillator selectively changes the injection frequency of the injected signal. utilizing an external oscillator which is external to an XO core circuit of the XO (10, 20, 30) to generate an injected signal, wherein the XO (10, 20, 30) comprises the XO core circuit, the external oscillator positioned outside of the XO core circuit, and at least one injection switch, the at least one injection switch is coupled between an injection node of the XO (10, 20, 30) and an output terminal of the XO core circuit, the external oscillator is coupled to the injection node, and a quality factor of the external oscillator is lower than a quality factor of the XO core circuit; turning on the at least one injection switch to make energy of the injected signal be injected into the XO core circuit, thereby increasing energy of an intrinsic oscillation signal of the XO core circuit, wherein a modulation signal is generated on the injection node according to combination of the injected signal and the intrinsic oscillation signal; and controlling the external oscillator to selectively change an injection frequency of the injected signal according to the modulation signal; wherein the at least one injection switch is turned on while the external oscillator selectively changes the injection frequency of the injected signal.