mhurhangee/ep-ind-claims huggingface dataset:
An air conditioner comprising: a housing including a circular shaped grille in which an inlet is formed, an insertion space inside the housing, and an outlet having a ring-shape, surrounding the circular shaped grille, through which to discharge air suctioned through the inlet to an outside of the housing; a heat exchanger inside the housing; an airflow control guide unit which is insertable into the insertion space and is slidable between a first position and a second position, wherein the airflow control guide unit is configured so that when the airflow control guide unit is in the first position, the airflow control guide unit is inserted into the insertion space, and the air discharged through the outlet is wide airflow heading toward the outward direction of the radial direction of the outlet, and when the airflow control guide unit is in the second position, the airflow control guide unit is protruding toward the outside of the housing, and the air discharged through the outlet is descending airflow heading below the outlet; and a driving device configured to slide the airflow control guide unit between the first position and the second position, and wherein the airflow control guide unit and the insertion space are provided at an outside in the outward radial direction of the outlet. a housing including a circular shaped grille in which an inlet is formed, an insertion space inside the housing, and an outlet having a ring-shape, surrounding the circular shaped grille, through which to discharge air suctioned through the inlet to an outside of the housing; a circular shaped grille in which an inlet is formed, an insertion space inside the housing, and an outlet having a ring-shape, surrounding the circular shaped grille, through which to discharge air suctioned through the inlet to an outside of the housing; a heat exchanger inside the housing; an airflow control guide unit which is insertable into the insertion space and is slidable between a first position and a second position, wherein the airflow control guide unit is configured so that when the airflow control guide unit is in the first position, the airflow control guide unit is inserted into the insertion space, and the air discharged through the outlet is wide airflow heading toward the outward direction of the radial direction of the outlet, and when the airflow control guide unit is in the second position, the airflow control guide unit is protruding toward the outside of the housing, and the air discharged through the outlet is descending airflow heading below the outlet; and a driving device configured to slide the airflow control guide unit between the first position and the second position, and wherein the airflow control guide unit and the insertion space are provided at an outside in the outward radial direction of the outlet.
Method for producing a nuclear component by the direct liquid injection metal organic chemical vapour deposition (DLI-MOCVD) method, the nuclear component being chosen from among a nuclear fuel cladding, a spacer grid, a guide tube, a plate fuel or an absorber rod, comprising: - i) a supporting base containing a substrate based on a metal chosen from among zirconium, titanium, vanadium, molybdenum or the base alloys thereof, the substrate being optionally clad with an interlayer positioned between the substrate and at least one protective layer; - ii) said at least one protective layer cladding said supporting base and composed of a protective material comprising chromium which is a partially metastable chromium comprising a chromium stable crystalline phase comprising chromium of centred cubic crystallographic structure based on the Im-3m space group and a chromium metastable crystalline phase comprising chromium of centred cubic crystallographic structure based on the Pm-3n space group; the method comprising the following successive steps: a) vaporising a stock solution containing a hydrocarbon solvent devoid of oxygen atoms, a bis(arene) type precursor comprising chromium; and containing where appropriate an additional precursor, a carbon incorporation inhibitor or mixture thereof; the precursors having a decomposition temperature between 300°C and 600°C; b) in a chemical vapour deposition reactor wherein said supporting base to be clad is located and of which the atmosphere is at a deposition temperature between 300°C and 450°C and under a deposition pressure between 13 Pa and 7000 Pa; introducing the stock solution vaporised in step a), which induces the deposition of said at least one protective layer on said supporting base. - i) a supporting base containing a substrate based on a metal chosen from among zirconium, titanium, vanadium, molybdenum or the base alloys thereof, the substrate being optionally clad with an interlayer positioned between the substrate and at least one protective layer; - ii) said at least one protective layer cladding said supporting base and composed of a protective material comprising chromium which is a partially metastable chromium comprising a chromium stable crystalline phase comprising chromium of centred cubic crystallographic structure based on the Im-3m space group and a chromium metastable crystalline phase comprising chromium of centred cubic crystallographic structure based on the Pm-3n space group; a) vaporising a stock solution containing a hydrocarbon solvent devoid of oxygen atoms, a bis(arene) type precursor comprising chromium; and containing where appropriate an additional precursor, a carbon incorporation inhibitor or mixture thereof; the precursors having a decomposition temperature between 300°C and 600°C; b) in a chemical vapour deposition reactor wherein said supporting base to be clad is located and of which the atmosphere is at a deposition temperature between 300°C and 450°C and under a deposition pressure between 13 Pa and 7000 Pa; introducing the stock solution vaporised in step a), which induces the deposition of said at least one protective layer on said supporting base.
A garment comprising: a first layer comprising a first inner face and a first outer face; a second layer comprising a second inner face and a second outer face; and a thermal layer comprising a plurality of discrete and individual crimped thermally-reflective metallized polymer strands, wherein the thermal layer is sandwiched between the first layer and the second layer.
Domestic appliance, which can be switched between a standby mode and an operating mode, with a mains connection, at which an electrical mains voltage can be applied relative to a reference potential, with a main supply unit, which is configured to supply an electrical operating voltage from the mains voltage at its output, and with at least one electrical consumer (29a to 29f), which can be supplied with the operating voltage, and with an electrical switch, by means of which at least the output of the main supply unit is electrically isolated from the mains connection in standby mode, and voltage supply means, which are separate from the main supply unit and are coupled to the mains connection and which tap the mains voltage at the mains connection in standby mode and supply a supply voltage from said mains voltage, with which the electrical switch can be switched to its electrically conducting switching state, by which means the domestic appliance can be switched from standby mode to operating mode, characterised by a power electronics unit, which is coupled electrically by way of a further, in particular mechanical, switch to the mains connection, whereby when the domestic appliance is switched from standby mode to operating mode, the first electrical switch is switched to the respective electrically conducting switching state first and then the further switch.
A battery for an electronic device, comprising: a body module having a first surface and a second surface that are oppositely provided; a component module coupled to the body module, wherein the component module comprises an electrical component configured to test performance of the battery; a wrapping layer configured to wrap the component module; a first insulating film arranged on the first surface, wherein a part of the first insulating film extends to the component module and is adhered to the wrapping layer; a second insulating film arranged on the second surface, wherein a part of the second insulating film extends to the component module and is adhered to the wrapping layer; and at least one easy-to-pull adhesive tape, each easy-to-pull adhesive tape comprising an adhesion portion, an adhesive-free region and a hand pulling portion, wherein the adhesion portion is located at one end of the easy-to-pull adhesive tape and adhered to the second surface, the hand pulling portion is located at the other end of the easy-to-pull adhesive tape, and the hand pulling portion bypasses the component module and is then overlapped with the first insulating film, the adhesive-free region and the hand pulling portion are located on an outside of the wrapping layer, the adhesive-free region is located between the adhesion portion and the hand pulling portion, and the adhesive-free region is bonded to the wrapping layer. a body module having a first surface and a second surface that are oppositely provided; a component module coupled to the body module, wherein the component module comprises an electrical component configured to test performance of the battery; a wrapping layer configured to wrap the component module; a first insulating film arranged on the first surface, wherein a part of the first insulating film extends to the component module and is adhered to the wrapping layer; a second insulating film arranged on the second surface, wherein a part of the second insulating film extends to the component module and is adhered to the wrapping layer; and at least one easy-to-pull adhesive tape, each easy-to-pull adhesive tape comprising an adhesion portion, an adhesive-free region and a hand pulling portion, wherein the adhesion portion is located at one end of the easy-to-pull adhesive tape and adhered to the second surface, the hand pulling portion is located at the other end of the easy-to-pull adhesive tape, and the hand pulling portion bypasses the component module and is then overlapped with the first insulating film, the adhesive-free region and the hand pulling portion are located on an outside of the wrapping layer, the adhesive-free region is located between the adhesion portion and the hand pulling portion, and the adhesive-free region is bonded to the wrapping layer.
A sugar-reduced food cream composition comprising fat, sugar and starch, characterized in that the starch is native starch having an average particle size between 20 μm and 30 μm, preferably between 22 μm and 28 μm, even more preferably between 23 μm and 26 μm, with a D90 smaller than 40 μm, preferably smaller than 36 μm, and in that the sugar-reduced food cream composition comprises 20% to 25% by weight of native starch, 35% to 40% by weight of fat and 35% to 40% by weight of sugar, relative to the total weight of the food cream composition.
A device comprising a gated tunneling field effect transistor (TFET) including a gated radial nanowire Esaki diode, wherein the vertical radical nanowire (7, 5) comprises a semiconductor core (7A, 7B) of a first conductivity type, a semiconductor shell of a second conductivity type different from the first conductivity type, a gate insulating layer located around the shell, and a gate electrode located adjacent to the gate insulating layer.
Sensor device (21,21a-21d,25a-25d) comprising a • a retro-reflecting element (22,22a-22d) having a front boundary surface configured for entry of measuring light into the retro-reflecting element (22,22a-22d) and a back boundary surface configured for reflecting a first part of the measuring light as reflected measuring light and configured for transmitting a second part of the measuring light as transmitted measuring light, wherein the front boundary surface and the back boundary surface are arranged on opposite sides of the retro-reflecting element (22,22a-22d), and • a sensor unit configured and arranged so that the transmitted measuring light is detectable by the sensor unit, characterised in that • the front boundary surface and the back boundary surface are of curved shape, • the retro-reflecting element (22,22a-22d) is configured so that the measuring light entering into the retro-reflecting element at the front boundary surface is focussed at the back boundary surface, and • an incidence angle of the measuring light relative to the sensor device (21,21a-21d,25a-25d) is equal to an exit angle of the reflected measuring light relative to the sensor device (21,21a-21d,25a-25d). • a retro-reflecting element (22,22a-22d) having a front boundary surface configured for entry of measuring light into the retro-reflecting element (22,22a-22d) and a back boundary surface configured for reflecting a first part of the measuring light as reflected measuring light and configured for transmitting a second part of the measuring light as transmitted measuring light, wherein the front boundary surface and the back boundary surface are arranged on opposite sides of the retro-reflecting element (22,22a-22d), and • a sensor unit configured and arranged so that the transmitted measuring light is detectable by the sensor unit, • the front boundary surface and the back boundary surface are of curved shape, • the retro-reflecting element (22,22a-22d) is configured so that the measuring light entering into the retro-reflecting element at the front boundary surface is focussed at the back boundary surface, and • an incidence angle of the measuring light relative to the sensor device (21,21a-21d,25a-25d) is equal to an exit angle of the reflected measuring light relative to the sensor device (21,21a-21d,25a-25d).
A manufacturing method of a concave diffraction grating, comprising the steps of: transferring a groove pattern formed on a plane diffraction grating and having an unequal groove interval onto a metal thin film; forming a first alignment mark on a convex surface of a fixing substrate having the convex surface to fix the metal thin film; mating a second alignment mark formed on an adhesive surface of the metal thin film with the first alignment mark to perform alignment and bonding the adhesive surface of the metal thin film and the convex surface of the fixing substrate to each other to fabricate a master; and transferring a groove pattern of the metal thin film of the master to fabricate a concave diffraction grating. transferring a groove pattern formed on a plane diffraction grating and having an unequal groove interval onto a metal thin film; forming a first alignment mark on a convex surface of a fixing substrate having the convex surface to fix the metal thin film; mating a second alignment mark formed on an adhesive surface of the metal thin film with the first alignment mark to perform alignment and bonding the adhesive surface of the metal thin film and the convex surface of the fixing substrate to each other to fabricate a master; and transferring a groove pattern of the metal thin film of the master to fabricate a concave diffraction grating.
Discharge chute for a mixing machine, having a protective grid which is arranged in the interior of the discharge chute, wherein the protective grid is formed by a plurality of grid bars (33, 39) which form a grid structure and/or cross one another, and wherein at least one subregion of the protective grid is formed and/or arranged in a positionally adjustable manner, characterized in that at least one grid bar (33a, 33b) of the protective grid is formed and/or arranged in a positionally adjustable manner, in that the at least one displaceable grid bar (33a, 33b) is supported and/or mounted with a first grid bar region on or in a first chute wall region of a chute wall of the discharge chute, and in that the at least one displaceable grid bar (33a, 33b) is positively guided with a second grid bar region, which is spaced apart from the first grid bar region, in a slotted cutout (46a, 46b) which defines the displacement direction and the displacement path and which is formed in a second chute wall region, which is spaced apart from the first chute wall region, of the chute wall of the discharge chute. having a protective grid which is arranged in the interior of the discharge chute, wherein the protective grid is formed by a plurality of grid bars (33, 39) which form a grid structure and/or cross one another, and wherein at least one subregion of the protective grid is formed and/or arranged in a positionally adjustable manner, characterized in that at least one grid bar (33a, 33b) of the protective grid is formed and/or arranged in a positionally adjustable manner, in that the at least one displaceable grid bar (33a, 33b) is supported and/or mounted with a first grid bar region on or in a first chute wall region of a chute wall of the discharge chute, and in that the at least one displaceable grid bar (33a, 33b) is positively guided with a second grid bar region, which is spaced apart from the first grid bar region, in a slotted cutout (46a, 46b) which defines the displacement direction and the displacement path and which is formed in a second chute wall region, which is spaced apart from the first chute wall region, of the chute wall of the discharge chute.
Harvesting robot for picking fruit from trees, with at least two mutually parallel extending, protruding and offsetting rows (1, 2) of picking rods (3, 4), that are held in their rear area in a support and collectively with their free, front ends, are able to slide into a tree and, with their front ends against each other, are pivotable and to be open again, and collectively can be pulled out in its entirety in every pivoted state of the tree, for picking fruits between the harvesting rods (3, 4) with the two rows (1, 2) of harvesting rods (3, 4), characterized by the individual harvesting rods (3, 4) of each row (1, 2) mounted in the support so as to be translationally moveable against a spring force in their rear region, so that each harvesting rod (3, 4) within a row (1, 2) during the insertion of the harvesting rods (3, 4) into a tree, when striking its front end on a branch, is stoppable by the same, while harvesting rods (3, 4) able to avoid an obstacle can be moved further into the tree, after which the harvesting rods (3, 4) of the two rows (1, 2) can be swiveled against each other in their current translational position, and at the same time or subsequently can be pulled out of the tree through the rod extractor, whereby all harvesting rods (3, 4) are pushed forward through spring forces and thus can be brought into their original position.
Catheter for treating body lumina having - a flexible shaft tube which is of biocompatible plastics material and which surrounds a lumen, - a distal portion of the flexible shaft tube having at least one electrode (18, 20) for transmitting high-frequency alternating current to the body tissue which surrounds the catheter in the case of treatment, - an electrical line (22, 24) which is connected to the electrode (18, 20) in an electrically conductive manner and which extends as far as the proximal end of the catheter, - a distal end piece which is fixed to the distal end of the flexible shaft tube, wherein a proximal end of the distal end piece (14.p) protrudes into the lumen of the flexible shaft tube and forms at that location a clamping connection with the distal end of the flexible shaft tube, which connection is secured by a sleeve in the form of a hollow cylinder in that the sleeve applies a radially acting clamping force to the clamping connection, characterised in that the sleeve is electrically conductive and forms the electrode. - a flexible shaft tube which is of biocompatible plastics material and which surrounds a lumen, - a distal portion of the flexible shaft tube having at least one electrode (18, 20) for transmitting high-frequency alternating current to the body tissue which surrounds the catheter in the case of treatment, - an electrical line (22, 24) which is connected to the electrode (18, 20) in an electrically conductive manner and which extends as far as the proximal end of the catheter, - a distal end piece which is fixed to the distal end of the flexible shaft tube, wherein
A method for configuring a Domain Name System, DNS, server address of a terminal, the method comprising: establishing a connection with a network; requesting the network for the DNS server address; determining whether the DNS server address is successfully received from the network; and configuring, if the DNS server address is not successfully received, the DNS server address of the terminal with an auxiliary DNS server address stored in the terminal. establishing a connection with a network; requesting the network for the DNS server address; determining whether the DNS server address is successfully received from the network; and configuring, if the DNS server address is not successfully received, the DNS server address of the terminal with an auxiliary DNS server address stored in the terminal.
A method for fabricating a microelectromechanical systems (MEMS) device isolated from a substrate comprising: forming a first structural layer on a first sacrificial layer overlying said substrate to produce first and second elements separated from one another by a trench, wherein said forming produces said second element having a sense finger; depositing a second sacrificial layer over said first structural layer, said second sacrificial layer at least partially filling said trench; creating an opening through said second sacrificial layer to expose a portion of said sense finger of said second element; forming a second structural layer over said second sacrificial layer to produce a third element, said second structural layer filling said opening to provide a junction between said sense finger of said second element and said third element; and suspending said first, second, and third elements over said substrate by removing at least portions of said first and second sacrificial layers, wherein attachment of said second element with said substrate occurs only at a central area on said substrate relative to a location of said first, second, and third elements over said substrate, and said third element is connected to said sense finger of said second element at least via said junction, and wherein said third element suspends said sense finger over said substrate so that said sense finger is not in direct contact with said substrate and said sense finger is immovable relative to said first element. forming a first structural layer on a first sacrificial layer overlying said substrate to produce first and second elements separated from one another by a trench, wherein said forming produces said second element having a sense finger; depositing a second sacrificial layer over said first structural layer, said second sacrificial layer at least partially filling said trench; creating an opening through said second sacrificial layer to expose a portion of said sense finger of said second element; forming a second structural layer over said second sacrificial layer to produce a third element, said second structural layer filling said opening to provide a junction between said sense finger of said second element and said third element; and suspending said first, second, and third elements over said substrate by removing at least portions of said first and second sacrificial layers, wherein attachment of said second element with said substrate occurs only at a central area on said substrate relative to a location of said first, second, and third elements over said substrate, and said third element is connected to said sense finger of said second element at least via said junction, and wherein said third element suspends said sense finger over said substrate so that said sense finger is not in direct contact with said substrate and said sense finger is immovable relative to said first element.