mhurhangee/ep-ind-claims huggingface dataset:
A monitoring apparatus for monitoring the operating state of a laser vehicle headlamp, wherein the laser vehicle headlamp comprises at least one laser light source and one light conversion element which can be illuminated by the laser light source and which can thereby be excited to emit visible light, wherein the monitoring apparatus has at least one light-sensing device and one comparing device, characterized in that the light-sensing device comprises at least one LED designed to convert the light received from the laser light source into an electric signal (U D) which is supplied to the comparing device, wherein the comparing device is designed to compare the electric signal (U D) with a defined value and to emit an error signal (U O) depending on the result of the comparison, wherein the light-sensing device comprises at least two LEDs, wherein one of the LEDs is designed to measure the laser light and another one of the LEDs is designed to measure the remaining light that was converted by the light conversion element, wherein the at least two LEDs are connected antiparallel to each other.
A heat resistant regenerable pleated filter media for a clean room environment characterized in that the pleated filter media is heat resistant to melting and burning for temperatures up to at least 190 °C, and comprises at least an adsorbent first layer of activated carbon or polymer wherein said activated carbon or polymer together with heat resistant fibers and/or an adhesion agent is enclosed between two second heat resistant layers of heat resistant non-woven with a heat resistant grid, positioned on at least one side of either of the second layers or incorporated in the first layer for preventing deformation of the pleated filter media when regenerated by a heated air flow between 100-190 °C at 1 atm.
A determination device comprising: a pressure detecting unit configured to detect pressure in a storage that stores gas discharged from inside an absorption refrigerator; a hydrogen detecting unit configured to detect an amount of hydrogen discharged from the storage; and a determining unit configured to determine a cause of generation of the gas based on a detection result of the hydrogen detecting unit and a detection result of the pressure detecting unit; characterized in that the determining unit includes a threshold of the amount of hydrogen that is defined based on a pressure value detected by the pressure detecting unit, and the determining unit is configured to: determine that the gas is generated inside the absorption refrigerator when the amount of hydrogen detected by the hydrogen detecting unit is equal to or greater than the threshold; and determine that the gas is leaked in from outside the absorption refrigerator when the amount of hydrogen detected by the hydrogen detecting unit is less than the threshold. a pressure detecting unit configured to detect pressure in a storage that stores gas discharged from inside an absorption refrigerator; a hydrogen detecting unit configured to detect an amount of hydrogen discharged from the storage; and a determining unit configured to determine a cause of generation of the gas based on a detection result of the hydrogen detecting unit and a detection result of the pressure detecting unit; characterized in that the determining unit includes a threshold of the amount of hydrogen that is defined based on a pressure value detected by the pressure detecting unit, and the determining unit is configured to: determine that the gas is generated inside the absorption refrigerator when the amount of hydrogen detected by the hydrogen detecting unit is equal to or greater than the threshold; and determine that the gas is leaked in from outside the absorption refrigerator when the amount of hydrogen detected by the hydrogen detecting unit is less than the threshold. determine that the gas is generated inside the absorption refrigerator when the amount of hydrogen detected by the hydrogen detecting unit is equal to or greater than the threshold; and determine that the gas is leaked in from outside the absorption refrigerator when the amount of hydrogen detected by the hydrogen detecting unit is less than the threshold.
A sliding member for a compressor comprising: a base metal made of an aluminum-based metal; a first layer made of a nickel-based plating layer and formed on or over the base metal; and a second layer made of a diamond-like carbon layer and formed on the surface of the first layer, characterized in that the first layer contains at least one material of nitrogen, silicon (Si), titanium (Ti), chromium (Cr) and aluminum (Al) as an additive, the second layer contains the same additive as the additive in the first layer. a base metal made of an aluminum-based metal; a first layer made of a nickel-based plating layer and formed on or over the base metal; and a second layer made of a diamond-like carbon layer and formed on the surface of the first layer,
Cosmetic composition for making up and/or caring for keratin materials, in the form of an oil-in-water solid emulsion, comprising, in a physiologically acceptable medium: - from 4.0% to 8.0 % by weight, relative to the total weight of the composition, of at least one fatty alcohol, - from 1.0% to 3.0% by weight, relative to the total weight of the composition, of at least one solid linear ester, - from 2.5% to 6.0% by weight, relative to the total weight of the composition, of at least one non-ethoxylated glyceryl stearate, and - from 0.25% to 0.50 % by weight, relative to the total weight of the composition, of sodium polyacrylate. - from 4.0% to 8.0 % by weight, relative to the total weight of the composition, of at least one fatty alcohol, - from 1.0% to 3.0% by weight, relative to the total weight of the composition, of at least one solid linear ester, - from 2.5% to 6.0% by weight, relative to the total weight of the composition, of at least one non-ethoxylated glyceryl stearate, and - from 0.25% to 0.50 % by weight, relative to the total weight of the composition, of sodium polyacrylate.
A method performed by a terminal (1a-10, 2d-10) in a wireless communication system, the method comprising: receiving, from a base station (1a-20, 2d-20) through a radio resource control, RRC, signaling, information for configuring a first configured grant, CG, and a second CG, information on an allowed configured grant for at least one logical channel, and information on a priority for the at least one logical channel, wherein the information on the allowed CG for the at least one logical channel indicates that data from a first logical channel is mapped to the first CG and data from a second logical channel is mapped to the second CG; identifying that the first CG is allowed for the first logical channel and the second CG is allowed for the second logical channel, based on the information on the allowed CG for the at least one logical channel; identifying that resources of the first CG and the second CG are overlapped; and transmitting, to the base station (1a-20, 2d-20), data based on the first CG, in case that a priority of the first logical channel is higher than a priority of the second logical channel. receiving, from a base station (1a-20, 2d-20) through a radio resource control, RRC, signaling, information for configuring a first configured grant, CG, and a second CG, information on an allowed configured grant for at least one logical channel, and information on a priority for the at least one logical channel, wherein the information on the allowed CG for the at least one logical channel indicates that data from a first logical channel is mapped to the first CG and data from a second logical channel is mapped to the second CG; identifying that the first CG is allowed for the first logical channel and the second CG is allowed for the second logical channel, based on the information on the allowed CG for the at least one logical channel; identifying that resources of the first CG and the second CG are overlapped; and transmitting, to the base station (1a-20, 2d-20), data based on the first CG, in case that a priority of the first logical channel is higher than a priority of the second logical channel.
An organic light emitting diode, comprising: a substrate; an organic light emitting unit in which a first electrode, an organic material layer, and a second electrode are sequentially laminated on the substrate; and an encapsulation unit encapsulating an outside of the organic light emitting unit, wherein the encapsulation unit includes a sealing layer contacting the outside of the organic light emitting unit, an insulating layer provided on the sealing layer, and a metal pattern layer provided between the sealing layer and the insulating layer, and the metal pattern layer includes a first metal pattern which electrically connects the first electrode and an external power supply, and a second metal pattern which electrically connects the second electrode and the external power supply wherein the metal pattern layer includes a third metal pattern, and the third metal pattern is provided on an emission area of the organic light emitting unit, and characterized in that based on an upper plan view of the organic light emitting diode, the area of the third metal pattern is the same as or larger than that of the emission area of the organic light emitting unit. a substrate; an organic light emitting unit in which a first electrode, an organic material layer, and a second electrode are sequentially laminated on the substrate; and an encapsulation unit encapsulating an outside of the organic light emitting unit, wherein the encapsulation unit includes a sealing layer contacting the outside of the organic light emitting unit, an insulating layer provided on the sealing layer, and a metal pattern layer provided between the sealing layer and the insulating layer, and the metal pattern layer includes a first metal pattern which electrically connects the first electrode and an external power supply, and a second metal pattern which electrically connects the second electrode and the external power supply wherein the metal pattern layer includes a third metal pattern, and the third metal pattern is provided on an emission area of the organic light emitting unit, and characterized in that based on an upper plan view of the organic light emitting diode, the area of the third metal pattern is the same as or larger than that of the emission area of the organic light emitting unit.
A method of operating an autonomous mobile device, the method being performed by the autonomous mobile device, characterized by comprising: connecting, via a communication interface of the autonomous mobile device, to both a first communication network and a second communication network of a plurality of communication networks; connecting, via the communication interface, to a third communication network when the communication interface is disconnected from one of the first communication network and the second communication network; storing, at a memory device (118; 120) communicatively coupled to the communication interface, a map that includes first one or more locations of the autonomous mobile device where the plurality of communication networks are accessible, and includes second one or more locations of the autonomous mobile device where one or more of the plurality of communication networks have been disconnected; and at a different time, when the autonomous mobile device is within a predetermined distance of one of the second one or more locations where one or more of the plurality of communication networks have been disconnected, switching to the third communication network or another one of the plurality of communication networks based on the map and based on at least one signal from one or more sensors (102, 102a, 102b, 106) of the autonomous mobile device to determine a location of the autonomous mobile device. connecting, via a communication interface of the autonomous mobile device, to both a first communication network and a second communication network of a plurality of communication networks; connecting, via the communication interface, to a third communication network when the communication interface is disconnected from one of the first communication network and the second communication network; storing, at a memory device (118; 120) communicatively coupled to the communication interface, a map that includes first one or more locations of the autonomous mobile device where the plurality of communication networks are accessible, and includes second one or more locations of the autonomous mobile device where one or more of the plurality of communication networks have been disconnected; and at a different time, when the autonomous mobile device is within a predetermined distance of one of the second one or more locations where one or more of the plurality of communication networks have been disconnected, switching to the third communication network or another one of the plurality of communication networks based on the map and based on at least one signal from one or more sensors (102, 102a, 102b, 106) of the autonomous mobile device to determine a location of the autonomous mobile device.
Surface-mountable radiation-emitting device in which a radiation-emitting semiconductor chip is mounted on a leadframe, the leadframe and the radiation-emitting semiconductor chip are surrounded by a molding material which is shaped in such a way that the device has a mounting surface which is arranged at a first predetermined angle which is 0° or is between 0° and 20° relative to a main emission direction of the device, and that the molding material, viewed from the radiation-emitting semiconductor chip, has a curved surface in the main emission direction, the leadframe has leadframe connections (11, 12) which are led out of the molding material and have connection surfaces which are arranged at a second predetermined angle which is 90° or is between 70° and 90° relative to the mounting surface, characterized in that the leadframe has passages or lateral recesses within the region surrounded by the molding material, wherein at least one wavelength conversion material in the form of phosphor particles having a mean particle diameter between 4 μm and 10 μm is distributed in the molding material and particles having a particle. diameter of less than 2 μm are removed, and wherein the molding material contains glass particles and a mean particle size of the glass particles is less than 50 μm.
A composition comprising a vesicle comprising a channel protein, wherein the channel protein is a large-conductance mechanosensitive channel of large conductance (MscL), or an N- and/or C-terminus fragment thereof which maintains selective passage, characterized in that the channel protein or fragment thereof comprises, in a side chain of an amino acid, a phosphine-reactive azide group wherein the phosphine-reactive azide group is linked to the channel protein or fragment thereof through a sulphur.
A method for removing impurities from a tin plating solution comprising thiourea or thiourea compounds, wherein said solution has already been used in electroless tin plating and wherein said impurities are selected from copper, nickel, zinc, chromium, molybdenum and tungsten that have dissolved from the material to be plated, said method comprising: (i) adding benzenesulfonic acid, benzenesulfonic acid hydrate or salts thereof in the plating solution to generate a precipitate; and (ii) removing said precipitate from said solution. (i) adding benzenesulfonic acid, benzenesulfonic acid hydrate or salts thereof in the plating solution to generate a precipitate; and (ii) removing said precipitate from said solution.
A method of manufacturing a semiconductor element (301, 302) provided with a stacked diode structure obtained by stacking a first n-type InGaAs semiconductor layer (2, 12), a second InP semiconductor layer (3, 13) having electron affinity lower than that of the first semiconductor layer (2, 12), and a third n-type semiconductor layer (4, 14) in this order from an anode side (6, 16) to a cathode side (7, 17), the first and second semiconductor layers (2, 3, 12, 13) forming a heterojunction, the semiconductor element (301, 302) being used as a detection circuit in a semiconductor device including an electric connection line that connects an electric high-frequency input circuit and an electric output circuit, the semiconductor element having the cathode side (7, 17) connected to the electric connection line and the anode side (6, 16) connected to the ground, the semiconductor element being used for performing detection by inputting a predetermined high-frequency signal between the anode side (6, 16) and the cathode side (7, 17) of the semiconductor element (301, 302) and by outputting a detection output current to the electric output circuit, wherein a doping concentration of the first semiconductor layer (2, 12) is adjusted such that a detection output current is maximized, wherein a conduction band discontinuity ΔEc in the heterojunction between the first semiconductor layer (2, 12) and the second semiconductor layer (3, 13) is constant, assuming that a line impedance of the high-frequency signal input side of the detection circuit, and an input impedance of the electric output circuit are given in advance, wherein a barrier height generated between the first semiconductor layer (2, 12) and the second semiconductor layer (3, 13) is adjusted by adjusting a doping concentration of the first semiconductor layer (2, 12).
A method of sealing two inorganic substrates together using a microwave energy source comprising: a. providing first and second inorganic substrates; b. applying to at least one of first and second substrates a paste composition including: i. a glass frit, and ii. a microwave coupling additive, c. arranging the substrates such that the paste composition lies there between and in contact with both substrates, and d. subjecting the substrates and paste to microwave radiation, thereby forming a hermetic seal between the two inorganic substrates, wherein the said microwave coupling additive is particulate having shape selected from the group consisting of equant, ellipsoidal, tabular, cylindrical, flake, whisker and wire geometries; and wherein the microwave coupling additive is selected from the group consisting of ferromagnetic metals, transition metals, MnBi alloy, MnSb alloy, MnAs alloy, CuO●Fe 2 O 3, FeO, Fe 2 O 3, Fe 3 O 4 MgO●Fe 2 O 3, MnO●Fe 2 O 3, NiO●Fe 2 O 3, Y 3 Fe 5 O 12, iron oxide containing glasses, Fe 2 O 3 -glasses, CrO 2, alkaline earth titanates, rhenium-titanates, rhenium-bismuth titanates, rare earth titanates, and combinations thereof. a. providing first and second inorganic substrates; b. applying to at least one of first and second substrates a paste composition including: i. a glass frit, and ii. a microwave coupling additive, i. a glass frit, and ii. a microwave coupling additive, c. arranging the substrates such that the paste composition lies there between and in contact with both substrates, and d. subjecting the substrates and paste to microwave radiation, thereby forming a hermetic seal between the two inorganic substrates, wherein the said microwave coupling additive is particulate having shape selected from the group consisting of equant, ellipsoidal, tabular, cylindrical, flake, whisker and wire geometries; and wherein the microwave coupling additive is selected from the group consisting of ferromagnetic metals, transition metals, MnBi alloy, MnSb alloy, MnAs alloy, CuO●Fe 2 O 3, FeO, Fe 2 O 3, Fe 3 O 4 MgO●Fe 2 O 3, MnO●Fe 2 O 3, NiO●Fe 2 O 3, Y 3 Fe 5 O 12, iron oxide containing glasses, Fe 2 O 3 -glasses, CrO 2, alkaline earth titanates, rhenium-titanates, rhenium-bismuth titanates, rare earth titanates, and combinations thereof.
Support of an auxiliary detachable battery system for being located in a luggage compartment of a vehicle, configured for being located covering the floor of the luggage compartment and also configured for supporting a plurality of removable battery modules which are fixable to it and comprising a plurality of signal and power connectors configured for being connected to each of the removable battery modules wherein the signal and power connectors of the support comprise a body adapted to match with the signal and power connectors of the removable battery modules, wherein the power connectors of the support comprise: - an elongated conductive part for electrical contact with the power connector of the removable battery module, - an elongated structural part surrounding the elongated conductive part for supporting mechanical efforts having an elongated gap with the elongated conductive part, characterised in that the support comprises a lower and an upper plate, and further comprises an exhaust gas system, and in that the elongated structural part of the power connector comprises an aperture connecting the gap with the elongated conductive part to the space between the lower and upper plates (4, 5) and wherein the support further comprises an aperture configured for being connected to the exterior of the vehicle such that in case of a gas leakage from the removable battery modules, the gas is transferred from the removable battery modules to the gap between the elongated conductive part and the elongated structural part and through the aperture to the space between the lower and upper plates and then driven to the exterior of the vehicle through the aperture. - an elongated conductive part for electrical contact with the power connector of the removable battery module, - an elongated structural part surrounding the elongated conductive part for supporting mechanical efforts having an elongated gap with the elongated conductive part,