mhurhangee/ep-ind-claims huggingface dataset:
Supercharging device for an internal combustion engine, in particular for a vehicle, wherein the supercharging device has: a compressor with a compressor housing and a compressor space in which a compressor wheel is arranged, an electric motor with a motor housing which defines a motor space in which a rotor and a stator are arranged, and a connection from the compressor space into the motor space in order to permit a pressure equalization between the compressor space and the motor space, furthermore having a receiving space, characterized in that a power electronics circuit for the control of the electric motor is arranged in the receiving space, wherein the receiving space is hermetically sealed off with respect to the compressor space and the motor space, furthermore characterized by a means for permitting a pressure equalization between the receiving space and the surroundings. a compressor with a compressor housing and a compressor space in which a compressor wheel is arranged, an electric motor with a motor housing which defines a motor space in which a rotor and a stator are arranged, and a connection from the compressor space into the motor space in order to permit a pressure equalization between the compressor space and the motor space, furthermore having a receiving space, characterized in that a power electronics circuit for the control of the electric motor is arranged in the receiving space, wherein the receiving space is hermetically sealed off with respect to the compressor space and the motor space, furthermore characterized by a means for permitting a pressure equalization between the receiving space and the surroundings.
A method by a terminal in a communication system for D2D communication, the method comprising: identifying whether information for acquiring a common time reference is received from a base station; identifying whether configuration indicating that it is possible for the terminal to provide a common time reference is received from the base station; and in case that the information for acquiring common time reference and the configuration are received from the base station, transmitting, by the terminal, a synchronization signal for providing the common time reference, based on the information received from the base station. identifying whether information for acquiring a common time reference is received from a base station; identifying whether configuration indicating that it is possible for the terminal to provide a common time reference is received from the base station; and in case that the information for acquiring common time reference and the configuration are received from the base station, transmitting, by the terminal, a synchronization signal for providing the common time reference, based on the information received from the base station.
A vial comprising; a bottom interior surface at least a portion of which has an incline angle to a horizontal plane greater than 0 degrees and a cylindrical interior wall substantially perpendicular to the horizontal plane and meeting the bottom interior surface, wherein the bottom surface and cylindrical wall form a container for containing a liquid; an outlet channel for fluid flow out of the vial through the cylindrical wall; an inlet channel for fluid flow into the vial through the cylindrical wall, the inlet channel defining a direction vector of fluid flow, wherein the direction vector is oriented at a first predefined angle with respect to the horizontal plane and oriented at a second predefined angle with respect to a line tangent to the cylindrical interior wall such that fluid flowing in through the inlet channel causes an upwardly moving fluid vortex to be created in the vial. a bottom interior surface at least a portion of which has an incline angle to a horizontal plane greater than 0 degrees and a cylindrical interior wall substantially perpendicular to the horizontal plane and meeting the bottom interior surface, wherein the bottom surface and cylindrical wall form a container for containing a liquid; an outlet channel for fluid flow out of the vial through the cylindrical wall; an inlet channel for fluid flow into the vial through the cylindrical wall, the inlet channel defining a direction vector of fluid flow, wherein the direction vector is oriented at a first predefined angle with respect to the horizontal plane and oriented at a second predefined angle with respect to a line tangent to the cylindrical interior wall such that fluid flowing in through the inlet channel causes an upwardly moving fluid vortex to be created in the vial.
A method of manufacturing a composite article from a composite material comprising increasing the surface tack of a contact surface by exposing the contact surface, which comes into contact with another surface during said manufacture, to radiation pulses emitted by at least one pulsed radiation source comprising a flashlamp, wherein exposing the contact surface to said pulses causes heating of the contact surface.
A cover assembly of a secondary battery, characterized in comprising: a cover plate comprising a gas vent; a gas exhaust valve configured to seal the gas vent and deform in response to an increase in temperature to get out of a state of sealing the gas vent; a protective part at least partially covering the gas vent and having a gas permeability coefficient smaller than a gas permeability coefficient of the gas exhaust valve; and an anti-explosion vent covered by an anti-explosion plate. a cover plate comprising a gas vent; a gas exhaust valve configured to seal the gas vent and deform in response to an increase in temperature to get out of a state of sealing the gas vent; a protective part at least partially covering the gas vent and having a gas permeability coefficient smaller than a gas permeability coefficient of the gas exhaust valve; and an anti-explosion vent covered by an anti-explosion plate.
Distance element for mounting a dental model structure on an articulator, comprising: a distance block having a first surface with at least one protrusion, and a second surface with connection means for connecting the distance block with an articulator, the first surface of the distance block being inclined with respect to the second surface of the distance block; and a mounting plate being configured to connect the dental model structure with the distance block, the mounting plate comprising: - fixation means for connecting a first surface of the mounting plate with complementary fixation means of the dental model structure; - a reception for receiving a metal element; - at least one side recess being formed on a second surface of the mounting plate for enabling a split cast control, wherein the at least one side recess is configured and arranged such that the at least one side recess is engageable with the at least one protrusion of the distance block. - fixation means for connecting a first surface of the mounting plate with complementary fixation means of the dental model structure; - a reception for receiving a metal element; - at least one side recess being formed on a second surface of the mounting plate for enabling a split cast control, wherein the at least one side recess is configured and arranged such that the at least one side recess is engageable with the at least one protrusion of the distance block.
A cylinder vacuum cleaner comprising a main body which is fluidly connected to a suction hose used to pull the main body forwards along a floor, and a front swivel castor for supporting the main body on the floor, the front castor comprising a frame mounted for rotation about a swivel axis (S 2) and one or more wheels mounted on the frame, the hose being connected to the frame for co-rotation with the frame about the swivel axis, characterized in that the swivel axis is positively raked.
A soldering module for a soldering system for selective wave soldering, having at least one first and one second solder pot (14, 18), wherein the solder pots are displaceable along an x-axis by means of an x-axis drive, along a y-axis by means of a y-axis drive (26, 28), and along a z-axis by means of a z-axis drive (38, 40), wherein the axes are all arranged orthogonally in relation to each other, characterized in that two y-axis drives (26, 28) and two moving devices (22, 24) are provided on which the solder pots (14, 18) are displaceable along the y-axis by means of the y-axis drives (26, 28), wherein a first moving device is associated with the first solder pot, and wherein a second moving device which is different from the first moving device is associated with the second solder pot, wherein the soldering module being designed in such a way that a single printed circuit board or a single printed circuit board panel can be processed simultaneously by two soldering pots (14, 18).
A fuel cell vehicle control method executed in a fuel cell vehicle having a fuel cell, an air supply device that supplies air to the fuel cell, a drive motor that drives a fuel cell vehicle using power from the fuel cell, and a transmission provided in a power transmission path between the drive motor and drive wheels, the method changing an output current depending on a required generated power of the fuel cell, and adjusting an air supply flow rate of the air supply device depending on the change of the output current, the method being characterized by the following steps: abruptly reducing, at the inertia phase start timing, that is, upon transition to a gearshift operation of the transmission under the inertia phase of an upshift operation, the required generated power of the fuel cell to an inertia phase power target value lower than a basic target value of the generated power normally required immediately prior to the inertia phase; and controlling, during the inertia phase, the air supply flow rate to an inertia phase supply flow rate higher than, and instead of, the air supply flow rate normally determined depending on a decrease of the output current of the fuel cell. abruptly reducing, at the inertia phase start timing, that is, upon transition to a gearshift operation of the transmission under the inertia phase of an upshift operation, the required generated power of the fuel cell to an inertia phase power target value lower than a basic target value of the generated power normally required immediately prior to the inertia phase; and controlling, during the inertia phase, the air supply flow rate to an inertia phase supply flow rate higher than, and instead of, the air supply flow rate normally determined depending on a decrease of the output current of the fuel cell.
Method for detecting a door status of an aircraft door, wherein the door status indicates whether the aircraft door is opened or closed, the method comprising the following steps: - taking a first image of the aircraft door when the aircraft door is still closed; - taking a third image of the aircraft door after taking said first image, characterized by the steps: - detecting at least a reference indicator on the door surface in the first image and determining a first position of the reference indicator; - searching for said reference indicator in the third image and detecting a third position of said reference indicator; - determining that the door status is closed if the third position conforms to the first position. - taking a first image of the aircraft door when the aircraft door is still closed; - taking a third image of the aircraft door after taking said first image, characterized by the steps: - detecting at least a reference indicator on the door surface in the first image and determining a first position of the reference indicator; - searching for said reference indicator in the third image and detecting a third position of said reference indicator; - determining that the door status is closed if the third position conforms to the first position. - detecting at least a reference indicator on the door surface in the first image and determining a first position of the reference indicator; - searching for said reference indicator in the third image and detecting a third position of said reference indicator; - determining that the door status is closed if the third position conforms to the first position.
A method 2. performed by a wireless device, comprising: determining one or more time resources in a particular carrier selected from one or more pools of time resources for a sidelink operation by the wireless device, wherein the one or more pools of time resources comprise one or more pools of device-to-device, D2D, resources indicated by a serving network node associated with the wireless device; and sending a gap request message to the network node, the gap request message indicating one or more gaps requested by the wireless device, the one or more gaps comprising the determined one or more time resources for the sidelink operation. determining one or more time resources in a particular carrier selected from one or more pools of time resources for a sidelink operation by the wireless device, wherein the one or more pools of time resources comprise one or more pools of device-to-device, D2D, resources indicated by a serving network node associated with the wireless device; and sending a gap request message to the network node, the gap request message indicating one or more gaps requested by the wireless device, the one or more gaps comprising the determined one or more time resources for the sidelink operation.
Method for producing a hermetically sealed casing for an implantable device, comprising the following steps: a) supplying a ceramic substrate, b) supplying a metal surround and placing it facing the said substrate, c) forming a first hermetically sealed joint at the interface between the said substrate and the said metal surround, in order to assemble them and form an assembly, d) superposing a cover (23, 33) on the said assembly, e) forming a second hermetically sealed joint between an upper face of the metal surround which is the opposite face to the said interface, and the cover (23, 33), in order to obtain the said casing, characterized in that, during step c), the first hermetically sealed joint is formed on a portion of the said interface and in that prior to step c), the method involves an additional step consisting in placing a ceramic surround on the upper face of the metal surround so as to partially cover the said face of the metal surround, the projected surface of the said ceramic surround in a plane of projection covering the projected surface of the said first joint in this same plane of projection. a) supplying a ceramic substrate, b) supplying a metal surround and placing it facing the said substrate, c) forming a first hermetically sealed joint at the interface between the said substrate and the said metal surround, in order to assemble them and form an assembly, d) superposing a cover (23, 33) on the said assembly, e) forming a second hermetically sealed joint between an upper face of the metal surround which is the opposite face to the said interface, and the cover (23, 33), in order to obtain the said casing,
A semiconductor light emitting device comprising: a conductive supporting layer; a second electrode layer on the conductive supporting layer and including a first portion and a second portion having a thinner thickness than that of the first portion; a light emitting structure including a p-type semiconductor layer, a n-type semiconductor layer, and an active layer between the n-type semiconductor layer and the p-type semiconductor layer and disposed on the second electrode layer; a light transmissive conductive layer on the second portion of the second electrode layer and between the second electrode layer and the p-type semiconductor layer; a first electrode layer on the n-type semiconductor layer; and a channel area defined as a groove formed by etching an outer wall of the light emitting structure, wherein the first portion of the second electrode layer contacts a bottom surface of the p-type semiconductor layer, wherein an inner part of the light transmissive conductive layer contacts the bottom surface of the p-type semiconductor layer, wherein an outer part of the light transmissive layer is on the channel area of the light emitting structure, wherein the second electrode layer includes a reflective material, wherein the n-type semiconductor layer includes at least one of an InGaN layer and AlGaN layer, the p-type semiconductor layer includes at least one of an AlGaN layer and a InAlGaN layer, and the active layer includes at least one of an InGaN layer, AlGaN layer and GaN layer. a conductive supporting layer; a second electrode layer on the conductive supporting layer and including a first portion and a second portion having a thinner thickness than that of the first portion; a light emitting structure including a p-type semiconductor layer, a n-type semiconductor layer, and an active layer between the n-type semiconductor layer and the p-type semiconductor layer and disposed on the second electrode layer; a light transmissive conductive layer on the second portion of the second electrode layer and between the second electrode layer and the p-type semiconductor layer; a first electrode layer on the n-type semiconductor layer; and a channel area defined as a groove formed by etching an outer wall of the light emitting structure, wherein the first portion of the second electrode layer contacts a bottom surface of the p-type semiconductor layer, wherein an inner part of the light transmissive conductive layer contacts the bottom surface of the p-type semiconductor layer, wherein an outer part of the light transmissive layer is on the channel area of the light emitting structure, wherein the second electrode layer includes a reflective material, wherein the n-type semiconductor layer includes at least one of an InGaN layer and AlGaN layer, the p-type semiconductor layer includes at least one of an AlGaN layer and a InAlGaN layer, and the active layer includes at least one of an InGaN layer, AlGaN layer and GaN layer.
A device for laser thermal ablation, comprising:an outer tubular structure having a closed terminal end; - an inner tubular structure, positioned in the outer tubular structure, having a terminal end and defining an inner volume, configured to receive a light guide; wherein a first coolant circulation gap is formed between the outer tubular structure and the inner tubular structure; characterized in that a first spacer that extends helically around the longitudinal axis of the outer tubular structure is positioned between the outer tubular structure and the inner tubular structure. - an inner tubular structure, positioned in the outer tubular structure, having a terminal end and defining an inner volume, configured to receive a light guide; wherein a first coolant circulation gap is formed between the outer tubular structure and the inner tubular structure;
A method of forming an anodized layer, comprising the steps of: (a) providing an aluminum base which has a surface that is made of aluminum; (b) anodizing the surface to form a barrier-type alumina layer; (c) after step (b), further anodizing the surface to form a porous alumina layer which has a plurality of minute recessed portions; (d) after step (c), bringing the porous alumina layer into contact with an etching solution, thereby enlarging the plurality of minute recessed portions of the porous alumina layer; and (e) after step (d), further performing the anodization to grow the plurality of minute recessed portions, wherein the anodization in step (c) is performed with application of a pulse voltage, the pulse voltage having a pulse width of not more than 200 ms and a pulse interval of not less than 800 ms. (a) providing an aluminum base which has a surface that is made of aluminum; (b) anodizing the surface to form a barrier-type alumina layer; (c) after step (b), further anodizing the surface to form a porous alumina layer which has a plurality of minute recessed portions; (d) after step (c), bringing the porous alumina layer into contact with an etching solution, thereby enlarging the plurality of minute recessed portions of the porous alumina layer; and (e) after step (d), further performing the anodization to grow the plurality of minute recessed portions,
A compound represented by Chemical formula 1: Chemical Formula 1 {[H-P 3] +} 2 [(C 6 F 5) 3 B-Z-B(C 6 F 5) 3] 2- wherein, R1 is the same or different from each other and is independently selected from the group consisting of hydrogen, a linear or branched C1-C20 alkyl group, a substituted or unsubstituted C3-C12 cycloalkyl group, a substituted or unsubstituted C6-C40 aryl group, a substituted or unsubstituted C7-C15 aralkyl group, a substituted or unsubstituted C7-C15 aralkenyl, and a substituted or unsubstituted C2-C20 alkynyl group; Z is a group connecting two boron atoms by a covalent bond, which is selected from the group consisting of a linear or branched C1-C20 alkylene group, a substituted or unsubstituted C3-C12 cycloalkylene group, a substituted or unsubstituted C6-C40 arylene group, a substituted or unsubstituted C7-C15 aralkylene group, a substituted or unsubstituted C2-C20 alkenylen group, and C2-C20 alkylene group. R1 is the same or different from each other and is independently selected from the group consisting of hydrogen, a linear or branched C1-C20 alkyl group, a substituted or unsubstituted C3-C12 cycloalkyl group, a substituted or unsubstituted C6-C40 aryl group, a substituted or unsubstituted C7-C15 aralkyl group, a substituted or unsubstituted C7-C15 aralkenyl, and a substituted or unsubstituted C2-C20 alkynyl group; Z is a group connecting two boron atoms by a covalent bond, which is selected from the group consisting of a linear or branched C1-C20 alkylene group, a substituted or unsubstituted C3-C12 cycloalkylene group, a substituted or unsubstituted C6-C40 arylene group, a substituted or unsubstituted C7-C15 aralkylene group, a substituted or unsubstituted C2-C20 alkenylen group, and C2-C20 alkylene group.
A coating composition suitable for use on a fiber cement product comprising from about 5 to about 60% by weight of metakaolin and/or fly ash, the % by weight being based on the coating composition, an alkali metal silicate wherein the molar ratio of SiO 2 versus M 2 O in said alkali metal silicate is between 1 and 2, preferably between 1.2 and 1.5, and water and wherein the molar ratio of Si versus Al in said coating composition is between 1 and 5.5, preferably between 2.3 and 5.3 and further comprising an accelerator consisting of zinc oxide to trap free alkali silicate thereby stopping efflorescence.