mhurhangee/ep-ind-claims huggingface dataset:
A vehicle washer comprising: a joint having a flow path through which a washing fluid supplied from a supply tank and an outlet port from which the washing fluid is let out; a nozzle holder that the joint is connected and then the washing fluid which is let out from the outlet port of the joint flows in the interior of the nozzle holder; a coil spring which is disposed in an interior of the nozzle holder and which is compressed in a direction in which the washing fluid flows; a nozzle which has a discharge port from which the washing fluid is discharged to an exterior and which is held by the nozzle holder; and a valve which is attached to the coil spring and which moves together with the coil spring to open and close the outlet port of the joint, wherein a holder flow path through which the washing fluid flows is formed on an outer side of the coil spring in the interior of the nozzle holder, characterized in that a plurality of communication holes, which are connected to the holder flow path to cause the washing fluid to flow from the holder flow path towards the nozzle, is formed in the nozzle holder, whereby the communication holes are formed into an arc shape and are positioned apart from each other in a circumferential direction. a joint having a flow path through which a washing fluid supplied from a supply tank and an outlet port from which the washing fluid is let out; a nozzle holder that the joint is connected and then the washing fluid which is let out from the outlet port of the joint flows in the interior of the nozzle holder; a coil spring which is disposed in an interior of the nozzle holder and which is compressed in a direction in which the washing fluid flows; a nozzle which has a discharge port from which the washing fluid is discharged to an exterior and which is held by the nozzle holder; and a valve which is attached to the coil spring and which moves together with the coil spring to open and close the outlet port of the joint, wherein a holder flow path through which the washing fluid flows is formed on an outer side of the coil spring in the interior of the nozzle holder, characterized in that a plurality of communication holes, which are connected to the holder flow path to cause the washing fluid to flow from the holder flow path towards the nozzle, is formed in the nozzle holder, whereby the communication holes are formed into an arc shape and are positioned apart from each other in a circumferential direction.
A permeabilized cell or nucleus comprising a fusion protein comprising a transposase fused to a specific binding agent, wherein the specific binding agent comprises all or part of protein A, all or part of protein G, or a fusion of all or part of protein A and all or part of protein G.
A vacuum cleaner comprising: a cleaner body; and a dust container separably mounted on the cleaner body, wherein the dust container comprises: a dust collection body comprising a dust separation part; an opening through which air separated from dust in the dust separation part is discharged, the opening being defined on a bottom wall of the dust collection body; an air guide having an inflow hole through which the air separated from the dust in the dust separation part is introduced; a filter that filters the air before the air is discharged through the opening, at least a portion of the filter is accommodated into the air guide; a filter supporter to support the filter; and an air passage through which the air introduced through the inflow hole flows is defined between the air guide and the filter, wherein a portion of the air separated from the dust directly passes through the filter at an outside of the air guide, and the other portion of the air is introduced into the air passage within the air guide to pass through the filter. a cleaner body; and a dust container separably mounted on the cleaner body, wherein the dust container comprises: a dust collection body comprising a dust separation part; an opening through which air separated from dust in the dust separation part is discharged, the opening being defined on a bottom wall of the dust collection body; an air guide having an inflow hole through which the air separated from the dust in the dust separation part is introduced; a filter that filters the air before the air is discharged through the opening, at least a portion of the filter is accommodated into the air guide; a filter supporter to support the filter; and an air passage through which the air introduced through the inflow hole flows is defined between the air guide and the filter, a dust collection body comprising a dust separation part; an opening through which air separated from dust in the dust separation part is discharged, the opening being defined on a bottom wall of the dust collection body; an air guide having an inflow hole through which the air separated from the dust in the dust separation part is introduced; a filter that filters the air before the air is discharged through the opening, at least a portion of the filter is accommodated into the air guide; a filter supporter to support the filter; and an air passage through which the air introduced through the inflow hole flows is defined between the air guide and the filter, wherein a portion of the air separated from the dust directly passes through the filter at an outside of the air guide, and the other portion of the air is introduced into the air passage within the air guide to pass through the filter.
A method of detecting milk as an allergen in a food sample, said method comprising: adding a proteolytic enzyme to the food sample to lyse at least a portion of lactoglobulin present in the food sample, into a plurality of peptides; and utilizing liquid chromatography tandem mass spectrometry (LC-MS/MS) to analyze said plurality of peptides to determine whether lactoglobulin is present by monitoring at least one precursor-product ion pair transition with specified m/z value associated with a specific amino acid sequence selected from the group consisting of: i) SEQ ID NO: 24, m/z value of about 533/853, 533/754, or 533/641; ii) SEQ ID NO: 25, m/z value of about 458/803, 458/688, or 458/504; iii) SEQ ID NO: 26, m/z value of about 1158/1453, 1158/1581, 1158/1255, 772/1026, 772/977, or 772/912; iv) SEQ ID NO: 27, m/z value of about 623/573, 623/918, 623/819, or 623/1047; v) SEQ ID NO: 28, m/z value of about 561/806, 561/935, or 561/692; and vi) SEQ ID NO: 29, m/z value of about 419/653, 419/556, or 419/425. adding a proteolytic enzyme to the food sample to lyse at least a portion of lactoglobulin present in the food sample, into a plurality of peptides; and utilizing liquid chromatography tandem mass spectrometry (LC-MS/MS) to analyze said plurality of peptides to determine whether lactoglobulin is present by monitoring at least one precursor-product ion pair transition with specified m/z value associated with a specific amino acid sequence selected from the group consisting of: i) SEQ ID NO: 24, m/z value of about 533/853, 533/754, or 533/641; ii) SEQ ID NO: 25, m/z value of about 458/803, 458/688, or 458/504; iii) SEQ ID NO: 26, m/z value of about 1158/1453, 1158/1581, 1158/1255, 772/1026, 772/977, or 772/912; iv) SEQ ID NO: 27, m/z value of about 623/573, 623/918, 623/819, or 623/1047; v) SEQ ID NO: 28, m/z value of about 561/806, 561/935, or 561/692; and vi) SEQ ID NO: 29, m/z value of about 419/653, 419/556, or 419/425. i) SEQ ID NO: 24, m/z value of about 533/853, 533/754, or 533/641; ii) SEQ ID NO: 25, m/z value of about 458/803, 458/688, or 458/504; iii) SEQ ID NO: 26, m/z value of about 1158/1453, 1158/1581, 1158/1255, 772/1026, 772/977, or 772/912; iv) SEQ ID NO: 27, m/z value of about 623/573, 623/918, 623/819, or 623/1047; v) SEQ ID NO: 28, m/z value of about 561/806, 561/935, or 561/692; and vi) SEQ ID NO: 29, m/z value of about 419/653, 419/556, or 419/425.
A nuclear fuel particle, comprising: a fuel kernel; a buffer graphitic carbon layer; an inner pyrolytic carbon layer; a multilayer pressure vessel; and an outer pyrolytic carbon layer; wherein the multilayer pressure vessel includes at least three layers in which a pyrolytic graphite layer is present between two layers of silicon carbide; and wherein a thickness of the silicon carbide layers of the multilayer pressure vessel is at least 2 times a thickness of the pyrolytic graphite layers of the multilayer pressure vessel. a fuel kernel; a buffer graphitic carbon layer; an inner pyrolytic carbon layer; a multilayer pressure vessel; and an outer pyrolytic carbon layer;
An anti slip device for a wheel having a first side, a second side and a tread, said anti slip device comprising a first connection arrangement adapted to be positioned substantially adjacent said first side of said wheel, a second connection arrangement adapted to be positioned substantially adjacent said second side of said wheel, and at least one anti slip member extending between said first connection arrangement and said a second connection arrangement, said at least one anti slip member is adapted to provide said tread of said wheel with an anti slip surface and, a securing arrangement for securing said anti slip device to said wheel, said securing arrangement comprises a flexible elongated element, having a first and a second end (30a, 30b), said first connection arrangement comprises a first arc formed portion having a first end and a second arc formed portion having a first end, said flexible elongated element extends displaceably between, and past, a first working point on said first are formed portion and a second working point on said second are formed portion, enabling upon tightening of said flexible elongated element said first ends (21, 23) of said arc formed portions (20, 22) to be displaced towards each other to a position at which said anti slip device can be secured to said wheel, characterized in that said flexible elongated element is configured to extend across said tread of said wheel at a first position, and in that said first ends (21, 23) of said first and second arc formed portion (20, 22) are arranged substantially opposite of said first position, with respect to said first connection member and said wheel, after said anti slip device has been mounted on said wheel.
A brewing substance packaging structure, which is used to place a brewing substance inside for brewing and suitable to be hanged on a plate body with a through hole, the brewing substance packaging structure includes: a covered part provided for water flowing through, and the brewing substance is placed inside; a positioning body, which is a structure being switched to a passing mode or a stop mode, the positioning body is provided to pass through the through hole from a side of the plate body to another side of the plate body when the positioning body is switched to the passing mode, the positioning body is not adapted to pass through the through hole of the plate body when the positioning body is switched to the stop mode; and a rope body having a firstend fixed to the covered part and a second end fixed to the positioning body, the positioning body is used to pass through the through hole of the plate body and be adjusted between a first position and a second position, so that the rope body is movably set inside the through hole of the plate body; wherein, when the positioning body is located in the first position, the positioning body is driven by gravity of the covered part, so that the plate body touches the positioning body with the through hole part; when the positioning body is located in the second position, the positioning body is adjusted with a specific distance to the through hole, and the covered part is pulled by the rope body and press the plate body to form a compression shape; characterized by the fact that the first end of the rope body is passed through one side of the covered part and fixed to another side of the covered part, and the covered part includes: a folded body, which is hollow and may be stretched along a stretching direction, a section of the folded body vertical to the stretching direction is ring shape, and a fold line unit is formed on the folded body; and an upper lid body and a lower lid body, which are respectively set on a top and a bottom of the folded body, a positioning hole is formed on the upper lid body, the rope body is passed through the positioning hole of the upper lid body and fixed to the bottom of the covered part; wherein, when the positioning body is adjusted between the first position and the second position, the relative position of the upper lid body and the lower lid body is simultaneously adjusted by moving the rope body, and the folded body is provided to be stretched or folded along the stretching direction through the fold line unit.
An integrated optical waveguide formed on a silicon substrate with a wave-guiding core for transmitting electromagnetic radiation arranged between upper and lower sheath glasses which exhibit a refractive index which is lower than that of the wave-guiding core, characterized in that a silicon mesa structure made of the silicon substrate material is introduced into the core and/or the sheath of the glass-on-silicon waveguide.
Process for making a singly curved panel, comprising: a) winding at least one sheet of high-strength fibers around a cylindrical mandrel to create a cylindrical hollow article around the mandrel, b) subjecting the cylindrical hollow article around the mandrel to heat and/or pressure to provide a consolidated cylindrical hollow article, and c) cutting the consolidated cylindrical hollow article into at least one singly curved panel, wherein the at least one sheet of high-strength fibers comprises at least two layers of unidirectionally oriented high-strength fibers and wherein the main extension directions of the unidirectionally oriented high-stength fibers in adjacent layers is non-unidirectional. a) winding at least one sheet of high-strength fibers around a cylindrical mandrel to create a cylindrical hollow article around the mandrel, b) subjecting the cylindrical hollow article around the mandrel to heat and/or pressure to provide a consolidated cylindrical hollow article, and c) cutting the consolidated cylindrical hollow article into at least one singly curved panel,
A cell culture comprising human cells wherein at least about 10% of said human cells are definitive endoderm cells, said definitive endoderm cells being multipotent cells that can differentiate into cells of the gut tube or organs derived therefrom.
A method for assessing an accuracy of a position determination of a landmark (A, B, G, S, V) in an environment of a vehicle, in which the following steps are performed: - capturing the current environment of the vehicle with at least one capturing unit of the vehicle in a capturing operation; - creating a relative map of the environment based on the captured information with relative positions of captured landmarks (A, B, G, S, V) in the environment, wherein a relative position is a position in the coordinate system of the vehicle; - providing a global map of the environment with global positions of landmarks (A, B, G, S, V); - selecting at least one captured landmark (A, B, G, S, V), which is also present in the global map, by an electronic evaluation system; - calculating the global position of this selected landmark (A, B, G, S, V) depending on positions of other landmarks, which have been captured in the capturing operation and/or have been captured in another capturing operation, by the electronic evaluation system, wherein the selected landmark (A, B, G, S, V) remains unconsidered thereto; - comparing the global position of the selected landmark (A, B, G, S, V) in the global map to the calculated global position of this landmark (A, B, G, S, V) and determining a position deviation between the global position and the calculated position by the electronic evaluation system; - considering the position deviation for assessing the accuracy of the position determination of the landmark (A, B, G, S, V) by the electronic assessing system. - capturing the current environment of the vehicle with at least one capturing unit of the vehicle in a capturing operation; - creating a relative map of the environment based on the captured information with relative positions of captured landmarks (A, B, G, S, V) in the environment, wherein a relative position is a position in the coordinate system of the vehicle; - providing a global map of the environment with global positions of landmarks (A, B, G, S, V); - selecting at least one captured landmark (A, B, G, S, V), which is also present in the global map, by an electronic evaluation system; - calculating the global position of this selected landmark (A, B, G, S, V) depending on positions of other landmarks, which have been captured in the capturing operation and/or have been captured in another capturing operation, by the electronic evaluation system, wherein the selected landmark (A, B, G, S, V) remains unconsidered thereto; - comparing the global position of the selected landmark (A, B, G, S, V) in the global map to the calculated global position of this landmark (A, B, G, S, V) and determining a position deviation between the global position and the calculated position by the electronic evaluation system; - considering the position deviation for assessing the accuracy of the position determination of the landmark (A, B, G, S, V) by the electronic assessing system.
A method for fabricating a thermal ink jet printhead, comprising: depositing a first metal layer on a substrate, the first metal layer having a thickness to form a power bus; depositing a first dielectric layer above the first metal layer at a side opposite to the substrate; forming a via in the first dielectric layer to connect the first metal layer to a second metal layer; depositing the second metal layer above the first dielectric layer at a side opposite to the substrate; depositing a resistive layer adjacent to the second metal layer at a side opposite to the substrate; forming a thermal resistor in the resistive layer; depositing a second dielectric layer above the resistive layer at a side opposite to the substrate; the method being characterised by: removing a first portion of the second dielectric layer from an ink feed slot using a dry etch process; and removing a second portion of the second dielectric layer above the thermal resistor using a wet etch process. depositing a first metal layer on a substrate, the first metal layer having a thickness to form a power bus; depositing a first dielectric layer above the first metal layer at a side opposite to the substrate; forming a via in the first dielectric layer to connect the first metal layer to a second metal layer; depositing the second metal layer above the first dielectric layer at a side opposite to the substrate; depositing a resistive layer adjacent to the second metal layer at a side opposite to the substrate; forming a thermal resistor in the resistive layer; depositing a second dielectric layer above the resistive layer at a side opposite to the substrate; the method being characterised by: removing a first portion of the second dielectric layer from an ink feed slot using a dry etch process; and removing a second portion of the second dielectric layer above the thermal resistor using a wet etch process. removing a first portion of the second dielectric layer from an ink feed slot using a dry etch process; and removing a second portion of the second dielectric layer above the thermal resistor using a wet etch process.
Container-handling facility for handling containers, such as cans or bottles or the like in the beverage processing industry, wherein the container-handling facility comprises at least one transport device for transporting the containers and a drone which can be brought into the transport device, wherein the container-handling facility comprises a control unit adapted to regulate at least one operating parameter and a memory device assigned to the control unit and adapted to store nominal values for the at least one operating parameter, wherein the drone comprises an acceleration sensor for measuring an acceleration acting on the drone and a pressure sensor for measuring a pressure acting on the drone in the transport device, characterized in that the drone is adapted to transmit data corresponding to a measured acceleration and a measured pressure to the control unit and wherein the control unit is adapted to regulate at least one operating parameter which influences the acceleration of the drone and/or the pressure acting on the drone, depending on a comparison between the data received from the drone and nominal values for the operating parameter and/or the acceleration and/or the pressure stored in the memory device.
A wireless communication method, comprising: determining, by a first communication node, at least one failure on a communication link between the first communication node and a serving communication node; determining, by the first communication node, in response to the at least one failure, information indicating M preferred transmission links from the serving communication node to the first communication node, wherein M is a positive integer greater than or equal to 1; transmitting, by the first communication node, the information to the serving communication node; and monitoring, by the first communication node, a channel that carries acknowledgement information from the serving communication node, wherein a demodulation reference signal of the channel has a quasi-co-location relationship with the M preferred transmission links. determining, by a first communication node, at least one failure on a communication link between the first communication node and a serving communication node; determining, by the first communication node, in response to the at least one failure, information indicating M preferred transmission links from the serving communication node to the first communication node, wherein M is a positive integer greater than or equal to 1; transmitting, by the first communication node, the information to the serving communication node; and monitoring, by the first communication node, a channel that carries acknowledgement information from the serving communication node, wherein a demodulation reference signal of the channel has a quasi-co-location relationship with the M preferred transmission links.
A corrosion-resistant coating composition comprising a coating film-forming resin, a crosslinking agent, and a magnesium hydroxide, wherein the magnesium hydroxide has an oil absorption of 70 g/100 g or less, and a BET specific surface area of 4.0 m 2 /g or less, wherein the coating film-forming resin comprises at least one selected from the group consisting of epoxy resin, polyester resin, acrylic resin, urethane resin, and modified products thereof, wherein the crosslinking agent comprises one or more selected from blocked polyisocyanate compounds and amino resins, wherein the oil absorption and the BET specific surface area is measured according to the methods set out in the description. wherein the magnesium hydroxide has an oil absorption of 70 g/100 g or less, and a BET specific surface area of 4.0 m 2 /g or less, wherein the coating film-forming resin comprises at least one selected from the group consisting of epoxy resin, polyester resin, acrylic resin, urethane resin, and modified products thereof, wherein the crosslinking agent comprises one or more selected from blocked polyisocyanate compounds and amino resins, wherein the oil absorption and the BET specific surface area is measured according to the methods set out in the description.