mhurhangee/ep-ind-claims huggingface dataset:
A method performed by a centralized unit-control plane, CU-CP, of a base station in a wireless communication system, the method comprising: receiving (S301, S401), by the CU-CP from a distributed unit, DU, of the base station, an F1 setup request message including information regarding at least one centralized unit-user plane, CU-UP, of the base station connected to the DU, wherein the information regarding the at least one CU-UP connected to the DU comprises information on whether an interface between the DU and the at least one CU-UP is available, and at least one of an identity of the at least one CU-UP, an internet protocol, IP, address of the at least one CU-UP, or a name of the at least one CU-UP; and selecting, by the CU-CP, a CU-UP suitable for an access of a user equipment, UE, among the at least one CU-UP, according to the information regarding the at least one CU-UP connected to the DU. receiving (S301, S401), by the CU-CP from a distributed unit, DU, of the base station, an F1 setup request message including information regarding at least one centralized unit-user plane, CU-UP, of the base station connected to the DU, wherein the information regarding the at least one CU-UP connected to the DU comprises information on whether an interface between the DU and the at least one CU-UP is available, and at least one of an identity of the at least one CU-UP, an internet protocol, IP, address of the at least one CU-UP, or a name of the at least one CU-UP; and selecting, by the CU-CP, a CU-UP suitable for an access of a user equipment, UE, among the at least one CU-UP, according to the information regarding the at least one CU-UP connected to the DU.
Method for calibrating a system for surgical treatment of an eye using a laser arrangement which is configured to emit light with a wavelength and repetition rate that are suitable for the surgical treatment of the eye, comprising a temperature capture device which is configured to capture the temperature of an object to be struck by the light from the laser arrangement, and a control device which is configured to receive a temperature signal output by the temperature capture device and control the laser arrangement dependent on this temperature signal, wherein the control device is configured to drive again to an ablation region at a subsequent time in such a way that damage, caused by an unwanted temperature increase, to an eye to be treated is avoided if the temperature, captured by the temperature capture device, of the object struck by the light from the laser arrangement exceeds a predetermined threshold, wherein the method comprises: - striking the test object with the light which is emitted by the laser arrangement with the wavelength and repetition rate that are suitable for the surgical treatment of the eye, wherein the temperature of the test object to be struck by the light from the laser arrangement is captured, and wherein the test object consists of a plastics material, and wherein the temperature of the test object to be struck by the light from the laser arrangement is captured before and/or while the test object is struck by the light from the laser arrangement, and wherein the temperature of the test object to be struck by the light from the laser arrangement is captured by means of the thermal imaging camera. - striking the test object with the light which is emitted by the laser arrangement with the wavelength and repetition rate that are suitable for the surgical treatment of the eye,
A brake control device for a brake system for a rail vehicle, the brake system comprising at least one adhesion-based friction brake apparatus, and the brake control device being designed to receive brake actuation data associated with the at least one adhesion-based friction brake apparatus from a brake actuation sensor device (21, 31, 33) of the brake system; the brake control device further being designed to receive brake action data associated with the at least one adhesion-based friction brake apparatus, namely braking force data, from a brake action sensor device (18, 19) of the brake system; and the brake control device further being designed to actuate the adhesion-based friction brake apparatus for a braking operation and to associate brake actuation data and brake action data with one another and to monitor said data during a braking operation; the braking operation being a test braking operation and the brake control device being designed to actuate a test braking operation during a journey; characterised in that the adhesion-based friction brake apparatus has a plurality of friction brake devices (14, 16; 15, 17), which can be actuated separately by the brake control device, and the brake control device is designed to actuate the plurality of friction brake devices (14, 16; 15, 17) with a time delay for a test braking operation.
Pre-slab including a concrete body (2; 302) having an upper face and a lower face, including identifying means (8, 108, 208; 309, 310) for identifying a path to be taken by at least one duct, said identifying means being arranged on the upper face of the pre-slab, the pre-slab being characterized in that identifying means are shaped to indicate the paths to be taken by at least two ducts each belonging to a different duct network, in which the identifying means include guide means (8, 108, 208, 6, 7, 106, 107, 206) for facilitating the arrangement of the ducts on the upper face of the pre-slab, the identifying means also including means (309, 210) for displaying the path to be taken by the duct, in that the display means associate a distinctive sign with each element of the guide means, and in that the pre-slab therefore when it leaves the factory includes an indication of how to mount the at least one duct on the surface of the pre-slab.
An indoor unit of an air conditioner, the indoor unit having in a casing (18, 101) an indoor heat exchanger, an indoor fan for blowing air taken from a room to the indoor heat exchanger, and an air filter located on an intake side of the indoor fan, the indoor unit comprising: a main unit including the indoor heat exchanger and the indoor fan; a cleaning unit located on a room side of the main unit and having the air filter and dust removal means for removing dust captured by the air filter; and an indoor panel for covering a room side of the cleaning unit, wherein the dust removal means is configured to be capable of moving between a dust removal position at which the dust removal means overlaps with the air filter in plan view, and a maintenance position at which the dust removal means does not overlap with the air filter in plan view, wherein the cleaning unit includes dust collecting means located in an area outside the air filter in plan view, for collecting the dust removed by the dust removal means, wherein the cleaning unit further includes dust transfer means for transferring the dust to the dust collecting means, characterized in that: the dust transfer means transfers the dust to the dust collecting means by utilizing the air blown by the indoor fan. a main unit including the indoor heat exchanger and the indoor fan; a cleaning unit located on a room side of the main unit and having the air filter and dust removal means for removing dust captured by the air filter; and an indoor panel for covering a room side of the cleaning unit, wherein the dust removal means is configured to be capable of moving between a dust removal position at which the dust removal means overlaps with the air filter in plan view, and a maintenance position at which the dust removal means does not overlap with the air filter in plan view, wherein the cleaning unit includes dust collecting means located in an area outside the air filter in plan view, for collecting the dust removed by the dust removal means, wherein the cleaning unit further includes dust transfer means for transferring the dust to the dust collecting means,
Method for correcting motion artifacts in a dual energy radiographic imaging method comprising a global position correction step that globally corrects positions of pixels in at least one of a high energy and a low energy radiographic native image of the same subject followed by a local position correction step that locally corrects pixel positions in a globally corrected image, wherein said global position correction step comprises - determining for a number of pre-defined control points in one of said low and high energy native images, a local proximity value for multiple translation offsets using local image patches centered at said control points, - deriving a displacement vector for each of said control points from the determined proximity values, - deducing warping coefficients for a warping transformation from said displacement vectors, - applying said warping transformation to one of said low and high energy native images to obtain a globally corrected image and wherein said globally corrected image is further locally corrected by - defining a number of overlapping tiles in said globally corrected image and the not globally corrected low or high energy native image, - computing local displacement vectors for each of said tiles, - using said local displacement vectors to build a displacement map, - applying said displacement map to said globally corrected image. - determining for a number of pre-defined control points in one of said low and high energy native images, a local proximity value for multiple translation offsets using local image patches centered at said control points, - deriving a displacement vector for each of said control points from the determined proximity values, - deducing warping coefficients for a warping transformation from said displacement vectors, - applying said warping transformation to one of said low and high energy native images to obtain a globally corrected image and wherein said globally corrected image is further locally corrected by - defining a number of overlapping tiles in said globally corrected image and the not globally corrected low or high energy native image, - computing local displacement vectors for each of said tiles, - using said local displacement vectors to build a displacement map, - applying said displacement map to said globally corrected image.
Method for increasing the temperature in at least one heatable room (2, 3, 4) with at least one heat emitter (5, 6, 7) from a lowered temperature to a comfort temperature, wherein a flow temperature predefined for normal operation and provided by a heat generator is raised by a predefinable value or to a maximum temperature and, when the comfort temperature has been reached in the room (2, 3, 4) or after a predefinable time interval has elapsed, is lowered again to the temperature predefined for normal operation; characterised in that a plurality of independently heatable rooms (2, 3, 4) or groups of rooms (2, 3, 4) are present with individual regulation of valves (8, 9, 10) and wherein the increase in temperature in the rooms (2, 3, 4) or groups of rooms (2, 3, 4) takes place successively according to a priority list and the flow temperature is only lowered again after the comfort temperature has been reached in all rooms (2, 3, 4) or groups of rooms (2, 3, 4) on the priority list or after a predefinable time interval has elapsed.
A method for producing a jet pump beam made of an improved heat-treated nickel base alloy, comprising the steps of: preparing a precipitation-strengthened nickel base alloy material having a component composition consisting of, by mass%, Ni: 50.0% to 55.0%, Cr: 17.0% to 21.0%, Nb+Ta: 4.75% to 5.50%, Mo: 2.8% to 3.3%, Ti: 0.65% to 1.15%, Al: 0.2% to 0.8%, the remainder being Fe and inevitable impurities, optionally further containing C: 0.08% or less, Mn: 0.35% or less, Si: 0.35% or less, S: 0.015% or less, P: 0.03% or less, Cu: 0.30% or less, B: 0.006% or less, and Co: 1.0% or less; roughly forming the nickel base alloy material into the product shape by die forging after melting the nickel base alloy material, subjecting the roughly formed nickel base alloy material to the solution heat treatment at a temperature of 1010°C to 1090°C, finishing the nickel base alloy material by the machining or the cold working, and subjecting the finished nickel base alloy material to the age-hardening heat treatment at a temperature of 694°C to 714°C for 5 to 7 hours. preparing a precipitation-strengthened nickel base alloy material having a component composition consisting of, by mass%, Ni: 50.0% to 55.0%, Cr: 17.0% to 21.0%, Nb+Ta: 4.75% to 5.50%, Mo: 2.8% to 3.3%, Ti: 0.65% to 1.15%, Al: 0.2% to 0.8%, the remainder being Fe and inevitable impurities, optionally further containing C: 0.08% or less, Mn: 0.35% or less, Si: 0.35% or less, S: 0.015% or less, P: 0.03% or less, Cu: 0.30% or less, B: 0.006% or less, and Co: 1.0% or less; roughly forming the nickel base alloy material into the product shape by die forging after melting the nickel base alloy material, subjecting the roughly formed nickel base alloy material to the solution heat treatment at a temperature of 1010°C to 1090°C, finishing the nickel base alloy material by the machining or the cold working, and subjecting the finished nickel base alloy material to the age-hardening heat treatment at a temperature of 694°C to 714°C for 5 to 7 hours.
A molecular testing device, comprising: a heating and cooling module comprising a thin-film thermoelectric heating and cooling device; and a removable test module comprising a combined amplification and hybridization reaction chamber comprising a first thermo-conductive exterior surface, a second exterior surface that is insulated with a thermal insulation material and a microarray on an interior surface, wherein the microarray is an ordered array of spots presented for binding to ligands of interest; wherein said thermoelectric heating and cooling device comprises a heat transfer surface that is adapted to make contact with said first thermo-conductive exterior surface of said reaction chamber. a heating and cooling module comprising a thin-film thermoelectric heating and cooling device; and a removable test module comprising a combined amplification and hybridization reaction chamber comprising a first thermo-conductive exterior surface, a second exterior surface that is insulated with a thermal insulation material and a microarray on an interior surface, wherein the microarray is an ordered array of spots presented for binding to ligands of interest; wherein said thermoelectric heating and cooling device comprises a heat transfer surface that is adapted to make contact with said first thermo-conductive exterior surface of said reaction chamber.
An injection mold for production of marbled moldings, comprising at least one hot runner, a cavity, an entry opening into the injection mold and an inlet into the cavity, where the hot runner has at least two ducts that are connected at a first end of each duct to the inlet into the cavity and at a second end of each duct to the entry opening into the injection mold, where the at least two ducts each at least partly form a spiral and the at least two ducts are bounded by a one-piece component, and where the at least two ducts are separated from one another between their first end and their second end by the one-piece component, where the at least two ducts each have a center axis, and the center axis is arranged in the form of the spiral around a longitudinal hot runner axis, wherein the spiral has different slopes at each of at least two different positions (44, 48).
A composition for controlling undesirable vegetation, comprising a mixture comprising a synergistic, herbicidally effective amount of: (a) a choline salt of 2,4-dichlorophenoxyacetic acid (2,4-D-choline) and (b) an ammonium salt of 2-amino-4-(hydroxymethylphosphinyl)butanoic acid (glufosinate) wherein the weight ratio of (a) to (b) is from 1:1 to 4:1. (a) a choline salt of 2,4-dichlorophenoxyacetic acid (2,4-D-choline) and (b) an ammonium salt of 2-amino-4-(hydroxymethylphosphinyl)butanoic acid (glufosinate) wherein the weight ratio of (a) to (b) is from 1:1 to 4:1.
A method for connecting an electrical contact to a nanomaterial of at least one dimension supported by a substrate, the method comprising: - providing a substrate supporting a nanomaterial of at least one dimension and at least one layer of soluble lithography resist applied on an upper surface of the nanomaterial, wherein an opening in the at least one layer of resist exposes a portion of the nanomaterial, wherein, in the opening, an upper portion of the at least one layer of resist extends beyond a lower portion of the at least one layer of resist, thereby forming an overhang portion, wherein the at least one layer comprises three layers of soluble lithography resist, wherein the top layer of resist is soluble in a first developer, and the intermediate layer and bottom layer are soluble in a second developer that the top layer of resist is not soluble in, the intermediate layer and the bottom layer are not soluble in the first developer, wherein a portion of the upper layer of the three layers forms the overhang portion over at least the bottom layer, - removing at least a portion of the exposed portion of the nanomaterial, thereby exposing the underlying substrate and an edge of the nanomaterial, - depositing a metal on at least the edge of the nanomaterial and the exposed substrate, the metal forming an electrical contact with the nanomaterial, - removing at least a portion of the soluble lithography resist from the nanomaterial such that at least a portion of the upper surface of the nanomaterial is exposed. - providing a substrate supporting a nanomaterial of at least one dimension and at least one layer of soluble lithography resist applied on an upper surface of the nanomaterial, wherein an opening in the at least one layer of resist exposes a portion of the nanomaterial, wherein, in the opening, an upper portion of the at least one layer of resist extends beyond a lower portion of the at least one layer of resist, thereby forming an overhang portion, wherein the at least one layer comprises three layers of soluble lithography resist, wherein the top layer of resist is soluble in a first developer, and the intermediate layer and bottom layer are soluble in a second developer that the top layer of resist is not soluble in, the intermediate layer and the bottom layer are not soluble in the first developer, wherein a portion of the upper layer of the three layers forms the overhang portion over at least the bottom layer, - removing at least a portion of the exposed portion of the nanomaterial, thereby exposing the underlying substrate and an edge of the nanomaterial, - depositing a metal on at least the edge of the nanomaterial and the exposed substrate, the metal forming an electrical contact with the nanomaterial, - removing at least a portion of the soluble lithography resist from the nanomaterial such that at least a portion of the upper surface of the nanomaterial is exposed.
A method of reducing adhesion forces between an imprinting material deposited on a substrate and a mold, said method comprising: locating imprinting material between said mold and said substrate, with said imprinting material being bifurcated into a surfactant-component-rich sub-portion and a surfactant-component-depleted sub-portion located between said surfactant-component-rich sub-portion and said substrate, wherein locating said imprinting material further includes: depositing a plurality of droplets of a composition that forms an air-liquid interface, said composition including a surfactant component, having opposed ends, and a polymerizable bulk material, with one of said opposed ends having an affinity for said bulk material and the remaining end having a fluorine component and orientating a sub-portion of said composition so that said fluorine component extends from said air-liquid interface, and wherein the polymerizable bulk material comprise vinyl ethers, methacrylates, epoxies, thiol-enes, and/or acrylates, and the composition has viscosity in a range of 0.5 - 20 cPs at room temperature. locating imprinting material between said mold and said substrate, with said imprinting material being bifurcated into a surfactant-component-rich sub-portion and a surfactant-component-depleted sub-portion located between said surfactant-component-rich sub-portion and said substrate, wherein locating said imprinting material further includes: depositing a plurality of droplets of a composition that forms an air-liquid interface, said composition including a surfactant component, having opposed ends, and a polymerizable bulk material, with one of said opposed ends having an affinity for said bulk material and the remaining end having a fluorine component and orientating a sub-portion of said composition so that said fluorine component extends from said air-liquid interface, and wherein the polymerizable bulk material comprise vinyl ethers, methacrylates, epoxies, thiol-enes, and/or acrylates, and the composition has viscosity in a range of 0.5 - 20 cPs at room temperature. depositing a plurality of droplets of a composition that forms an air-liquid interface, said composition including a surfactant component, having opposed ends, and a polymerizable bulk material, with one of said opposed ends having an affinity for said bulk material and the remaining end having a fluorine component and orientating a sub-portion of said composition so that said fluorine component extends from said air-liquid interface, and wherein the polymerizable bulk material comprise vinyl ethers, methacrylates, epoxies, thiol-enes, and/or acrylates, and the composition has viscosity in a range of 0.5 - 20 cPs at room temperature.
A safety system comprising: a container comprising a door wherein the container defines a cargo space; a refrigeration system, wherein at least a portion of the refrigeration system is located at one end of the container and having at least one thermochemical refrigerant; at least one sensor located within the container and configured to detect a presence of the at least one thermochemical refrigerant within an ambient air in the container; a locking mechanism operably configured to automatically lock and seal the door of the container such that persons cannot enter; and a safety controller in communication with the at least one sensor and operably connected to the refrigeration system and the locking mechanism, the safety controller configured to lock and seal the container with the locking mechanism when the at least one sensor detects the presence of the at least one thermochemical refrigerant within the ambient air in the container above a predetermined threshold. a container comprising a door wherein the container defines a cargo space; a refrigeration system, wherein at least a portion of the refrigeration system is located at one end of the container and having at least one thermochemical refrigerant; at least one sensor located within the container and configured to detect a presence of the at least one thermochemical refrigerant within an ambient air in the container; a locking mechanism operably configured to automatically lock and seal the door of the container such that persons cannot enter; and a safety controller in communication with the at least one sensor and operably connected to the refrigeration system and the locking mechanism, the safety controller configured to lock and seal the container with the locking mechanism when the at least one sensor detects the presence of the at least one thermochemical refrigerant within the ambient air in the container above a predetermined threshold.
A carbamate compound of the following Formula 1, or a pharmaceutically acceptable salt, solvate or hydrate thereof for use in the prevention or treatment of trigeminal neuralgia: wherein, R 1 and R 2 are each independently selected from the group consisting of hydrogen, halogen, C 1 -C 8 alkyl, halo-C 1 -C 8 alkyl, C 1 -C 8 thioalkoxy and C 1 -C 8 alkoxy; and one of A 1 and A 2 is CH, and the other is N. R 1 and R 2 are each independently selected from the group consisting of hydrogen, halogen, C 1 -C 8 alkyl, halo-C 1 -C 8 alkyl, C 1 -C 8 thioalkoxy and C 1 -C 8 alkoxy; and one of A 1 and A 2 is CH, and the other is N.