mhurhangee/ep-ind-claims huggingface dataset:
Device for the testing, in particular the high-frequency testing, of a test item, for example of an electrical machine or a converter, having: - a simulation unit for the simulation of an electrical energy storage with the aid of a simulation model, and - an electrical connecting line, by way of which the test item can be connected to the simulation unit, wherein the device has a compensation impedance (Z K) for the compensation of an impedance resulting from a line inductance (L L) of the connecting line, characterised in that, the compensation impedance (Z K) is arranged such that, in a connected state of the test item, it is electrically arranged in parallel with the test item. - a simulation unit for the simulation of an electrical energy storage with the aid of a simulation model, and - an electrical connecting line, by way of which the test item can be connected to the simulation unit, wherein the device has a compensation impedance (Z K) for the compensation of an impedance resulting from a line inductance (L L) of the connecting line, characterised in that, the compensation impedance (Z K) is arranged such that, in a connected state of the test item, it is electrically arranged in parallel with the test item.
A continously variable transmission device, comprising: a movable sheave having a concave portion or a convex portion on a circumferential surface; and a sensor comprising a magnet that forms a magnetic field and a sensing element that is disposed between the magnet and the circumferential surface of the moveable sheave, wherein said sensor is adapted to detect a change in a magnetic flux density in a direction parallel to a rotation axis direction of the moveable sheave and a direction perpendicular to the rotation axis direction of the moveable sheave, accompanying a displacement of the moveable sheave along the rotation axis direction of the moveable sheave, in a magnetic field formed by the magnet and induced to the concave portion or the convex portion and to calculate an angle of magnetic flux, which is representative of said displacement, from a ratio of a magnetic flux density in the direction parallel to a rotation axis direction of the moveable sheave and a magnetic flux density in the direction perpendicular to the rotation axis direction of the moveable sheave. a movable sheave having a concave portion or a convex portion on a circumferential surface; and a sensor comprising a magnet that forms a magnetic field and a sensing element that is disposed between the magnet and the circumferential surface of the moveable sheave, wherein said sensor is adapted to detect a change in a magnetic flux density in a direction parallel to a rotation axis direction of the moveable sheave and a direction perpendicular to the rotation axis direction of the moveable sheave, accompanying a displacement of the moveable sheave along the rotation axis direction of the moveable sheave, in a magnetic field formed by the magnet and induced to the concave portion or the convex portion and to calculate an angle of magnetic flux, which is representative of said displacement, from a ratio of a magnetic flux density in the direction parallel to a rotation axis direction of the moveable sheave and a magnetic flux density in the direction perpendicular to the rotation axis direction of the moveable sheave.
A method of treating a substrate, comprising: disposing the substrate on a substrate support in a flood exposure treatment system; selecting a flood exposure dose profile; obtaining a default radial signature, wherein the default radial signature is a dose error as a function of the radial location on the substrate when exposing the substrate to flood irradiation from a source; obtaining an inverse functional form of the default radial signature; and exposing the substrate to flood irradiation from the source, terminating the flood irradiation when the selected flood exposure dose profile is achieved, wherein exposing the substrate to flood irradiation comprises controlling at least one parameter of a source scanning rate, a substrate scanning rate, a source power setting, a distance from the source to the substrate, a source aperture setting, an angle of incidence of flood irradiation on the substrate, and a source focus position by applying the inverse functional form to the at least one parameter through time to achieve the selected flood exposure dose profile. disposing the substrate on a substrate support in a flood exposure treatment system; selecting a flood exposure dose profile; obtaining a default radial signature, wherein the default radial signature is a dose error as a function of the radial location on the substrate when exposing the substrate to flood irradiation from a source; obtaining an inverse functional form of the default radial signature; and exposing the substrate to flood irradiation from the source, terminating the flood irradiation when the selected flood exposure dose profile is achieved, wherein exposing the substrate to flood irradiation comprises controlling at least one parameter of a source scanning rate, a substrate scanning rate, a source power setting, a distance from the source to the substrate, a source aperture setting, an angle of incidence of flood irradiation on the substrate, and a source focus position by applying the inverse functional form to the at least one parameter through time to achieve the selected flood exposure dose profile.
Strip or sheet consisting of an aluminium alloy having a unilateral or bilateral surface structure which is provided at least in some regions and prepared for a forming process, characterised in that the strip or sheet has on one side or on both sides a surface with depressions as lubricant pockets which are produced using an electrochemical graining method, the at least one strip or sheet surface having a reduced well depth S vk of 1.0 μm to 6.0 μm.
Method for dewatering a fuel during operation of a rail vehicle, - in the case of which method fuel is conveyed as operating medium out of an operating medium tank, - in the case of which method water which is present in the operating medium is separated into a water container, - in the case of which method the water is conveyed from the water container back into the operating medium tank if the water container is substantially filled, characterized in that the water is conveyed from the water container into an exhaust gas system if an exhaust gas volumetric flow is at least sufficient and if the water container is substantially filled, the water which is conveyed into the exhaust gas system evaporating in the hot exhaust gas stream and being discharged into a local surrounding area. - in the case of which method fuel is conveyed as operating medium out of an operating medium tank, - in the case of which method water which is present in the operating medium is separated into a water container, - in the case of which method the water is conveyed from the water container back into the operating medium tank if the water container is substantially filled,
A certificate management method in a network functions virtualization, NFV, architecture, characterized by comprising: determining, by an NFV management and orchestration, MANO, a storage network element, wherein the storage network element is configured to store a certificate of a virtualized network function component, VNFC, and the storage network element is different from the VNFC; creating, by the MANO, storage space in the storage network element, wherein the storage space is used to store the certificate of the VNFC; and sending, by the MANO, an address of the storage space to the VNFC. determining, by an NFV management and orchestration, MANO, a storage network element, wherein the storage network element is configured to store a certificate of a virtualized network function component, VNFC, and the storage network element is different from the VNFC; creating, by the MANO, storage space in the storage network element, wherein the storage space is used to store the certificate of the VNFC; and sending, by the MANO, an address of the storage space to the VNFC.
Mechanical device for assembly and/or disassembly of a laser nozzle on a nozzle receiving member of a laser processing machine for processing workpieces, in particular metal sheets, • having a nozzle magazine which has on a nozzle retention member carrier at least one nozzle retention member for a laser nozzle, • having a positioning drive by means of which the nozzle retention member carrier can be moved with the nozzle retention member thus performing a positioning movement and the nozzle retention member can thereby be positioned in an assembly/disassembly position, and • having an assembly/disassembly drive by means of which the nozzle retention member which is positioned in the assembly/disassembly position can be rotated with an assembly/disassembly movement about a nozzle retention member rotation axis, characterised in that the positioning drive and the assembly/disassembly drive have a common drive motor and in that between the drive motor, on the one hand, and the nozzle retention member carrier and the nozzle retention member, on the other hand, a coupling which can be switched by means of a switching device is provided, • there being produced in a first switching state ("positioning state") of the coupling between the drive motor and the nozzle retention member carrier a drive connection based on which the nozzle retention member carrier can be positioned with the nozzle retention member thus performing a positioning movement and • there being produced in a second switching state ("assembly/disassembly state") of the coupling between the drive motor and the nozzle retention member which is positioned in the assembly/disassembly position a drive connection based on which the nozzle retention member can be rotated with an assembly/disassembly movement about the nozzle retention member rotation axis. • having a nozzle magazine which has on a nozzle retention member carrier at least one nozzle retention member for a laser nozzle, • having a positioning drive by means of which the nozzle retention member carrier can be moved with the nozzle retention member thus performing a positioning movement and the nozzle retention member can thereby be positioned in an assembly/disassembly position, and • having an assembly/disassembly drive by means of which the nozzle retention member which is positioned in the assembly/disassembly position can be rotated with an assembly/disassembly movement about a nozzle retention member rotation axis, • there being produced in a first switching state ("positioning state") of the coupling between the drive motor and the nozzle retention member carrier a drive connection based on which the nozzle retention member carrier can be positioned with the nozzle retention member thus performing a positioning movement and • there being produced in a second switching state ("assembly/disassembly state") of the coupling between the drive motor and the nozzle retention member which is positioned in the assembly/disassembly position a drive connection based on which the nozzle retention member can be rotated with an assembly/disassembly movement about the nozzle retention member rotation axis.
An apparatus comprising: a first electrode comprising a substantially homogeneous mixture of graphene oxide and a proton conductor; a second electrode comprising reduced graphene oxide; and spaced-apart charge collectors for the respective first and second electrodes, wherein the first and second electrodes extend from their respective charge collectors towards one another to form a junction at an interface therebetween, and wherein the substantially homogeneous mixture of the first electrode is configured to be sufficiently hydrophobic to prevent intermixing of the homogeneous mixture with the reduced graphene oxide of the second electrode in proximity to one or both of the respective charge collectors to prevent short circuiting of the spaced-apart charge collectors. a first electrode comprising a substantially homogeneous mixture of graphene oxide and a proton conductor; a second electrode comprising reduced graphene oxide; and spaced-apart charge collectors for the respective first and second electrodes, wherein the first and second electrodes extend from their respective charge collectors towards one another to form a junction at an interface therebetween, and wherein the substantially homogeneous mixture of the first electrode is configured to be sufficiently hydrophobic to prevent intermixing of the homogeneous mixture with the reduced graphene oxide of the second electrode in proximity to one or both of the respective charge collectors to prevent short circuiting of the spaced-apart charge collectors.
A process for pre-calcining cement raw-meal which comprises the calcination of calcium carbonate-containing raw meal in a calciner having a plurality of inlet points and heated by combustion of a carbon-containing fuel with a gas comprising oxygen and from 0 to 80% by volume of carbon dioxide, and substantially free of nitrogen, whereby carbon dioxide is introduced in the calciner at one or more of the plurality of inlet points, and isolating the gas produced by combustion and calcination in the calciner in order not to release the same into the atmosphere.
An image capturing assembly for use in an endoscope tip, the image capturing assembly comprising: a single image sensor, wherein the single image sensor has a light sensitive surface for receiving light, and for initiating conversion of the light into image data; three lens assemblies (9620, 9630, 9640), wherein each of the lens assemblies includes a lens (9622, 9632, 9642), wherein each of the lens assemblies is configured to direct light toward the light sensitive surface of the single image sensor, and wherein each of the lens assemblies is configured to direct light along a different path than the other lens assemblies, toward the light sensitive surface of the single image sensor; characterised in that the image capturing assembly further comprises: a step-wise rotatable optical element configured to receive light from at least two of the three lens assemblies, and deflect the light toward the light sensitive surface of the single image sensor; and at least one shutter operable to be shut and opened synchronously with said rotating optical element. a single image sensor, wherein the single image sensor has a light sensitive surface for receiving light, and for initiating conversion of the light into image data; three lens assemblies (9620, 9630, 9640), wherein each of the lens assemblies includes a lens (9622, 9632, 9642), wherein each of the lens assemblies is configured to direct light toward the light sensitive surface of the single image sensor, and wherein each of the lens assemblies is configured to direct light along a different path than the other lens assemblies, toward the light sensitive surface of the single image sensor; characterised in that the image capturing assembly further comprises: a step-wise rotatable optical element configured to receive light from at least two of the three lens assemblies, and deflect the light toward the light sensitive surface of the single image sensor; and at least one shutter operable to be shut and opened synchronously with said rotating optical element.
A method in a wireless communication system, the method comprising: receiving, by a source eNode B, measurement report information from a mobile device and the method characterized by, encapsulating, by the source eNode B, the measurement report information into an inter-eNodeB message; forwarding, by the source eNode B, the inter-eNodeB message to a target eNode B; receiving, from the target eNode B, a handover command message for the mobile device; encapsulating, by the source eNode B, the handover command message into an encapsulated handover message; and sending the encapsulated handover message from the source eNode B to the mobile device. receiving, by a source eNode B, measurement report information from a mobile device and the method characterized by, encapsulating, by the source eNode B, the measurement report information into an inter-eNodeB message; forwarding, by the source eNode B, the inter-eNodeB message to a target eNode B; receiving, from the target eNode B, a handover command message for the mobile device; encapsulating, by the source eNode B, the handover command message into an encapsulated handover message; and sending the encapsulated handover message from the source eNode B to the mobile device.
An in nitro method for detecting in a subject Mycobacterium tuberculosis which expresses a polypeptide comprising the amino acid sequence set forth as SEQ ID NO: 2 or at least nine to twenty consecutive amino acids of the amino acid sequence set forth as SEQ ID NO: 2, wherein the nine to twenty consecutive amino acids specifically bind major histocompatibility complex class I, comprising contacting a biological sample from the subject comprising T cells with one or more Mycobacterium polypeptides, and an antigen presenting cell presenting the one or more Mycobacterium polypeptides wherein the one or more Mycobacterium polypeptides consists of an amino acid sequence set forth as (a) the amino acid sequence set forth as SEQ ID NO: 2 or (b) at least nine to twenty consecutive amino acids of the amino acid sequence set forth as SEQ ID NO: 2, wherein the nine to twenty consecutive amino acids specifically bind major histocompatibility complex class I; and determining if the T cells specifically recognize the Mycobacterium polypeptide, wherein the presence of T cells that specifically recognize the Mycobacterium polypeptide detects Mycobacterium tuberculosis in the subject. (a) the amino acid sequence set forth as SEQ ID NO: 2 or (b) at least nine to twenty consecutive amino acids of the amino acid sequence set forth as SEQ ID NO: 2, wherein the nine to twenty consecutive amino acids specifically bind major histocompatibility complex class I; and
A blade profile tube pre-swirl nozzle (101; 201; 301) for a gas turbine comprising: - an inlet section which is an annular passage; - a tapered section which comprises a plurality of airflow circulation passages separated by a plurality of blades (105; 205; 305); and - an outlet section, comprising circular tubes (104; 204; 304) respectively connected to the outlets of the airflow circulation passages correspondingly and with the diameter not changing along the axis; wherein the inlet section, the tapered section and the outlet section are sequentially connected in a flow direction of the airflow, and each of the airflow circulation passages is enclosed by an outer circumferential wall face, an inner circumferential wall face, a suction face of one of two adjacent blades (105; 205; 305) and a pressure face of the other one of the two adjacent blades (105; 205; 305), and the cross-section of an inlet (102; 202; 302) of the airflow circulation passage is fan-shaped, and from the flow direction of the airflow, with regard to each of the airflow circulation passages, the fan-shaped cross-section gradually and smoothly transitions to a circular cross-section (103; 203; 303) from the inlet to an outlet of the airflow circulation passage, wherein the two adjacent blades (105; 205; 305) are provided as a turning point of a dominant airflow in a circumferential direction of the nozzle, and the outer circumferential wall face and the inner circumferential wall face are provided as a turning point of the dominant airflow in a radial direction of the nozzle; characterized in that, each tube (104; 204; 304) is a spiral tube with a spiral line as an axis, the spiral line penetrates through the center of the circular cross-section, and a tangent line of the spiral line at the center of the circular cross-section is parallel to a normal vector of the circular cross-section. - an inlet section which is an annular passage; - a tapered section which comprises a plurality of airflow circulation passages separated by a plurality of blades (105; 205; 305); and - an outlet section, comprising circular tubes (104; 204; 304) respectively connected to the outlets of the airflow circulation passages correspondingly and with the diameter not changing along the axis;
A process for the preparation of compounds of formula R1-O-(CH2-CH2-O)n-CH2-CH2-N -R3-NR4R5 wherein R1 is C1-C4 alkoxy; R2 is hydrogen or a group of formula -CH 2 -PO 3 H 2 or is a group of formula R1-O-(CH 2 -CH 2 O) n -CH 2 -CH 2 -; R3 is an alkylene optionally substituted with one or more -NR2- groups; R4 and R5 are both a group of formula -CH 2 -PO 3 H 2 or one is a group of formula -CH 2 -PO 3 H 2 and the other is a group of formula R1-O-(CH 2 -CH 2 -O) n -CH 2 -CH 2 -; n is an integer from 4 to 50; which comprises: a) the reaction of a compound of formula R1-O-(CH 2 -CH 2 -O) n -CH 2 -CH 2 -OH with SOCl 2 or a similar reagent to give a compound of formula R1-O-(CH 2 -CH 2 -O) n -CH 2 -CH 2 -Cl; b) the reaction of the compound obtained in a) with an amine of formula NH2-R3'-NH2 wherein R3' is an alkylene optionally substituted with one or more -NH- groups; c) the reaction of the compound obtained in b) with formaldehyde and phosphorous acid. wherein R1 is C1-C4 alkoxy; R2 is hydrogen or a group of formula -CH 2 -PO 3 H 2 or is a group of formula R1-O-(CH 2 -CH 2 O) n -CH 2 -CH 2 -; R3 is an alkylene optionally substituted with one or more -NR2- groups; R4 and R5 are both a group of formula -CH 2 -PO 3 H 2 or one is a group of formula -CH 2 -PO 3 H 2 and the other is a group of formula R1-O-(CH 2 -CH 2 -O) n -CH 2 -CH 2 -; n is an integer from 4 to 50; a) the reaction of a compound of formula R1-O-(CH 2 -CH 2 -O) n -CH 2 -CH 2 -OH with SOCl 2 or a similar reagent to give a compound of formula R1-O-(CH 2 -CH 2 -O) n -CH 2 -CH 2 -Cl; b) the reaction of the compound obtained in a) with an amine of formula NH2-R3'-NH2 wherein R3' is an alkylene optionally substituted with one or more -NH- groups; c) the reaction of the compound obtained in b) with formaldehyde and phosphorous acid.
A method for operating a hearing aid set including a first hearing aid and a second hearing aid, the method comprising: performing a first dynamic range compression including applying a first gain to a first audio signal in the first hearing aid; performing a second dynamic range compression including applying a second gain to a second audio signal in the second hearing: aid; detecting an acoustic scene; and controlling the first dynamic range compression and the second dynamic range compression using the detected acoustic scene, such that the first Dynamic range compression and the second dynamic range compression are performed independently in response to the detected acoustic scene indicating a single sound source, and the first dynamic range compression and the second dynamic range compression are coordinated, in response to the detected acoustic scene indicating a plurality of sound sources, using a distribution of sound sources of the plurality of sound sources indicated by the detected acoustic scene. performing a first dynamic range compression including applying a first gain to a first audio signal in the first hearing aid; performing a second dynamic range compression including applying a second gain to a second audio signal in the second hearing: aid; detecting an acoustic scene; and controlling the first dynamic range compression and the second dynamic range compression using the detected acoustic scene, such that the first Dynamic range compression and the second dynamic range compression are performed independently in response to the detected acoustic scene indicating a single sound source, and the first dynamic range compression and the second dynamic range compression are coordinated, in response to the detected acoustic scene indicating a plurality of sound sources, using a distribution of sound sources of the plurality of sound sources indicated by the detected acoustic scene.