mhurhangee/patent-ind-claim-en huggingface dataset:
A fastening system for fastening a panel , in particular a facade panel at an adjustable distance from a substrate , the fastening system comprising: - a fastening element for fastening in the substrate , - a holding element for holding the plane with an opening , - a holding shaft arranged at the opening in the holding element , the holding shaft comprises a portion with a reduced diameter where it is narrower than at at least one other location in the holding shaft , and - a joint element comprising a through opening with an internal thread for screwing to an external thread arranged at the fastening element , wherein the joint element is arranged in the holding shaft in such a way that the angle between the joint element and the holding shaft can be varied, - wherein the joint element comprises a joint portion and a holding portion and the joint element is configured in such a way that it could be moved through the opening in the holding element into the holding shaft , wherein the holding portion is moved through the portion of the holding shaft with the reduced diameter until the portion with the reduced diameter is located between the joint portion and the holding portion and in this position the joint element is held in the holding shaft in a tension- and pressure-resistant manner. - a fastening element for fastening in the substrate , - a holding element for holding the plane with an opening , - a holding shaft arranged at the opening in the holding element , the holding shaft comprises a portion with a reduced diameter where it is narrower than at at least one other location in the holding shaft , and - a joint element comprising a through opening with an internal thread for screwing to an external thread arranged at the fastening element , wherein the joint element is arranged in the holding shaft in such a way that the angle between the joint element and the holding shaft can be varied, - wherein the joint element comprises a joint portion and a holding portion and the joint element is configured in such a way that it could be moved through the opening in the holding element into the holding shaft , wherein the holding portion is moved through the portion of the holding shaft with the reduced diameter until the portion with the reduced diameter is located between the joint portion and the holding portion and in this position the joint element is held in the holding shaft in a tension- and pressure-resistant manner.
A compound selected from a compound of Formula I: and a compound of Formula II: wherein each of AA 1 and AA 2 is an independently selected amino acid; for use in a method of treating Alzheimer's disease in a sub-population of patients carrying two copies of an ApoE4 allele. a compound of Formula I: and a compound of Formula II: wherein each of AA 1 and AA 2 is an independently selected amino acid; for use in a method of treating Alzheimer's disease in a sub-population of patients carrying two copies of an ApoE4 allele.
Control method implemented by a microcircuit, comprising: - receiving (B3) a command to update a first object stored in the microcircuit indicating an updated value for the first object, the first object being a microcircuit configuration datum, - verifying (B4, B4') an update rule for said first object taking into account said updated value for the first object, characterized in that the update rule comprises a dependency rule for the first object in relation to at least one second object that indicates that the updated value for the first object is authorized if the second object exists, or if the second object has a predetermined value, the second object being a value stored in the microcircuit, or a function of the microcircuit, and being necessary so that the update of the first object does not affect the operation of the microcircuit. - receiving (B3) a command to update a first object stored in the microcircuit indicating an updated value for the first object, the first object being a microcircuit configuration datum, - verifying (B4, B4') an update rule for said first object taking into account said updated value for the first object, characterized in that the update rule comprises a dependency rule for the first object in relation to at least one second object that indicates that the updated value for the first object is authorized if the second object exists, or if the second object has a predetermined value, the second object being a value stored in the microcircuit, or a function of the microcircuit, and being necessary so that the update of the first object does not affect the operation of the microcircuit.
The preparation method of the crystal form III of (S)-oxiracetam comprising the following steps: 1) Dissolving (S)-oxiracetam in an alcoholic solvent at 5 mg/ml-50 mg/ml, stirring, heating to 30 °C to 100 °C to dissolve, filtering to form a supersaturated solution;wherein the alcoholic solvent is one or more selected from n-propanol, isopropanol, and sec-butanol; 2) Placing the supersaturated solution obtained in step in a sealed low temperature environment at -10 °C to -19 °C for cooling crystallization, to give colorless blocky crystal, which is the new crystal form III of (S)-oxiracetam wherein said crystal form III has diffraction peaks appearing at the following 2 θ diffraction angles: 14.44, 17.12, 18.88, 19.24, 20.66, 20.84, and 21.18°. 1) Dissolving (S)-oxiracetam in an alcoholic solvent at 5 mg/ml-50 mg/ml, stirring, heating to 30 °C to 100 °C to dissolve, filtering to form a supersaturated solution;wherein the alcoholic solvent is one or more selected from n-propanol, isopropanol, and sec-butanol; 2) Placing the supersaturated solution obtained in step in a sealed low temperature environment at -10 °C to -19 °C for cooling crystallization, to give colorless blocky crystal, which is the new crystal form III of (S)-oxiracetam
A sealing structure for a gas turbine engine , comprising: a rotor that has a rim with slots and a cooling passage , the rotor rotatable about an axis (A); a first and second blades arranged in the slots and respectively including first and second shelves facing one another within a pocket that is in fluid communication with the cooling passage , the first and second shelves forming an opening ; and a seal arranged within the pocket and having a body, the seal includes first and second protrusions respectively extending from first and second faces of the body, the first and second faces opposing one another, the first protrusions supported on the rim in a first condition, wherein the seal extends in a generally axial direction corresponding to a first axis (A), and each of the first and second faces are provided by angled surfaces joined at an apex ; characterised in that the seal is a reversible seal, the body being configured for operative association with the first and second blades in any of four orientations to seal the opening in a secured condition. a rotor that has a rim with slots and a cooling passage , the rotor rotatable about an axis (A); a first and second blades arranged in the slots and respectively including first and second shelves facing one another within a pocket that is in fluid communication with the cooling passage , the first and second shelves forming an opening ; and a seal arranged within the pocket and having a body, the seal includes first and second protrusions respectively extending from first and second faces of the body, the first and second faces opposing one another, the first protrusions supported on the rim in a first condition, wherein the seal extends in a generally axial direction corresponding to a first axis (A), and each of the first and second faces are provided by angled surfaces joined at an apex ; characterised in that the seal is a reversible seal, the body being configured for operative association with the first and second blades in any of four orientations to seal the opening in a secured condition.
A system comprising: an optical assembly comprising: a hemispherical prism comprising a top surface configured to support a surface-plasmon-resonance (SPR) sensor ; and a high numerical aperture (NA) lens located distal from the top surface of the hemispherical prism ; an SPR light source configured to emit a light beam for SPR imaging; and an SPR camera configured to capture an SPR image; and a bright field light source and a bright field camera for bright field imaging; wherein: the high NA lens is configured to refract the light beam toward the hemispherical prism ; the hemispherical prism is configured to collimate the light beam , as refracted by the high NA lens , toward the SPR sensor ; and the high NA lens is further configured to receive and refract the light beam toward the SPR camera , after the light beam is reflected by a surface of the SPR sensor ; the bright field light source is configured to emit a bright field light beam to illuminate the surface of the SPR sensor ; and the bright field camera is configured to capture a bright field image of the SPR sensor simultaneously with the SPR camera capturing the SPR image. an optical assembly comprising: a hemispherical prism comprising a top surface configured to support a surface-plasmon-resonance (SPR) sensor ; and a high numerical aperture (NA) lens located distal from the top surface of the hemispherical prism ; a hemispherical prism comprising a top surface configured to support a surface-plasmon-resonance (SPR) sensor ; and a high numerical aperture (NA) lens located distal from the top surface of the hemispherical prism ; an SPR light source configured to emit a light beam for SPR imaging; and an SPR camera configured to capture an SPR image; and a bright field light source and a bright field camera for bright field imaging; wherein: the high NA lens is configured to refract the light beam toward the hemispherical prism ; the hemispherical prism is configured to collimate the light beam , as refracted by the high NA lens , toward the SPR sensor ; and the high NA lens is further configured to receive and refract the light beam toward the SPR camera , after the light beam is reflected by a surface of the SPR sensor ; the bright field light source is configured to emit a bright field light beam to illuminate the surface of the SPR sensor ; and the bright field camera is configured to capture a bright field image of the SPR sensor simultaneously with the SPR camera capturing the SPR image. the high NA lens is configured to refract the light beam toward the hemispherical prism ; the hemispherical prism is configured to collimate the light beam , as refracted by the high NA lens , toward the SPR sensor ; and the high NA lens is further configured to receive and refract the light beam toward the SPR camera , after the light beam is reflected by a surface of the SPR sensor ; the bright field light source is configured to emit a bright field light beam to illuminate the surface of the SPR sensor ; and the bright field camera is configured to capture a bright field image of the SPR sensor simultaneously with the SPR camera capturing the SPR image.
A vehicle front structure comprising: a cooling device comprising a cooling fluid configured to be cooled by an airflow received when the vehicle is moving; a shutter unit arranged to control the air flow and to redirect the air flow towards the cooling device, an air guide arranged in front of and adjacent the shutter unit, the air guide is arranged to redirect air flow coming from the forward direction of the vehicle towards the shutter unit; a horn unit configured to provide a sound output signal to a sound output portion attached to the air guide in such a way that an air tight seal is formed between a rim of the sound output portion and the air guide, wherein the air guide is a first air guide and the horn unit is a first horn unit arranged on a first side of the shutter unit, the vehicle front structure comprising a further air guide and horn unit arranged on a second side of the shutter unit, the first side and the second side being on opposite sides of a longitudinal center line of the vehicle so that the first horn unit is arranged on the left side or the right side of the shutter unit and the further horn unit is arranged on the other one of the left side or the right side of the shutter unit, wherein the horn units are arranged inclined at an angle towards the longitudinal center line. a cooling device comprising a cooling fluid configured to be cooled by an airflow received when the vehicle is moving; a shutter unit arranged to control the air flow and to redirect the air flow towards the cooling device, an air guide arranged in front of and adjacent the shutter unit, the air guide is arranged to redirect air flow coming from the forward direction of the vehicle towards the shutter unit; a horn unit configured to provide a sound output signal to a sound output portion attached to the air guide in such a way that an air tight seal is formed between a rim of the sound output portion and the air guide, wherein the air guide is a first air guide and the horn unit is a first horn unit arranged on a first side of the shutter unit, the vehicle front structure comprising a further air guide and horn unit arranged on a second side of the shutter unit, the first side and the second side being on opposite sides of a longitudinal center line of the vehicle so that the first horn unit is arranged on the left side or the right side of the shutter unit and the further horn unit is arranged on the other one of the left side or the right side of the shutter unit, wherein the horn units are arranged inclined at an angle towards the longitudinal center line.
A data transmission method, comprising: notifying , by a base station, a user terminal of a semi-persistent scheduling, SPS, period, wherein the SPS period is a short period; allocating , by the base station, a first SPS resource to the user terminal; and receiving , by the base station, data periodically sent by the user terminal, wherein the data is sent based on the SPS period by using the first SPS resource; wherein the receiving , by the base station, data periodically sent by the user terminal comprises: receiving, by the base station, initially transmitted data and at least one piece of retransmitted data for the initially transmitted data that are sent by the user terminal, wherein the initially transmitted data and the at least one piece of retransmitted data occupy the first SPS resource in consecutive SPS periods, thereby allowing the base station to quickly obtain correct data through parsing. notifying , by a base station, a user terminal of a semi-persistent scheduling, SPS, period, wherein the SPS period is a short period; allocating , by the base station, a first SPS resource to the user terminal; and receiving , by the base station, data periodically sent by the user terminal, wherein the data is sent based on the SPS period by using the first SPS resource; wherein the receiving , by the base station, data periodically sent by the user terminal comprises: receiving, by the base station, initially transmitted data and at least one piece of retransmitted data for the initially transmitted data that are sent by the user terminal, wherein the initially transmitted data and the at least one piece of retransmitted data occupy the first SPS resource in consecutive SPS periods, thereby allowing the base station to quickly obtain correct data through parsing.
Heat exchanger , notably for a motor vehicle, said exchanger comprising a heat exchange core bundle defining circulation channels for at least one fluid, such that: - the heat exchanger comprises a predefined number of frames respectively defining a circulation channel for said fluid, each frame defining an internal width and an internal length (L) and that - each frame comprises at least one internal strip of smaller width (W) than said internal width of said frame , and extending longitudinally inside said frame over a length less than the internal length (L) of said frame so as to define an at least two-pass path for said fluid in said frame , and characterized in that - the width (W) of the internal strip is greater than or equal to, preferably strictly greater than, the thickness (Th) of said frame in the direction of stacking of said frames . - the heat exchanger comprises a predefined number of frames respectively defining a circulation channel for said fluid, each frame defining an internal width and an internal length (L) and that - each frame comprises at least one internal strip of smaller width (W) than said internal width of said frame , and extending longitudinally inside said frame over a length less than the internal length (L) of said frame so as to define an at least two-pass path for said fluid in said frame , and characterized in that - the width (W) of the internal strip is greater than or equal to, preferably strictly greater than, the thickness (Th) of said frame in the direction of stacking of said frames .
Pressure compensator with a valve slide mounted in a valve housing such that it can be displaced longitudinally, said valve slide comprising a control part to actuate a fluid-conducting connection between at least two fluid connection points received in the valve housing , said control part having at least one pocket-like depression , which is delimited at least partially by a fluid guide surface , which extends at least between two apexes (M1, M2, M3) of the depression and which, starting from one apex (M1; M2, M3), has a quantitatively rising gradient (S1, S2, S3, S4; S11, S12, S13, S14) towards the other apex (M2, M3; M1), characterised in that , starting from a pre-definable distance (A1; A2) from the other apex (M2, M3; M1), the fluid guide surface extends from its maximum gradient (S4; S14), towards said other apex (M2, M3; M1) with a quantitatively decreasing gradient (S4, S5, S6, S7; S14, S15, S16, S17).
Hand-operated power tool, in particular screwdriver and/or drill, with a drive motor for driving a gear drive of a gearbox , which has a gearbox output for driving a tool holder of the hand-operated power tool and a first gear stage and a second gear stage , wherein the gearbox has a first locking mechanism for locking a gear element of the first gear stage forming a locking mechanism element and a second locking mechanism for locking a gear element of the second gear stage forming a locking mechanism element , wherein the gear stage with the respectively locked locking mechanism element transmits a torque from the gear drive to the gearbox output , wherein a direction of rotation of the drive motor is reversible and, depending on the direction of rotation of the drive motor , the first gear stage or the second gear stage transmits a torque from the gear drive to the gearbox output , characterised in that a locking direction and a freewheeling direction of at least one locking mechanism , in particular a freewheel, may be reversed.
A control apparatus for a network including servers on which virtual network functions operate, the control apparatus comprising: storage means configured to store a configuration information among a programmable logic circuit (21-2) included in a server , a virtual machine (VM1, VM2) operating on the server , and a virtual network function (VNF-A, VNF-B) implemented by the virtual machine (VM1, VM2) of the server ; and control means configured to control at least the virtual machine (VM2) and the programmable logic circuit (21-2) on which the virtual machine (VM2) operates, based on the configuration information, wherein the control means is further configured to perform addition, update, or deletion of the programmable logic circuit (21-2); wherein when updating a program of the programmable logic circuit, the control means causes a central processing unit (CPU) of the server to perform data processing of the virtual machine (VM2) operating on the programmable logic circuit (21-2) as a substitute for the programmable logic circuit (21-2). storage means configured to store a configuration information among a programmable logic circuit (21-2) included in a server , a virtual machine (VM1, VM2) operating on the server , and a virtual network function (VNF-A, VNF-B) implemented by the virtual machine (VM1, VM2) of the server ; and control means configured to control at least the virtual machine (VM2) and the programmable logic circuit (21-2) on which the virtual machine (VM2) operates, based on the configuration information, wherein the control means is further configured to perform addition, update, or deletion of the programmable logic circuit (21-2); wherein when updating a program of the programmable logic circuit, the control means causes a central processing unit (CPU) of the server to perform data processing of the virtual machine (VM2) operating on the programmable logic circuit (21-2) as a substitute for the programmable logic circuit (21-2).
A wireless-chargeable device comprising: An electromagnet ; and A control circuit configured to: control a magnetic field strength generated by the electromagnet for alignment of a power-receiving coil of the wireless-chargeable device with respect to a power-transmitting coil of a wireless power supply device, determine a compatibility information of the wireless-chargeable device and the wireless power supply device, control the magnetic field strength based on the determined compatibility of the wireless-chargeable device and the wireless power supply device, and control the magnetic field strength to emit an inverted field to repel the wireless power supply device, if the determined compatibility information indicates that the wireless-chargeable device and the wireless power supply device are incompatible. An electromagnet ; and A control circuit configured to: control a magnetic field strength generated by the electromagnet for alignment of a power-receiving coil of the wireless-chargeable device with respect to a power-transmitting coil of a wireless power supply device, determine a compatibility information of the wireless-chargeable device and the wireless power supply device, control the magnetic field strength based on the determined compatibility of the wireless-chargeable device and the wireless power supply device, and control the magnetic field strength to emit an inverted field to repel the wireless power supply device, if the determined compatibility information indicates that the wireless-chargeable device and the wireless power supply device are incompatible. control a magnetic field strength generated by the electromagnet for alignment of a power-receiving coil of the wireless-chargeable device with respect to a power-transmitting coil of a wireless power supply device, determine a compatibility information of the wireless-chargeable device and the wireless power supply device, control the magnetic field strength based on the determined compatibility of the wireless-chargeable device and the wireless power supply device, and control the magnetic field strength to emit an inverted field to repel the wireless power supply device, if the determined compatibility information indicates that the wireless-chargeable device and the wireless power supply device are incompatible.