mhurhangee/ep-ind-claims huggingface dataset:
A target device comprising: a mechanical anchoring and support member, which is designed to be coupled in a stable but easily removable manner to a respective wheel of the vehicle, a plate-like target body, which is coupled to said mechanical anchoring and support member in order to be rotated at least partially around a substantially horizontal axis and has said graphic target on at least one face, an electronic sensor device which is integral with said plate-like target body in order to rotate with it around said axis, and is configured in order to determine the angular position (α) of said plate-like target body around said axis, said electronic sensor device comprises an electronic measurement circuit configured to determine said angular position (α) based on electrical signals supplied by one or more electronic inertial sensors, a user interface device configured to communicate to an operator information associated with said determined angular position (α). a mechanical anchoring and support member, which is designed to be coupled in a stable but easily removable manner to a respective wheel of the vehicle, a plate-like target body, which is coupled to said mechanical anchoring and support member in order to be rotated at least partially around a substantially horizontal axis and has said graphic target on at least one face, an electronic sensor device which is integral with said plate-like target body in order to rotate with it around said axis, and is configured in order to determine the angular position (α) of said plate-like target body around said axis, said electronic sensor device comprises an electronic measurement circuit configured to determine said angular position (α) based on electrical signals supplied by one or more electronic inertial sensors, a user interface device configured to communicate to an operator information associated with said determined angular position (α).
An improved process for the preparation of compound of Formula-II comprising condensing the compound of Formula-A with Compound of Formula-B, wherein the improvement comprises methylating the condensed crude product containing the mixture of compound of formula II and compound of Formula-C to get pure compound of Formula-II. wherein Y is Cl, Br or I, and Z is Cl, Br or I.
Castable heat resistant aluminium alloy for high temperature applications such as components in combustion engines, in particular for the manufacturing of highly loaded cylinder heads, characterised in that the alloy comprises the following composition: • Si: 6,5 - 10 wt % • Mg: 0,25 - 0,35 wt % • Cu: 0,3 - 0,7 wt % • Hf: 0,1 - 0.3 wt% and optionally with the addition of: • Ti: 0 - 0,2 wt % • Zr: 0 - 0,3 wt % the balance being made of Al and unavoidable impurities including Fe. • Si: 6,5 - 10 wt % • Mg: 0,25 - 0,35 wt % • Cu: 0,3 - 0,7 wt % • Hf: 0,1 - 0.3 wt% • Ti: 0 - 0,2 wt % • Zr: 0 - 0,3 wt % the balance being made of Al and unavoidable impurities including Fe.
A method for the leak testing and/or leakage measurement of a component comprising a plurality of channels, the method comprising: applying a predefined input state to an input configuration of channels of the component; measuring an output state at an output configuration of channels of the component; and determining a leakage state and/or a leakage rate of the component based on the measurement, wherein the input configuration has at least two channels of the component and the output configuration has at least one other channel of the component, or wherein the input configuration has at least one channel of the component and the output configuration has at least two other channels of the component, characterized in that the application and the measurement are performed for a plurality of different measurement configurations, wherein each measurement configuration has a specific input configuration and a specific output configuration; wherein the method further comprises: determining the plurality of different measurement configurations such that each channel occurs in combination with every other channel in at least one measurement configuration of the plurality of measurement configurations; wherein the leakage state and/or the leakage rate of the component is/are determined based on the application and the measurement for the plurality of different measurement configurations; and wherein, for consecutive measurements, the respective input state has different pressures and/or different concentrations and/or different chemical elements and/or different chemical compounds and/or different mixtures of chemical substances. applying a predefined input state to an input configuration of channels of the component; measuring an output state at an output configuration of channels of the component; and determining a leakage state and/or a leakage rate of the component based on the measurement, wherein the input configuration has at least two channels of the component and the output configuration has at least one other channel of the component, or wherein the input configuration has at least one channel of the component and the output configuration has at least two other channels of the component, characterized in that the application and the measurement are performed for a plurality of different measurement configurations, wherein each measurement configuration has a specific input configuration and a specific output configuration; wherein the method further comprises: determining the plurality of different measurement configurations such that each channel occurs in combination with every other channel in at least one measurement configuration of the plurality of measurement configurations; wherein the leakage state and/or the leakage rate of the component is/are determined based on the application and the measurement for the plurality of different measurement configurations; and wherein, for consecutive measurements, the respective input state has different pressures and/or different concentrations and/or different chemical elements and/or different chemical compounds and/or different mixtures of chemical substances.
A method for transmitting channel status information, CSI, in a communication system, comprising: reporting a first precoder matrix index, PMI (801a, 801b); reporting a precoder type indicator, PTI (501a, 501b); and reporting a second subband PMI (503a - 503f) if the PTI is 1, wherein the second subband PMI is selected based on codebook sub-sampling conditioned on a Rank Indicator, RI. reporting a first precoder matrix index, PMI (801a, 801b); reporting a precoder type indicator, PTI (501a, 501b); and reporting a second subband PMI (503a - 503f) if the PTI is 1, wherein the second subband PMI is selected based on codebook sub-sampling conditioned on a Rank Indicator, RI.
Contact material for vacuum interrupter with copper Cu and chromium Cr as contents, wherein the chromium content is above 10 wt.% and that the material is doped with silicon below 0,2 wt.% (2000 ppm Si) and the remainder is copper Cu, characterized in that the microstructure consists of chromium (Cr) particles which are covered by a thin layer of silicon (Si) or Si-based material.
A compound selected from the group consisting of: and wherein: R 1 is -COOH or -CH 2 COOH; and R 2 is an optionally substituted straight or branched alkyl or alkenyl group with 1 to 20 C atoms, and wherein the backbone of the alkyl or alkenyl group is optionally interrupted by one or more heteroatoms; or a pharmaceutically acceptable salt or solvate thereof for use in treating, preventing or ameliorating a seizure-related disorder. R 1 is -COOH or -CH 2 COOH; and R 2 is an optionally substituted straight or branched alkyl or alkenyl group with 1 to 20 C atoms, and wherein the backbone of the alkyl or alkenyl group is optionally interrupted by one or more heteroatoms; or a pharmaceutically acceptable salt or solvate thereof for use in treating, preventing or ameliorating a seizure-related disorder.
A plastic film with one or more reinforcing longitudinal bands having a thickness which is 3μm - 50μm thicker than a main portion of the film, wherein each thicker band is formed integral with the main portion of the film in a single ply, and that at least one band forms a reinforced edge of the film characterized in that the film is a stretch film formed by cast extrusion.
A piezoelectric material comprising: a perovskite-type metal oxide represented by the formula (Na x Ba 1-y)(Nb y Ti 1-y)O 3, wherein x is 0.83 or more and 0.95 or less, y is 0.85 or more and 0.95 or less, and x/y is 0.95 or more and 1.05 or less; Zn; Mg; and Mn, wherein the content of Zn is 0.005 mol or more and 0.050 mol or less based on 1 mol of the perovskite-type metal oxide; the content of Mg is 0.001 mol or more and 0.020 mol or less based on 1 mol of the perovskite-type metal oxide; and the content of Mn is 1 mol% or less based on 1 mol of the perovskite-type metal oxide. wherein x is 0.83 or more and 0.95 or less, y is 0.85 or more and 0.95 or less, and x/y is 0.95 or more and 1.05 or less; Zn; Mg; and Mn, wherein the content of Zn is 0.005 mol or more and 0.050 mol or less based on 1 mol of the perovskite-type metal oxide; the content of Mg is 0.001 mol or more and 0.020 mol or less based on 1 mol of the perovskite-type metal oxide; and the content of Mn is 1 mol% or less based on 1 mol of the perovskite-type metal oxide.
Connection piece for a vacuum cleaner, wherein the connection piece can be connected to a suction hose and a suction opening of a vacuum cleaner part, and the connection piece has a first nozzle part which can be mounted in a mounting direction on a second nozzle part of the connection piece and arranged on the connection piece is an elastically deformable catch fastener which can be deflected when the first nozzle part is mounted in order to lock into a locking position when a mounted position of the first nozzle part is reached, in order to prevent the first nozzle part from separating from the second nozzle part counter to the mounting direction, wherein when the first nozzle part is mounted, the catch fastener is arranged between the first and the second nozzle part, characterised in that the first nozzle part mounted on the second nozzle part at least partially encloses the second nozzle part.
A method of manufacturing a tissue interface for a reduced-pressure tissue treatment system, the method comprising: forming a fabric comprising a plurality of fibers, wherein each of the plurality of fibers comprises a polymeric material; coupling the plurality of fibers of the fabric together; and applying a hydrophilic material to the plurality of fibers, wherein a first set of fibers of the plurality of fibers forms at least one of a top layer of the fabric or a bottom layer of the fabric, the first set of fibers comprises a first density, and the first set of fibers is configured to permit flexibility of the fabric; and a second set of fibers of the plurality of fibers forms an inter-surface layer of the fabric, and wherein the second set of fibers comprises a second density that is greater than the first density. forming a fabric comprising a plurality of fibers, wherein each of the plurality of fibers comprises a polymeric material; coupling the plurality of fibers of the fabric together; and applying a hydrophilic material to the plurality of fibers, wherein a first set of fibers of the plurality of fibers forms at least one of a top layer of the fabric or a bottom layer of the fabric, the first set of fibers comprises a first density, and the first set of fibers is configured to permit flexibility of the fabric; and a second set of fibers of the plurality of fibers forms an inter-surface layer of the fabric, and wherein the second set of fibers comprises a second density that is greater than the first density. a first set of fibers of the plurality of fibers forms at least one of a top layer of the fabric or a bottom layer of the fabric, the first set of fibers comprises a first density, and the first set of fibers is configured to permit flexibility of the fabric; and a second set of fibers of the plurality of fibers forms an inter-surface layer of the fabric, and wherein the second set of fibers comprises a second density that is greater than the first density.
Rotation stabilization device having an optical device, in particular a camera, and a position regulation device for the optical device with a carrier frame, having at least one axis of rotation which extends through the center of gravity of the optical device, having at least one first rotation body and at least one second rotation body, which are arranged on the axis of rotation, wherein the optical device is pivotable via the second rotation body, having at least one electric motor which drives the first rotation body, in particular a shaft, having a device for determining the spatial orientation of the optical device, in particular a gyroscope, and having control electronics which control the electric motor, wherein a torque converter is arranged between the electric motor and the optical device on the first rotation body driven by the electric motor, and wherein, on the side of the torque converter not facing the electric motor, i.e. on the side opposite the electric motor, the second rotation body, in particular a shaft, is arranged on the torque converter, characterized in that on two opposite sides of the optical device in each case an electric motor and a hydrodynamic torque converter are provided, which are disposed on the same axis of rotation, and in that the two hydrodynamic torque converters can be driven in diametrically opposed directions or in the same direction and/or at the same or different rotational speed.
A method for identifying components of a sample comprising: supplying ions to a mass selective linear ion trap, the ion trap including a plurality of trap electrodes spaced apart from each other and surrounding a trap interior, the plurality of trap electrodes including a first pair of trap electrodes (202, 204) and a second pair of trap electrodes (206, 208), and a DC insert electrode positioned adjacent to a trap exit aperture formed in at least one of the trap electrodes of the second pair of trap electrodes (206, 208), the trap electrodes configured for generating a RF trapping field in the trap interior; trapping the ions within the RF trapping field; applying a DC voltage to the insert DC electrode; applying a main RF voltage to the first pair of trap electrodes (202, 204); and selectively ejecting ions from the trap interior based on their mass by applying an auxiliary RF voltage to the second pair of trap electrodes (206, 208), the auxiliary RF voltage applied 180° out of phase between the first and a second trap electrode of the second pair of trap electrodes; characterized by: applying a portion of the main RF to the second pair of trap electrodes (206, 208) and increasing the main RF applied to the first pair of trap electrodes (202, 204) by the same amount to maintain a voltage difference between the first and second pairs of trap electrodes. supplying ions to a mass selective linear ion trap, the ion trap including a plurality of trap electrodes spaced apart from each other and surrounding a trap interior, the plurality of trap electrodes including a first pair of trap electrodes (202, 204) and a second pair of trap electrodes (206, 208), and a DC insert electrode positioned adjacent to a trap exit aperture formed in at least one of the trap electrodes of the second pair of trap electrodes (206, 208), the trap electrodes configured for generating a RF trapping field in the trap interior; trapping the ions within the RF trapping field; applying a DC voltage to the insert DC electrode; applying a main RF voltage to the first pair of trap electrodes (202, 204); and selectively ejecting ions from the trap interior based on their mass by applying an auxiliary RF voltage to the second pair of trap electrodes (206, 208), the auxiliary RF voltage applied 180° out of phase between the first and a second trap electrode of the second pair of trap electrodes; characterized by: applying a portion of the main RF to the second pair of trap electrodes (206, 208) and increasing the main RF applied to the first pair of trap electrodes (202, 204) by the same amount to maintain a voltage difference between the first and second pairs of trap electrodes.
An intermediate welding device for use when welding together two ends of a coaxial plastic pipe structure having an innermost pipe (22, 22') and an intermediate pipe (24, 24'), in one step, said intermediate welding device comprising: - a hollow section having an inner side configured to receive the innermost pipe (22, 22') with a tight fit and an outer side; - a circumferentially closed inner heating element arranged in order to heat the inner side by thermal conduction; wherein the intermediate welding device further comprises a circumferentially closed outer heating element arranged in order to heat the outer side by thermal conduction, which outer side is configured to glide into the intermediate pipe (24, 24') with a tight fit, wherein the circumferentially closed outer heating element and the circumferentially closed inner heating element are embodied in the form of outer and inner coils (10a, 10b), which are interconnect with each other, characterised in that the outer coil is arranged offset from the inner coil as seen in a direction perpendicular to the longitudinal direction of the intermediate welding device. - a hollow section having an inner side configured to receive the innermost pipe (22, 22') with a tight fit and an outer side; - a circumferentially closed inner heating element arranged in order to heat the inner side by thermal conduction;
An oncolytic modified herpes simplex virus expression vector, wherein the modified herpes simplex virus is a herpes simplex virus deficient for a γ 1 34.5 gene, wherein the vector comprises a nucleic acid comprising a nucleotide sequence encoding the truncated GADD34 protein encoded by SEQ ID NO: 2, wherein said nucleotide sequence is operably linked to an expression control sequence.
A method for enforcing flow control of a software program in a processor or processors of a computer system, the method comprising: analyzing program code of the software program to identify a code pointer in the program code; generating an authentication tag wherein generating the authentication tag comprises applying a cryptographic algorithm to the code pointer, wherein inputs to the cryptographic algorithm include the code pointer, a secret key associated with a processor executing the software program, and context information associated with an execution environment associated with the program code; and modifying the code pointer in the program code with the authentication tag to generate a tagged code pointer, wherein the tagged code pointer is generated by applying a mask to the authentication tag and the code pointer. analyzing program code of the software program to identify a code pointer in the program code; generating an authentication tag wherein generating the authentication tag comprises applying a cryptographic algorithm to the code pointer, wherein inputs to the cryptographic algorithm include the code pointer, a secret key associated with a processor executing the software program, and context information associated with an execution environment associated with the program code; and wherein generating the authentication tag comprises applying a cryptographic algorithm to the code pointer, wherein inputs to the cryptographic algorithm include the code pointer, a secret key associated with a processor executing the software program, and context information associated with an execution environment associated with the program code; and modifying the code pointer in the program code with the authentication tag to generate a tagged code pointer, wherein the tagged code pointer is generated by applying a mask to the authentication tag and the code pointer.
An electronic system for controlling vibrations and/or inertial forces occurring at a plurality of areas of interest within an operating vehicle, the electronic system comprising circuitry configured to: receive input data comprising sensor data from one or more environment sensors and/or one or more internal sensors; convert, by means of a machine learning system, the input data into actuator settings; transmit the actuator settings to one or more actuators to control vibrations and/or inertial forces occurring at each of the plurality of areas of interest within the vehicle, wherein the electronic system is characterized in that the circuitry is configured to convert, by means of the machine learning system, the sensor data directly into the actuator settings, or wherein the circuitry is configured to convert, by means of the machine learning system, the sensor data into a vibration distribution (v(x,y,z,t)) of vibrations occurring at each of the plurality of areas of interest within the vehicle and to determine the actuator settings based on the vibration distribution (v(x,y,z,t)), wherein the received sensor data include road condition data of a road in front of the vehicle, obtained by one or more of: an RGB camera, an infrared camera, a RADAR sensor, a LiDAR sensor, an ultrasonic sensor and a microphone, and the road condition data include an impulse response of a strip of the road. receive input data comprising sensor data from one or more environment sensors and/or one or more internal sensors; convert, by means of a machine learning system, the input data into actuator settings; transmit the actuator settings to one or more actuators to control vibrations and/or inertial forces occurring at each of the plurality of areas of interest within the vehicle, wherein the electronic system is characterized in that the circuitry is configured to convert, by means of the machine learning system, the sensor data directly into the actuator settings, or wherein the circuitry is configured to convert, by means of the machine learning system, the sensor data into a vibration distribution (v(x,y,z,t)) of vibrations occurring at each of the plurality of areas of interest within the vehicle and to determine the actuator settings based on the vibration distribution (v(x,y,z,t)), wherein the received sensor data include road condition data of a road in front of the vehicle, obtained by one or more of: an RGB camera, an infrared camera, a RADAR sensor, a LiDAR sensor, an ultrasonic sensor and a microphone, and the road condition data include an impulse response of a strip of the road.
A device for a motor-propelled vehicle comprising a camera mounted on a support, said camera being transposable from a retracted position to a capture position through a cover by an actuator, said cover being able to be displaced in both directions between a closed position and an open position, said cover being able to be split into two portions (7a, 7b), said camera being able to be displaced along a second axis transverse with respect to the displacement of said portions (7a, 7b), characterized in that said cover is able to be displaced in both directions between a closed position and an open position, simultaneously with the displacement of said camera and in that said cover is able to be split into two portions (7a, 7b) by a longitudinal displacement of said portions along a first axis, perpendicular to said second axis.