mhurhangee/ep-ind-claims huggingface dataset:
Method for determining a global position of a first landmark, wherein at least a first and a second measuring data set are acquired, wherein the first measuring data set is assigned a first reference point and a first sensing area, and the second measuring data set is assigned a second reference point and a second sensing area, wherein the reference points of the measuring data sets are acquired by means of a satellite-based position-determining method, the first landmark is detected in the first sensing area and the second sensing area, and a second landmark (21a, 21b) is detected in the first sensing area, first relative positions (22a, 22b, 22c) of the first landmark and of the second landmark (21a, 21b) relative to the reference point of the first sensing area are determined on the basis of the first measuring data set, and a second relative position of the first landmark relative to the reference point of the second sensing area is determined on the basis of the second measuring data set, a spatial correlation is determined as a vector between the determined first relative positions (22a, 22b, 22c) of the first landmark and of the second landmark (21a, 21b) with respect to one another on the basis of the first measuring data set, and the global position of the first landmark with respect to a global reference point is determined on the basis of the determined first relative position and second relative position of the first landmark, on the basis of the determined first relative position (22a, 22b) of the second landmark (21a, 21b) and on the basis of the determined spatial correlation, wherein the global position of the first landmark is determined by means of a compensation calculation, and the determined spatial correlation is used as a boundary condition for the compensation calculation.
An active optical antenna, comprising: a substrate; a ground disposed at the bottom of the substrate; a power supply grid and several antenna units that are disposed at the top of the substrate, and photodetector tubes that are disposed in the substrate and located between the antenna units and the ground, wherein the power supply grid supplies power to the photodetector tubes, the number of the photodetector tubes is equal to the number of the antenna units, and output ends of the photodetector tubes are coupled with the antenna units to output radio frequency signals; and optical waveguides which are disposed in the substrate and connected to the photodetector tubes, wherein the optical waveguides are configured to distribute optical signals to the photodetector tubes. a substrate; a ground disposed at the bottom of the substrate; a power supply grid and several antenna units that are disposed at the top of the substrate, and photodetector tubes that are disposed in the substrate and located between the antenna units and the ground, wherein the power supply grid supplies power to the photodetector tubes, the number of the photodetector tubes is equal to the number of the antenna units, and output ends of the photodetector tubes are coupled with the antenna units to output radio frequency signals; and optical waveguides which are disposed in the substrate and connected to the photodetector tubes, wherein the optical waveguides are configured to distribute optical signals to the photodetector tubes.
Method for producing a Yankee dryer cylinder comprising the steps of: - executing a cylindrical tubular semifinished product made of steel having a side wall provided with an internal surface and an external surface; - forging said cylindrical tubular semifinished product up to obtain a first predetermined thickness s1 at a central portion of said side wall and a second predetermined thickness s2, with s2>s1, at opposite terminal portions (111b,111c) of said side wall, in such a way to obtain a cylindrical tubular semifinished product with enlarged terminal portions (111b,111c); - executing a plurality of grooves at said internal surface of said cylindrical tubular semifinished product, thus obtaining the cylindrical shell of said Yankee dryer cylinder; - executing a plurality of longitudinal blind holes at an external surface (14,16) of said enlarged terminal portions (111b,111c) of said cylindrical shell; - positioning a head (20,30) at each enlarged terminal portion (111b,111c) of said cylindrical shell, each head (20,30) being provided with a plurality of through holes, at the end of said positioning step each through hole of said plurality being aligned with a respective blind hole of said enlarged terminal portion (111b,111c) of said cylindrical shell; - fixing each of said head (20,30) to a respective enlarged terminal portion of said cylindrical shell by screwing a stud to each couple of aligned blind holes and through holes. - executing a cylindrical tubular semifinished product made of steel having a side wall provided with an internal surface and an external surface; - forging said cylindrical tubular semifinished product up to obtain a first predetermined thickness s1 at a central portion of said side wall and a second predetermined thickness s2, with s2>s1, at opposite terminal portions (111b,111c) of said side wall, in such a way to obtain a cylindrical tubular semifinished product with enlarged terminal portions (111b,111c); - executing a plurality of grooves at said internal surface of said cylindrical tubular semifinished product, thus obtaining the cylindrical shell of said Yankee dryer cylinder; - executing a plurality of longitudinal blind holes at an external surface (14,16) of said enlarged terminal portions (111b,111c) of said cylindrical shell; - positioning a head (20,30) at each enlarged terminal portion (111b,111c) of said cylindrical shell, each head (20,30) being provided with a plurality of through holes, at the end of said positioning step each through hole of said plurality being aligned with a respective blind hole of said enlarged terminal portion (111b,111c) of said cylindrical shell; - fixing each of said head (20,30) to a respective enlarged terminal portion of said cylindrical shell by screwing a stud to each couple of aligned blind holes and through holes.
A non-crystallization mixed saccharide composition, wherein the glucose content is 24 parts by weight or lower, based on 100 parts by weight of the solid content of the total saccharides contained in the mixed saccharide composition containing psicose, glucose and fructose, wherein the fructose content is 25 parts by weight or lower, and the total content of fructose and psicose is higher than 70 parts by weight, based on 100 parts by weight of the total solid content of glucose, psicose and fructose contained in the mixed saccharide composition, and wherein said mixed saccharide composition is a mixed saccharide solution.
A device for cleaning a stoma in a human or animal body, comprising a container provided with a circular contact edge configured to be placed on the part of the body where the stoma is located, as well as an inlet opening for connection to a water source and an outlet opening for connection to a water drain, characterized in that the circular contact edge of the container is provided with a circular flexible collar comprising at least a first circumferential edge and a second circumferential edge, which first circumferential edge and second circumferential edge enclose an air chamber when placed on the body, and wherein the second circumferential edge is configured as a folded-over flanged edge, which abuts the skin's surface when placed on the body.
A communication apparatus for establishing communication with a remote apparatus through a higher-level device being a parent node of the communication apparatus, the communication apparatus comprising: a main processor adapted to receive a data authentication request including data to be authenticated, a first key specification, and a message authentication algorithm identifier from the higher-level device; and a key generator adapted to retain a key hierarchy used by an authentication protocol that is used between the higher-level device and the remote apparatus, and to generate a first key by use of the key hierarchy and the first key specification, wherein the main processor is adapted to generate a message authentication code for the data to be authenticated by use of the message authentication algorithm, which is identified by the message authentication algorithm identifier, and the first key, and to transmit a data authentication response including the message authentication code to the higher-level device. a main processor adapted to receive a data authentication request including data to be authenticated, a first key specification, and a message authentication algorithm identifier from the higher-level device; and a key generator adapted to retain a key hierarchy used by an authentication protocol that is used between the higher-level device and the remote apparatus, and to generate a first key by use of the key hierarchy and the first key specification, wherein the main processor is adapted to generate a message authentication code for the data to be authenticated by use of the message authentication algorithm, which is identified by the message authentication algorithm identifier, and the first key, and to transmit a data authentication response including the message authentication code to the higher-level device.
A mutant DNA polymerase of the Pol theta (Pol theta) subfamily capable of performing non templated nucleic acid extension, or a functional fragment of such a polymerase, which comprises at least one amino acid substitution at a position selected from the group consisting of: 2322, 2328, 2334, 2335, 2384, 2387 and 2391, the indicated positions being determined by alignment with SEQ ID NO: 1.
A centrifugal pump assembly with at least one impeller, with an electric drive motor driving the impeller and with a back-flow channel which forms a flow connection from the delivery side of the impeller to its suction side and which comprises a valve closing in a pressure-dependent manner, for closing this flow connection, characterised by a control device for setting the speed (n) of the drive motor, said control device being designed in a manner such that it has a venting function for venting the centrifugal pump assembly on operation, according to which function, after the detection of an air accumulation and by way of the control device, in a first step, the speed (n) of the drive motor is automatically reduced so far that the valve in the back-flow channel opens, and subsequently in a second step, the speed (n) is such rapidly increased again that a strong flow is created before closing the valve, through which the air accumulation is flushed out of the centrifugal pump assembly.
A time synchronization method, comprising: after clock board times between service boards are synchronized, obtaining, by the service board, a CPU time and the clock board time of the service board according to a preset periodicity; and recording the obtained CPU time and clock board time, wherein the CPU time is a time determined based on a clock signal generated by a crystal oscillator corresponding to a CPU of the service board, and the clock board time is a time determined based on a clock signal generated by a clock board of the service board; when performing CPU time synchronization between the service boards, obtaining, by the service board, a current CPU time of the service board, and calculating a synchronization time of the CPU based on the current CPU time, and a last recorded CPU time and clock board time; and the method is characterized by adjusting the CPU time of the service board to the synchronization time. after clock board times between service boards are synchronized, obtaining, by the service board, a CPU time and the clock board time of the service board according to a preset periodicity; and recording the obtained CPU time and clock board time, wherein the CPU time is a time determined based on a clock signal generated by a crystal oscillator corresponding to a CPU of the service board, and the clock board time is a time determined based on a clock signal generated by a clock board of the service board; when performing CPU time synchronization between the service boards, obtaining, by the service board, a current CPU time of the service board, and calculating a synchronization time of the CPU based on the current CPU time, and a last recorded CPU time and clock board time; and the method is characterized by adjusting the CPU time of the service board to the synchronization time.
Device for controlling the switching from a conducting state to a non conducting state or from a non conducting state to a conducting state of a semiconductor power switch (S1, S2) providing current to a load, the device receiving an input signal (PW1, PW2) that is intended to drive the semiconductor power switch, the device comprising: - means for sensing (10a, 10b) the derivative of the drain to source current going through the semiconductor power switch in order to obtain a voltage representative of the sensed derivative of drain to source current, means for sensing the derivative of the drain to source current going through the semiconductor power switch are composed of a Rogowski coil, - means for amplifying (11a, 11b) the voltage representative of the sensed derivative of drain to source current, - means for adding (12a, 12b, 13a, 13b) the amplified voltage representative of the derivative of the sensed drain to source current to the input signal during a given time period that is equal to the sum of the gate transition time, the transition time of the voltage across the power semiconductor switch and the transition time of the current going through the power semiconductor switch plus a predetermined margin and the means for adding further comprising an exclusive or logic operation (Xor) having a first input connected to the input signal and a second input connected to the input signal delayed (R56, C53) by the given time period. - means for sensing (10a, 10b) the derivative of the drain to source current going through the semiconductor power switch in order to obtain a voltage representative of the sensed derivative of drain to source current, means for sensing the derivative of the drain to source current going through the semiconductor power switch are composed of a Rogowski coil, - means for amplifying (11a, 11b) the voltage representative of the sensed derivative of drain to source current, - means for adding (12a, 12b, 13a, 13b) the amplified voltage representative of the derivative of the sensed drain to source current to the input signal during a given time period that is equal to the sum of the gate transition time, the transition time of the voltage across the power semiconductor switch and the transition time of the current going through the power semiconductor switch plus a predetermined margin and the means for adding further comprising an exclusive or logic operation (Xor) having a first input connected to the input signal and a second input connected to the input signal delayed (R56, C53) by the given time period.
A sterilization or pasteurization system, comprising: a heating section with one or more microwave assemblies coupled thereto; a transport unit which transports a plurality of items having water content through the heating section; a water supply for circulating water through the heating section and immersing the plurality of items in water while in the heating section and being subjected to microwave energy from the one or more microwave assemblies; characterized in that the sterilization or pasteurization system comprises at least one section in fluid communication with said heating section which is configured to contain water at an elevation above the heating section so as to apply a hydrostatic pressure to water in the heating section that is sufficient to prevent water content from the items from causing steam explosion of the item when the microwave energy from the one or more microwave assemblies is applied to the items. a heating section with one or more microwave assemblies coupled thereto; a transport unit which transports a plurality of items having water content through the heating section; a water supply for circulating water through the heating section and immersing the plurality of items in water while in the heating section and being subjected to microwave energy from the one or more microwave assemblies; characterized in that the sterilization or pasteurization system comprises at least one section in fluid communication with said heating section which is configured to contain water at an elevation above the heating section so as to apply a hydrostatic pressure to water in the heating section that is sufficient to prevent water content from the items from causing steam explosion of the item when the microwave energy from the one or more microwave assemblies is applied to the items.
An elongated lighting system extending over a length comprising: a modular unit extending along the length of the lighting system and comprising an arcuate portion, the arcuate portion being arcuate in a direction perpendicular to the length and having a diffusive reflective surface a light emitting diode cradle securing at least one light emitting LED, a diffusive transmissive element extending along the length of the lighting system and diffusing again light emanating from the diffusive reflective surface towards an area to be illuminated, characterized in that the modular unit further comprises: a mouth region connected to the arcuate portion and comprising a first surface and a second surface; wherein the second surface includes a lip; wherein the first and second surfaces are oppositely disposed; a track formed between the second surface and the lip; a mounting cavity receiving an elongate surface of the diffusive transmissive element on an outside surface of the modular unit; and a neck region comprising a groove interfacing with a portion of the light-emitting diode cradle, wherein the light emitting diode cradle being positioned along the track of the modular unit with the primary direction of the at least one LED being aimed at the reflective surface. a modular unit extending along the length of the lighting system and comprising an arcuate portion, the arcuate portion being arcuate in a direction perpendicular to the length and having a diffusive reflective surface a light emitting diode cradle securing at least one light emitting LED, a diffusive transmissive element extending along the length of the lighting system and diffusing again light emanating from the diffusive reflective surface towards an area to be illuminated, characterized in that the modular unit further comprises: a mouth region connected to the arcuate portion and comprising a first surface and a second surface; wherein the second surface includes a lip; wherein the first and second surfaces are oppositely disposed; a track formed between the second surface and the lip; a mounting cavity receiving an elongate surface of the diffusive transmissive element on an outside surface of the modular unit; and a neck region comprising a groove interfacing with a portion of the light-emitting diode cradle, wherein the light emitting diode cradle being positioned along the track of the modular unit with the primary direction of the at least one LED being aimed at the reflective surface.
A vibration suppression system for an aircraft, comprising: a pylon mount structural assembly configured to control pitch and roll dynamics of a vibrating body within the aircraft, the pylon mount structural assembly having a pylon structure (615a, 615b) configured to support the vibrating body at a point of coupling; and a vibration isolator located at each end of the pylon structure (615a, 615b) to control the transmission of vibrations through the aircraft, the vibration isolator being spaced away from the vibrating body, characterised by further comprising: a piston spindle resiliently coupled to an upper housing with an upper elastomer member, the piston spindle being resiliently coupled to a lower housing with a lower elastomer member; and a spherical bearing assembly having an attachment member, the spherical bearing assembly is located at least partially around the lower housing for coupling to the pylon structure (615a, 615b). a pylon mount structural assembly configured to control pitch and roll dynamics of a vibrating body within the aircraft, the pylon mount structural assembly having a pylon structure (615a, 615b) configured to support the vibrating body at a point of coupling; and a vibration isolator located at each end of the pylon structure (615a, 615b) to control the transmission of vibrations through the aircraft, the vibration isolator being spaced away from the vibrating body, characterised by further comprising: a piston spindle resiliently coupled to an upper housing with an upper elastomer member, the piston spindle being resiliently coupled to a lower housing with a lower elastomer member; and a spherical bearing assembly having an attachment member, the spherical bearing assembly is located at least partially around the lower housing for coupling to the pylon structure (615a, 615b). a piston spindle resiliently coupled to an upper housing with an upper elastomer member, the piston spindle being resiliently coupled to a lower housing with a lower elastomer member; and a spherical bearing assembly having an attachment member, the spherical bearing assembly is located at least partially around the lower housing for coupling to the pylon structure (615a, 615b).