mhurhangee/ep-ind-claims huggingface dataset:
A liquid material discharge device comprising: a discharge member made of a rod-shaped body; a liquid chamber which is wider than the discharge member and in which a tip portion of the discharge member is disposed; a discharge port in communication with the liquid chamber; a liquid feed path establishing communication between the liquid chamber and a liquid material storage container; and a drive device (17, 61) driving the discharge member, wherein the liquid material discharge device further comprises an elongate insert member that is removably inserted into the liquid feed path through a lateral opening formed at an end of the liquid feed path on the opposite side to the liquid chamber without cutting the communication between the liquid chamber and the liquid material storage container, characterized in that the insert member includes an insert portion having a stick-like shape, a plugging portion provided at the end of the insert portion, and a knob portion coupled to both the insert portion and the plugging portion, wherein by rotating and screwing the knob portion, the insert member is fixed in the liquid feed path in a state of being positioned on a central axis of the liquid feed path or being held in contact with a lower surface of the liquid feed path. a discharge member made of a rod-shaped body; a liquid chamber which is wider than the discharge member and in which a tip portion of the discharge member is disposed; a discharge port in communication with the liquid chamber; a liquid feed path establishing communication between the liquid chamber and a liquid material storage container; and a drive device (17, 61) driving the discharge member, wherein the liquid material discharge device further comprises an elongate insert member that is removably inserted into the liquid feed path through a lateral opening formed at an end of the liquid feed path on the opposite side to the liquid chamber without cutting the communication between the liquid chamber and the liquid material storage container, characterized in that the insert member includes an insert portion having a stick-like shape, a plugging portion provided at the end of the insert portion, and a knob portion coupled to both the insert portion and the plugging portion, wherein by rotating and screwing the knob portion, the insert member is fixed in the liquid feed path in a state of being positioned on a central axis of the liquid feed path or being held in contact with a lower surface of the liquid feed path.
A method for centrally monitoring the correct sequence of state changes of a number of components for high-voltage systems from 1 kV upwards, wherein each component to be monitored is designed for changing between at least two states, wherein an electric drive is assigned to each component to be monitored in order to change the state of the respective component, and wherein the drives are energized by at least one common voltage source via a voltage supply network that is connected to the drives and the common voltage source for this purpose energizes the voltage supply network in at least one feeding point, with said method comprising the following steps: a) acquiring an actual signal (S ist) of the voltage and/or current, which is/are delivered to the voltage supply network by the voltage source at the feeding point, and b) comparing the actual signal (S ist) with at least one predefined nominal signal (S soll), c) wherein the correct or incorrect sequence of a state change of at least one monitored component is deduced in dependence on the result of the comparison under point b), characterized in that the nominal signal (S soll) is time-variable and determined in dependence on externally supplied switching information. a) acquiring an actual signal (S ist) of the voltage and/or current, which is/are delivered to the voltage supply network by the voltage source at the feeding point, and b) comparing the actual signal (S ist) with at least one predefined nominal signal (S soll), c) wherein the correct or incorrect sequence of a state change of at least one monitored component is deduced in dependence on the result of the comparison under point b),
Method for the automated identification of parking areas and/or non-parking areas, comprising the following steps: S1 Performing a plurality of passes, but at least two passes, through at least one road section with at least one measuring vehicle; S2 Capturing parking space data along the road section during each pass by means of at least one sensor of the at least one measuring vehicle, wherein the parking space data comprise detected parking spaces as well as respectively assigned location and time information; S3 Accumulating the parking space data captured during each pass in a data set; S4 Determining a temporal rate of change of detected parking spaces based on the data set; and S5 Determining valid parking areas and/or non-parking areas along the road section based on the temporal rate of change of various detected parking spaces; wherein the parking space data are assigned to so-called bins (40, 42, 44, 46, 48, 50, 52), where a bin (40, 42, 44, 46, 48, 50, 52) indicates a defined section along the road section, and wherein a detected parking space is assigned to a bin (40, 42, 44, 46, 48, 50, 52) in particular based on the location information assigned to the respective detected parking space; and wherein the temporal rate of change of the detected parking spaces is determined jointly according to step S4 for detected parking spaces respectively combined in a bin (40, 42, 44, 46, 48, 50, 52), and so, as a result of this determination, each bin (40, 42, 44, 46, 48, 50, 52) is assigned a temporal rate of change that results from the temporal rates of change of the detected parking spaces combined in the bin (40, 42, 44, 46, 48, 50, 52), wherein the detected parking spaces as well as the parking areas and/or non-parking areas are incorporated in a digital parking space map. wherein the parking space data are assigned to so-called bins (40, 42, 44, 46, 48, 50, 52), where a bin (40, 42, 44, 46, 48, 50, 52) indicates a defined section along the road section, and wherein a detected parking space is assigned to a bin (40, 42, 44, 46, 48, 50, 52) in particular based on the location information assigned to the respective detected parking space; and wherein the temporal rate of change of the detected parking spaces is determined jointly according to step S4 for detected parking spaces respectively combined in a bin (40, 42, 44, 46, 48, 50, 52), and so, as a result of this determination, each bin (40, 42, 44, 46, 48, 50, 52) is assigned a temporal rate of change that results from the temporal rates of change of the detected parking spaces combined in the bin (40, 42, 44, 46, 48, 50, 52), wherein the detected parking spaces as well as the parking areas and/or non-parking areas are incorporated in a digital parking space map.
A device for measuring an actual length of a fractured bone into which an implant is introduced, wherein a first reference body and a second reference body are arranged in a predetermined relation to the implant, the device comprising a receiving unit for receiving a first 2D fluoroscopic image including the first reference body and a first bone feature of the fractured bone, the first bone feature defining a first end point of the bone, receiving a second 2D fluoroscopic image including the second reference body and a second bone feature of the fractured bone, the second bone feature defining a second end point of the bone, with the second end point being not visible in the second 2D fluoroscopic image, and receiving data of a bone model having first and second bone features corresponding to the first and second bone features of the imaged bone, a processing unit for determining a first spatial relation between the first reference body and the first end point, determining a second spatial relation between the second reference body and a second point at the second bone feature, determining a third spatial relation between the second point at the second bone feature and the second end point based on the bone model, and determining the actual length of the fractured bone based on the first, second, and third spatial relation, and on the predetermined relation of the reference bodies to each other.
A method for detecting a spoofing jammer for GNSS signals, wherein GNSS signals being available at a receiving position are known and the method comprises the following acts: - receiving radio signals from a GNSS by means of an array antenna with N antenna elements and front end circuitry (12, 14) forming N receiver chains, each outputting digital data of the received radio signals, - coarsely acquiring (16, 18) GNSS signals contained in the received radio signals by processing the outputted digital data with a receiver reference signal, - determining (20, 22, 24, 26) a measure of the direction of arrival for each acquired GNSS signal by means of a steering vector evaluated for each elevation and azimuth in order to cover the hemisphere, - detecting (20, 22, 24, 26) a spoofing jammer from the determined measure of the direction of arrival, and characterised in the further step of - locating a spoofing jammer by determining the distance between the array antenna and the spoofing jammer from an acquired GNSS signal detected as being transmitted from the spoofing jammer by means of a code synchronization of the receiver reference signal with the acquired GNSS signal from the spoofing jammer. - receiving radio signals from a GNSS by means of an array antenna with N antenna elements and front end circuitry (12, 14) forming N receiver chains, each outputting digital data of the received radio signals, - coarsely acquiring (16, 18) GNSS signals contained in the received radio signals by processing the outputted digital data with a receiver reference signal, - determining (20, 22, 24, 26) a measure of the direction of arrival for each acquired GNSS signal by means of a steering vector evaluated for each elevation and azimuth in order to cover the hemisphere, - detecting (20, 22, 24, 26) a spoofing jammer from the determined measure of the direction of arrival, and characterised in the further step of - locating a spoofing jammer by determining the distance between the array antenna and the spoofing jammer from an acquired GNSS signal detected as being transmitted from the spoofing jammer by means of a code synchronization of the receiver reference signal with the acquired GNSS signal from the spoofing jammer.
A high pressure plate heat exchanger comprising a rectangular plate packet which is arranged in a pressure room provided by a housing, wherein the plate packet comprises first and second channels (K1, K2) through which media (M1, M2) can flow, which channels are arranged in countercurrent and are formed for the first medium as tubes between individual plates that are connected to form a pair of plates and for the second medium in form of waves between pairs of plates that are connected to each other to form a plate stack, wherein the tubular channels extend in the longitudinal direction in parallel to the longitudinal edges of the individual plates and the individual plates are connected to each other along the longitudinal edges thereof to form pairs of plates and the pairs of plates are connected to each other along their edges extending transversely with respect to the longitudinal edges of the individual plates to form a plate stack, wherein the tube side serves as pressure side for the first medium and the wave side serves as pressure side for the second medium and the housing comprises flange covers (8, 9) which are connected on the tube side of the plate stack and which are at least partially spherical and comprise a rectangular opening that is shaped correspondingly to the geometric design of the plate packet for receiving the plate packet, wherein the individual plates are provided with several parallel rows of embossment sections which extend in the longitudinal direction, wherein the embossment sections of adjacent rows are offset with respect to each other in the longitudinal direction.
Intermediate layer for a lining structure, comprising a first layer having a first main side and a second main side embodied as a lattice fabric having crossing threads, wherein a second layer that covers the entire surface is arranged at least on the first main side, characterised in that the second layer is embodied as a self-adhesive layer and comprises a butyl adhesive or an acrylate adhesive and that the second layer is provided with a fibre reinforcement.
A system for live data migration, the system comprising: one or more processors; and memory storing instructions that, when executed by the one or more processors, cause the system to perform: migrating at least one first table of a first database schema to at least one second table of a second database schema, the at least one first table storing live data; receiving a query for modifying the at least one first table during the migration; modifying the at least one second table instead of the at least one first table based at least in part on the query; updating a mutation table to describe the modification; determining at least one field to be migrated from the at least one first table to the at least one second table; determining that no write operations have been performed to a row corresponding to the at least one field during the migration, the determining based at least in part on the mutation table; and migrating the at least one field from the at least one first table to the at least one second table, the migrating causing data corresponding to the at least one field from the first table to be populated in one or more fields of the second table based at least in part on a respective schema of the second table. one or more processors; and memory storing instructions that, when executed by the one or more processors, cause the system to perform: migrating at least one first table of a first database schema to at least one second table of a second database schema, the at least one first table storing live data; receiving a query for modifying the at least one first table during the migration; modifying the at least one second table instead of the at least one first table based at least in part on the query; updating a mutation table to describe the modification; determining at least one field to be migrated from the at least one first table to the at least one second table; migrating at least one first table of a first database schema to at least one second table of a second database schema, the at least one first table storing live data; receiving a query for modifying the at least one first table during the migration; modifying the at least one second table instead of the at least one first table based at least in part on the query; updating a mutation table to describe the modification; determining at least one field to be migrated from the at least one first table to the at least one second table; determining that no write operations have been performed to a row corresponding to the at least one field during the migration, the determining based at least in part on the mutation table; and migrating the at least one field from the at least one first table to the at least one second table, the migrating causing data corresponding to the at least one field from the first table to be populated in one or more fields of the second table based at least in part on a respective schema of the second table.
A method for printing an inkjet energy curable ink or coating composition comprising: a) providing an energy curable ink or coating composition, wherein the energy curable ink or coating composition comprises: i. one or more multifunctional polymerizable monomers; ii. optionally, one or more polymerizable oligomers and/or monofunctional monomers; wherein the energy curable ink or coating composition comprises less than 10% (w/w) of any monofunctional polymerizable monomer or oligomer, based on the total weight of the ink or coating composition; iii. 0.1 % to 5% (w/w) one or more photoinitiators; iv. optionally, one or more solvents; and v. optionally, one or more colorants; and vi. a silicone polyether acrylate; b) applying the ink or coating composition of step a) on a substrate; c) exposing the applied ink or coating composition of step b) to UV radiation to partially cure the ink or coating composition, pinning the ink or coating composition to the substrate; and d) exposing the partially cured ink or coating composition of step c) to electron beam radiation. a) providing an energy curable ink or coating composition, wherein the energy curable ink or coating composition comprises: i. one or more multifunctional polymerizable monomers; ii. optionally, one or more polymerizable oligomers and/or monofunctional monomers; wherein the energy curable ink or coating composition comprises less than 10% (w/w) of any monofunctional polymerizable monomer or oligomer, based on the total weight of the ink or coating composition; iii. 0.1 % to 5% (w/w) one or more photoinitiators; iv. optionally, one or more solvents; and v. optionally, one or more colorants; and vi. a silicone polyether acrylate; i. one or more multifunctional polymerizable monomers; ii. optionally, one or more polymerizable oligomers and/or monofunctional monomers; wherein the energy curable ink or coating composition comprises less than 10% (w/w) of any monofunctional polymerizable monomer or oligomer, based on the total weight of the ink or coating composition; iii. 0.1 % to 5% (w/w) one or more photoinitiators; iv. optionally, one or more solvents; and v. optionally, one or more colorants; and vi. a silicone polyether acrylate; b) applying the ink or coating composition of step a) on a substrate; c) exposing the applied ink or coating composition of step b) to UV radiation to partially cure the ink or coating composition, pinning the ink or coating composition to the substrate; and d) exposing the partially cured ink or coating composition of step c) to electron beam radiation.
A system comprising: a logic device configured to communicate with a communication module (120, 144) and a position sensor coupled to a mobile platform, wherein the communication module is configured to establish a wireless communication link with a base station associated with the mobile platform, the position sensor is configured to provide a position of the mobile platform as it maneuvers within a survey area, and the logic device is configured to: determine communication link quality data associated with the wireless communication link between the mobile platform and the base station and corresponding to one or more positions of the mobile platform as the mobile platform maneuvers within the survey area, wherein determining communication link quality data comprises receiving at least a portion of the communication link quality data from a second communication module coupled to or within the base station as the mobile platform maneuvers within the survey area; receive position data corresponding to the one or more positions of the mobile platform; and generate communication coverage information corresponding to the survey area based, at least in part, on a combination of the position data and the communication link quality data. determine communication link quality data associated with the wireless communication link between the mobile platform and the base station and corresponding to one or more positions of the mobile platform as the mobile platform maneuvers within the survey area, wherein determining communication link quality data comprises receiving at least a portion of the communication link quality data from a second communication module coupled to or within the base station as the mobile platform maneuvers within the survey area; receive position data corresponding to the one or more positions of the mobile platform; and generate communication coverage information corresponding to the survey area based, at least in part, on a combination of the position data and the communication link quality data.
A pocket conveyor for conveying objects, in particular cigarette groups, which displays at least one linear partial conveying path and at least one curved, preferably in the shape of a divided circle, partial conveying path, and which disposes of pockets for receiving the objects, which are disposed along a belt-type endless traction means and fastened thereon, wherein at least one pocket is mounted on the traction means so as to be pivotable about two parallel rotation axes (23, 24) which are spaced apart and disposed behind one another in the conveying direction, characterized in that the two rotation axes (23, 24) in each case run at a defined spacing from the neutral axis of the traction means, said spacing being dimensioned such that the spacing between the rotation axes (23, 24), which is established when the entire pocket is located in a region of the curved partial conveying path, substantially, preferably exactly, corresponds to the nominal spacing between the rotation axes (23, 24), specifically the spacing which results when the entire pocket is located in the region of the linear conveying path, specifically without forces substantially acting on the pocket which move or could move the rotation axes (23, 24) toward one another when the entire pocket is located in the curved region.
A signal receiving system, configured to convert a first modulated signal to a second modulated signal, the signal receiving system comprising: an I/Q demodulator configured to demodulate the first modulated signal to an in-phase "I" signal and a quadrature "Q" signal based on a first oscillator signal, the first modulated signal being modulated based on a second oscillator signal that is asynchronous to the first oscillator signal; an I/Q signal adjustor configured to adaptively adjust the Q signal to increase the signal- to-noise ratio of a transitory signal that is based on the second modulated signal, the Q signal being adjusted based on a calculated error determined for the transitory signal; an I/Q modulator configured to generate at least a portion of the second modulated signal based on the I signal and the adjusted Q signal; and a downstream demodulator configured to demodulate the transitory signal and to assist in determining the calculated error for the transitory signal. an I/Q demodulator configured to demodulate the first modulated signal to an in-phase "I" signal and a quadrature "Q" signal based on a first oscillator signal, the first modulated signal being modulated based on a second oscillator signal that is asynchronous to the first oscillator signal; an I/Q signal adjustor configured to adaptively adjust the Q signal to increase the signal- to-noise ratio of a transitory signal that is based on the second modulated signal, the Q signal being adjusted based on a calculated error determined for the transitory signal; an I/Q modulator configured to generate at least a portion of the second modulated signal based on the I signal and the adjusted Q signal; and a downstream demodulator configured to demodulate the transitory signal and to assist in determining the calculated error for the transitory signal.
Cage rotor for an electric machine having a rotor core and an electrically conductive rotor cage arranged around the rotor core, wherein the rotor cage comprises fibres which are in each case spun from a plurality of carbon nanotubes, characterised in that the rotor cage is formed from flexible conductor strands, wherein the conductor strands comprise a textile element formed from a plurality of fibres, which comprises at least one element woven from fibres containing carbon nanotubes or at least one rope strand formed from fibres containing carbon nanotubes.