mhurhangee/ep-ind-claims huggingface dataset:
A sensor element for a measuring machine, in particular a coordinate measuring machine, having at least - a probe component with a probe element for optical measurement of a surface, and a probe element holder, with a, in particular plate-shaped, base, - a sensor housing with a probe component holder comprising at least one bearing which contacts the base and has at least one defined contact point, in particular two defined contact points, by means of which the probe component is connected movably relative to the probe component holder, wherein - the sensor housing has a coupling side with a coupling for connection, in particular releasable connection, with the measuring machine, and in particular optical contacts and/or electrical contacts, - the sensor housing at least partially encloses the probe component on the base and a force directed in the direction of the probe element is applied to the base, - the probe component holder lies opposite the coupling side in the sensor housing and carries the at least one bearing; and - the base of the probe component is arranged between the coupling side and the probe component holder, characterized in that a centrally arranged cylindrical or spindle-shaped compression spring, which presses the base against the at least one bearing and comprises an optical fiber guided in its longitudinal axis, is arranged between the coupling side and the base of the probe component. - a probe component with a probe element for optical measurement of a surface, and a probe element holder, with a, in particular plate-shaped, base, - a sensor housing with a probe component holder comprising at least one bearing which contacts the base and has at least one defined contact point, in particular two defined contact points, by means of which the probe component is connected movably relative to the probe component holder, wherein - the sensor housing has a coupling side with a coupling for connection, in particular releasable connection, with the measuring machine, and in particular optical contacts and/or electrical contacts, - the sensor housing at least partially encloses the probe component on the base and a force directed in the direction of the probe element is applied to the base, - the probe component holder lies opposite the coupling side in the sensor housing and carries the at least one bearing; and - the base of the probe component is arranged between the coupling side and the probe component holder,
A wind turbine rotor blade comprising: • a flat, electrical heating device that is arranged on an outer side of a rotor blade wall and has a rotor blade tip-side end and a rotor blade root-side end, and is designed for electrical heating current to flow through it, wherein an outer circle is defined in each cross-section of the heating device that entirely encloses the heating device with a minimum radius and has an outer circle radius, and • a lightning conductor that is connected to a lightning protection receptor in the region of a rotor blade tip and is designed to divert the current of lightning striking in the lightning protection receptor toward a rotor blade root, characterized in that • the lightning conductor is arranged relative to the heating device such that, for each point of the heating device in each of the cross-sections within a longitudinal section of the heating device, the distance between this point and an adjacent point of the lightning conductor is not greater than the outer circle radius. • a flat, electrical heating device that is arranged on an outer side of a rotor blade wall and has a rotor blade tip-side end and a rotor blade root-side end, and is designed for electrical heating current to flow through it, wherein an outer circle is defined in each cross-section of the heating device that entirely encloses the heating device with a minimum radius and has an outer circle radius, and • a lightning conductor that is connected to a lightning protection receptor in the region of a rotor blade tip and is designed to divert the current of lightning striking in the lightning protection receptor toward a rotor blade root, characterized in that • the lightning conductor is arranged relative to the heating device such that, for each point of the heating device in each of the cross-sections within a longitudinal section of the heating device, the distance between this point and an adjacent point of the lightning conductor is not greater than the outer circle radius.
Method for measuring voltages that are representative of interference on a two-wire electrical line that is connected to a communication modem, which is able to receive a data signal over said line using a specific transmission technology, the method being implemented by a measuring device located in series between the two-wire line and the modem, the measuring device comprising: • a first transformer, known as a differential-mode circuit, which comprises a primary side (TDp), which is connected to the two-wire line, and a secondary side (TDs), which is connected to the modem, a voltage (Vmd) of the differential-mode circuit, known as a differential-mode noise voltage, being present in a plurality of frequency bands prior to the transmission of a data signal over the two-wire line; • a second transformer, known as a common-mode circuit, which comprises a primary side (TCp), which is connected to the primary side (TDp) of the differential-mode circuit by means of a wire (c) and to an earth by means of another wire, and a secondary side (TCs), which is connected to the modem, a voltage (Vmd') of the common-mode circuit, known as a common-mode noise voltage, being present in the plurality of frequency bands prior to the transmission of a data signal over the two-wire line; the method comprising the following steps: • measuring (E3, E4), for at least one frequency band of the plurality of frequency bands used by the transmission technology, at least one common-mode noise voltage (Vmd') and at least one differential-mode noise voltage (Vmd), a measurement producing a corresponding voltage value; • sending the voltage values to a computer that is able to provide a noise estimate that relates to interference on the two-wire line on the basis of voltage values. • a first transformer, known as a differential-mode circuit, which comprises a primary side (TDp), which is connected to the two-wire line, and a secondary side (TDs), which is connected to the modem, a voltage (Vmd) of the differential-mode circuit, known as a differential-mode noise voltage, being present in a plurality of frequency bands prior to the transmission of a data signal over the two-wire line; • a second transformer, known as a common-mode circuit, which comprises a primary side (TCp), which is connected to the primary side (TDp) of the differential-mode circuit by means of a wire (c) and to an earth by means of another wire, and a secondary side (TCs), which is connected to the modem, a voltage (Vmd') of the common-mode circuit, known as a common-mode noise voltage, being present in the plurality of frequency bands prior to the transmission of a data signal over the two-wire line; • measuring (E3, E4), for at least one frequency band of the plurality of frequency bands used by the transmission technology, at least one common-mode noise voltage (Vmd') and at least one differential-mode noise voltage (Vmd), a measurement producing a corresponding voltage value; • sending the voltage values to a computer that is able to provide a noise estimate that relates to interference on the two-wire line on the basis of voltage values.
A process for preparing an agglutinogen preparation from a Bordetella strain, comprising the steps of: (a) providing a cell paste of the Bordetella strain; (b) selectively extracting fimbrial agglutinogens from the cell paste by using a urea containing buffer to produce a first supernatant containing said agglutinogens and a first residual precipitate; (c) separating the first supernatant from the first residual precipitate and concentrating the first supernatant; (d) incubating the first supernatant at a temperature of 75°C to 85°C and for minute to 60 minutes to produce a clarified supernatant containing fimbrial agglutinogens and a second precipitate containing non-fimbrial agglutinogen contaminants; (e) concentrating the clarified supernatant to produce a crude fimbrial agglutinogen solution by precipitating fimbrial agglutinogens from the clarified supernatant, separating the precipitated fimbrial agglutinogens from the resulting supernatant, and solubilizing the precipitated fimbrial agglutinogens; and (f) purifying fimbrial agglutinogens from the crude fimbrial agglutinogen solution to produce the fimbrial agglutinogen preparation. (a) providing a cell paste of the Bordetella strain; (b) selectively extracting fimbrial agglutinogens from the cell paste by using a urea containing buffer to produce a first supernatant containing said agglutinogens and a first residual precipitate; (c) separating the first supernatant from the first residual precipitate and concentrating the first supernatant; (d) incubating the first supernatant at a temperature of 75°C to 85°C and for minute to 60 minutes to produce a clarified supernatant containing fimbrial agglutinogens and a second precipitate containing non-fimbrial agglutinogen contaminants; (e) concentrating the clarified supernatant to produce a crude fimbrial agglutinogen solution by precipitating fimbrial agglutinogens from the clarified supernatant, separating the precipitated fimbrial agglutinogens from the resulting supernatant, and solubilizing the precipitated fimbrial agglutinogens; and (f) purifying fimbrial agglutinogens from the crude fimbrial agglutinogen solution to produce the fimbrial agglutinogen preparation.
A method of controlling ribbing defects in a roll coating process for liquid coating, the method comprising: providing a first roll, a second roll, and a nip formed between the first and second rolls (14 and 16); and supplying a coating liquid and a substrate to the nip, wherein the substrate wraps one of the first and second rolls (14 and 16) wherein the first roll comprises a thin metal shell and a resilient layer, the thin metal shell encases the resilient layer therebeneath, and wherein the thin metal shell is elastically deformable, and under a contact with the second roll to deflect in unison with the resilient layer so as to smooth the coating liquid, via a film split of the coating liquid at the nip, into a substantially uniform layer of liquid coating which is transferred to the substrate. providing a first roll, a second roll, and a nip formed between the first and second rolls (14 and 16); and supplying a coating liquid and a substrate to the nip, wherein the substrate wraps one of the first and second rolls (14 and 16) wherein the first roll comprises a thin metal shell and a resilient layer, the thin metal shell encases the resilient layer therebeneath, and wherein the thin metal shell is elastically deformable, and under a contact with the second roll to deflect in unison with the resilient layer so as to smooth the coating liquid, via a film split of the coating liquid at the nip, into a substantially uniform layer of liquid coating which is transferred to the substrate.
A rail vehicle radiator arrangement of a rail vehicle, - with a radiator, which is incorporated in a cooling circuit for conducting a liquid coolant and through which a cooling air path for conducting a cooling air stream is conducted, - with at least one separator arranged in the cooling air path upstream of the radiator for separating liquid and/or solid contaminations of the cooling air stream - wherein the respective separator has a separating structure, through which the cooling air flow can flow and feeds the separated contamination to a collecting box, characterized in that the respective collecting box is closed with respect to a high-pressure region, which can form during the travelling of the rail vehicle on a lower side of a vehicle floor, and in that the respective collecting box is fluidically connected to a low-pressure region, in which the pressure while the rail vehicle is travelling is lower than in the high-pressure region. - with a radiator, which is incorporated in a cooling circuit for conducting a liquid coolant and through which a cooling air path for conducting a cooling air stream is conducted, - with at least one separator arranged in the cooling air path upstream of the radiator for separating liquid and/or solid contaminations of the cooling air stream - wherein the respective separator has a separating structure, through which the cooling air flow can flow and feeds the separated contamination to a collecting box, characterized in that the respective collecting box is closed with respect to a high-pressure region, which can form during the travelling of the rail vehicle on a lower side of a vehicle floor, and in that the respective collecting box is fluidically connected to a low-pressure region, in which the pressure while the rail vehicle is travelling is lower than in the high-pressure region.
A method comprising: - determining a quality feedback value according to at least one quality metric from a pre-defined set of quality metrics, the at least one quality metric being at least a quality metric related to a playback of a media stream streamed to a client in a streaming service; and - reporting said quality feedback value to a server, characterized in that said quality metric related to said playback of said media stream is a frame-rate-deviation metric that is related to a deviation of a playback frame rate of said playback of said media stream from a pre-defined value provided by said server. - determining a quality feedback value according to at least one quality metric from a pre-defined set of quality metrics, the at least one quality metric being at least a quality metric related to a playback of a media stream streamed to a client in a streaming service; and - reporting said quality feedback value to a server,
An underwater propulsion unit for a swimming and diving aid, wherein at least one propeller, an electric motor with a motor housing, a motor shaft, which transmits the driving force of the electric motor to the propeller, and a control device, which is arranged in an electronics housing and is connected to the electric motor via connection cables, are assigned to the underwater propulsion unit, and wherein at least part of the underwater propulsion unit is arranged in at least one water-floodable space in a hull of the swimming and diving aid, the floodable space having a flooding chamber, characterized in that a control unit arranged in the electronics housing and the electric motor are arranged in the flooding chamber, that the electronics housing is connected to the motor housing in a water-tight manner circumferentially to an opening (122.1) of the electronics housing and to a housing opening of the motor housing, that the motor shaft is surrounded, at least in some regions, by an outer pipe, that the outer pipe is sealed with respect to the floodable space in such a way that a space sealed with respect to the floodable space is formed between the outer pipe and the motor shaft, that the outer pipe is connected in a sealed manner, directly or indirectly, to the motor housing of the electric motor at its end facing the electric motor, and that the motor shaft is guided from the electric motor into a flow channel of the swimming and diving aid within the outer pipe.
A compound of formula Y: wherein, R 1 - R 10 are independently hydrogen or deuterium, wherein R 6 -R 10 are each deuterium, or a pharmaceutically acceptable acid addition salt thereof, for use as a medicament.
A method for combined forward and inverse synthetic aperture LADAR imaging comprising: scanning a non-stationary target by emitting an optical signal from a non-stationary laser source; receiving, by a receiver having a real aperture, one or more reflections of the optical signal from the non-stationary target, wherein the one or more reflections are received over an observational duration; and determining, by a processor, an angular resolution θ res of a synthetic aperture of the receiver in an azimuth direction according to a wavelength λ of the optical signal, a velocity vector V of the non-stationary laser source, an angle θ measured between an axis perpendicular to V and the non-stationary target, an angular velocity vector Ω of the non-stationary target, a distance R between the non-stationary laser source and the non-stationary target, and the observational duration T SA; wherein the angular resolution of the synthetic aperture of the receiver in the azimuth direction is narrower than an angular resolution of the real aperture of the receiver in the azimuth direction; and wherein the angular resolution θ res of the synthetic aperture of the receiver in the azimuth direction is according to the relationship θ res = λ 2 V → c o s θ + Ω →. R. T S A scanning a non-stationary target by emitting an optical signal from a non-stationary laser source; receiving, by a receiver having a real aperture, one or more reflections of the optical signal from the non-stationary target, wherein the one or more reflections are received over an observational duration; and determining, by a processor, an angular resolution θ res of a synthetic aperture of the receiver in an azimuth direction according to a wavelength λ of the optical signal, a velocity vector V of the non-stationary laser source, an angle θ measured between an axis perpendicular to V and the non-stationary target, an angular velocity vector Ω of the non-stationary target, a distance R between the non-stationary laser source and the non-stationary target, and the observational duration T SA; wherein the angular resolution of the synthetic aperture of the receiver in the azimuth direction is narrower than an angular resolution of the real aperture of the receiver in the azimuth direction; and wherein the angular resolution θ res of the synthetic aperture of the receiver in the azimuth direction is according to the relationship θ res = λ 2 V → c o s θ + Ω →. R. T S A
A device for feeding of flexible pipes, comprising an upper part and a lower part wherein the upper part can be placed on top of the lower part, the upper part comprises a central portion, a first set of bars comprising at least three bars are attached to the central portion, these bars extend outwards from the central portion, the bars are hinged to the central portion, there is attached a wheel or a roller to each of the bars, a guiding ring for the flexible pipe is attached to the top of at least one of the bars, the lower part comprises a central hub, the central hub has a top plate, to this top plate there is attached a lifting arrangement, this lifting arrangement is attached to a swivel, this swivel allows the lower part of the device to rotate freely in either direction relative to the upper part of the device and the lifting arrangement, a second set of bars or a set of sheet metal panels is attached at a first end to the central hub, wherein the bars or panels each having a first and a second portion, the first portion extends outwards from the central hub and the second portion is U-shaped, the U-shaped portion of the second set of bars or panels creates a cradle in which the flexible pipes rest, the second set of bars or panels are at a second end attached to a rim of the lower part of the device, wherein the wheels or rollers rest against the rim on the lower part of the device when the upper part of the device is placed on top of the lower part of the device.
A tissue extraction and collection device, comprising: an outer tube; a shaft disposed within the outer tube and having a tissue harvesting tip disposed at a distal end thereof, the tissue harvesting tip being effective to excise tissue; and, a tissue collection device coupled to the outer tube for receiving excised tissue and fluid flow therefrom, the tissue collection device being configured to indicate an amount of excised tissue collected therein via one or more indicators included in the tissue collection device; wherein the tissue collection device comprises a container having an inlet and outlet for receiving fluid flow therethrough and a tissue collection chamber disposed within the container; and characterised in that: the shaft is rotatably disposed within the outer tube; the tissue harvesting tip being effective to excise tissue upon rotation thereof; and wherein the tissue collection device further comprises a biasing element for biasing the tissue collection chamber along the longitudinal axis thereof, wherein fluid flow through the container is effective to overcome the biasing element to translate the tissue collection chamber within the container such that the displacement of the tissue collection chamber corresponds to an amount of tissue in the tissue collection chamber. an outer tube; a shaft disposed within the outer tube and having a tissue harvesting tip disposed at a distal end thereof, the tissue harvesting tip being effective to excise tissue; and, a tissue collection device coupled to the outer tube for receiving excised tissue and fluid flow therefrom, the tissue collection device being configured to indicate an amount of excised tissue collected therein via one or more indicators included in the tissue collection device; wherein the tissue collection device comprises a container having an inlet and outlet for receiving fluid flow therethrough and a tissue collection chamber disposed within the container; and characterised in that: the shaft is rotatably disposed within the outer tube; the tissue harvesting tip being effective to excise tissue upon rotation thereof; and wherein the tissue collection device further comprises a biasing element for biasing the tissue collection chamber along the longitudinal axis thereof, wherein fluid flow through the container is effective to overcome the biasing element to translate the tissue collection chamber within the container such that the displacement of the tissue collection chamber corresponds to an amount of tissue in the tissue collection chamber. the shaft is rotatably disposed within the outer tube; the tissue harvesting tip being effective to excise tissue upon rotation thereof; and wherein the tissue collection device further comprises a biasing element for biasing the tissue collection chamber along the longitudinal axis thereof, wherein fluid flow through the container is effective to overcome the biasing element to translate the tissue collection chamber within the container such that the displacement of the tissue collection chamber corresponds to an amount of tissue in the tissue collection chamber.