mhurhangee/patent-ind-claim-en huggingface dataset:
A differential pin to radio frequency, RF, adaptor comprising: a center conductor contact with a proximate end and a distal end , the proximate end including an RF connector and the distal end including a signal contact structured to interface with a signal pin of a differential pair ; an insulating sleeve surrounding the center conductor contact ; and a reference contact separated from the center conductor contact by the insulating sleeve and structured to interface with a reference pin of the differential pair ; and charactrized in that the reference contact is structured to abut a device under test, DUT, to shield the signal pin and the signal contact from common mode interference received between the DUT and the RF connector. a center conductor contact with a proximate end and a distal end , the proximate end including an RF connector and the distal end including a signal contact structured to interface with a signal pin of a differential pair ; an insulating sleeve surrounding the center conductor contact ; and a reference contact separated from the center conductor contact by the insulating sleeve and structured to interface with a reference pin of the differential pair ; and charactrized in that the reference contact is structured to abut a device under test, DUT, to shield the signal pin and the signal contact from common mode interference received between the DUT and the RF connector.
A method for measuring mass changes of a heat exchanger bank or the heat exchangers thereof of a steam boiler, which heat exchanger is supported by hanger rods to support beams above the steam boiler, characterized in that to at least one hanger rod of at least one heat exchanger is connected a lower measuring element and an upper measuring element , and the changes of measuring length (X) between the measuring elements is measured by a measuring instrument connected between the measuring elements for measuring the mass changes of the heat exchanger .
A sensor management device on a work vehicle for determining whether one or more obstacle sensors (7; 71; 72; 73) operate normally, the obstacle sensors (7; 71; 72; 73) being mounted on a the work vehicle capable of automatic travel, the sensor management device comprising, for a sensor check routine, - a first notification part that provides a sensor trial activation start notification (#03) causing a user to place a target obstacle on detection regions of the obstacle sensors (7; 71; 72; 73); - an obstacle sensor determination part that determines (#04, #05, #06) a normal operation of each obstacle sensor, based on detection of the target obstacle, in response to the sensor trial activation start notification; and - a second notification part that provides a notification about a result of a determination of the normal operation by the obstacle sensor determination part, wherein the work vehicle is prohibited from travelling automatically, if normal operation of the one or more obstacle sensors (7; 71; 72; 73) is not ascertained; wherein sensor management device is configured to - check, when the sensor check routine is invoked, whether a predetermined period of time has elapsed from a last sensor check, - issue a prohibition command for prohibiting automatic travel (#02), if a the predetermined period of time has elapsed from a last sensor check (#01), and - provide a notification that the sensor check is unnecessary (#31), if the predetermined period of time from the last sensor check has not elapsed (#01). - a first notification part that provides a sensor trial activation start notification (#03) causing a user to place a target obstacle on detection regions of the obstacle sensors (7; 71; 72; 73); - an obstacle sensor determination part that determines (#04, #05, #06) a normal operation of each obstacle sensor, based on detection of the target obstacle, in response to the sensor trial activation start notification; and - a second notification part that provides a notification about a result of a determination of the normal operation by the obstacle sensor determination part, wherein the work vehicle is prohibited from travelling automatically, if normal operation of the one or more obstacle sensors (7; 71; 72; 73) is not ascertained; wherein sensor management device is configured to - check, when the sensor check routine is invoked, whether a predetermined period of time has elapsed from a last sensor check, - issue a prohibition command for prohibiting automatic travel (#02), if a the predetermined period of time has elapsed from a last sensor check (#01), and - provide a notification that the sensor check is unnecessary (#31), if the predetermined period of time from the last sensor check has not elapsed (#01).
Composition comprising A) 20.0 wt% to 99.95 wt% of aromatic polycarbonate and B) 0.05 wt% to 10.0 wt% of a mixture comprising at least one saturated or unsaturated monocarboxylic acid having a chain length of 6 to 30 carbon atoms and at least one ester of this monocarboxylic acid based on glycerol and/or diglycerol. A) 20.0 wt% to 99.95 wt% of aromatic polycarbonate and B) 0.05 wt% to 10.0 wt% of a mixture comprising at least one saturated or unsaturated monocarboxylic acid having a chain length of 6 to 30 carbon atoms and at least one ester of this monocarboxylic acid based on glycerol and/or diglycerol.
A high-yield-ratio high-strength galvanized steel sheet comprising a steel sheet having a composition containing, by mass%, C: 0.12% or more and 0.25% or less, Si: less than 1%, Mn: 2.0% or more and 3% or less, P: 0.05% or less, S: 0.005% or less, Al: 0.1% or less, N: 0.008% or less, Ca: 0.0003% or less, one or more of Ti, Nb, V, and Zr in a total amount of 0.01% to 0.1%, optionally one or more of Mo, Cr, Cu, and Ni in a total amount of 0.1% to 0.5% and/or B: 0.0003% to 0.005%, optionally Sb: 0.001% to 0.05%, and the balance being Fe and inevitable impurities, and a metallographic structure including, in terms of area ratio, 15% or less of ferrite, 20% or more and 50% or less of martensite, and bainite and tempered martensite in a total amount of 30% or more, and a galvanized layer formed on the steel sheet having a coating weight of 20 g/m 2 to 120 g/m 2 per side; and a yield strength ratio is 65% or more, a tensile strength is 950 MPa or more, and Mn oxides are contained in the galvanized layer in an amount of 0.015 g/m 2 to 0.050 g/m 2 . C: 0.12% or more and 0.25% or less, Si: less than 1%, Mn: 2.0% or more and 3% or less, P: 0.05% or less, S: 0.005% or less, Al: 0.1% or less, N: 0.008% or less, Ca: 0.0003% or less, one or more of Ti, Nb, V, and Zr in a total amount of 0.01% to 0.1%, optionally one or more of Mo, Cr, Cu, and Ni in a total amount of 0.1% to 0.5% and/or B: 0.0003% to 0.005%, optionally Sb: 0.001% to 0.05%, and the balance being Fe and inevitable impurities, and a metallographic structure including, in terms of area ratio, 15% or less of ferrite, 20% or more and 50% or less of martensite, and bainite and tempered martensite in a total amount of 30% or more, and
A device for protecting a road user without a cabin against impacts on a longitudinal side of a utility vehicle , comprising: at least one airbag which is arranged on a longitudinal side of the utility vehicle ; sensors which are designed to sense the approach of the road user without a cabin to the longitudinal side ; and a controller which has a signal-transmitting connection to the sensors and to the at least one airbag and is designed to determine, on the basis of signals of the sensors , a probability, a location and/or a time of an imminent collision and to activate the at least one airbag as a function thereof, characterized in that a) the utility vehicle comprises a semi-trailer tractor (106-1) and a semi-trailer (106-2), wherein at least one airbag of the at least one airbag is designed to cover a gap between the semi-trailer tractor (106-1) and the semi-trailer (106-2) in at least one horizontal plane, or b) the utility vehicle comprises an articulation point, wherein at least one airbag of the at least one airbag is designed to cover a gap at the articulation point in at least one horizontal plane. at least one airbag which is arranged on a longitudinal side of the utility vehicle ; sensors which are designed to sense the approach of the road user without a cabin to the longitudinal side ; and a controller which has a signal-transmitting connection to the sensors and to the at least one airbag and is designed to determine, on the basis of signals of the sensors , a probability, a location and/or a time of an imminent collision and to activate the at least one airbag as a function thereof, characterized in that a) the utility vehicle comprises a semi-trailer tractor (106-1) and a semi-trailer (106-2), wherein at least one airbag of the at least one airbag is designed to cover a gap between the semi-trailer tractor (106-1) and the semi-trailer (106-2) in at least one horizontal plane, or b) the utility vehicle comprises an articulation point, wherein at least one airbag of the at least one airbag is designed to cover a gap at the articulation point in at least one horizontal plane. a) the utility vehicle comprises a semi-trailer tractor (106-1) and a semi-trailer (106-2), wherein at least one airbag of the at least one airbag is designed to cover a gap between the semi-trailer tractor (106-1) and the semi-trailer (106-2) in at least one horizontal plane, or b) the utility vehicle comprises an articulation point, wherein at least one airbag of the at least one airbag is designed to cover a gap at the articulation point in at least one horizontal plane.
A composite heat seal structure, wherein a package is provided with a band-shaped heat seal as peelable seal and a linear heat seal is added as peelable seal into the band-shaped peelable heat seal in its longitudinal direction, wherein the package is a bag with piled portions forming a step in the heat seal portion, and wherein the band-shaped heat seal has a width of 3-20 mm and the linear heat seal has a width of 0.1-1.5 mm and a depth of 0.1-1.5 mm.
A covering hood (A) for jointly covering a plurality of load cell housings (W 1 , W 2 ...), wherein a load induction pin (L 1 , L 2 ...) passes out of each weighing cell housing (W 1 , W 2 ...) through an opening in the housing (G 1 , G 2 ), wherein a separate outlet opening (D 1 , D 2 ...) for each load induction pin (L 1 , L 2 ...) is provided in a top part (O) of the covering hood (A) characterized in that the covering hood (A) can be connected to the individual load cell housings (W 1 , W 2 ...).
A method comprising: receiving an image of a real-world environment; using a trained machine learning classifier, classifying the image to produce classifications associated with acoustic presets (P1-PM) for an acoustic environment simulation, the acoustic presets (P1-PM) each comprising a set of acoustic parameters (AP1-APN), the acoustic parameters (AP1-APN) having respective values for a given acoustic preset (P1-PM) with the values varying across the acoustic presets (P1-PM), and the acoustic parameters (AP1-APN) including at least acoustic reverberation parameters, wherein the classifications include room types; and selecting an acoustic preset among the acoustic presets (P1-PM) based on the classifications; wherein the classifying includes classifying the image to produce the classifications such that the classifications have respective confidence levels (C1-CM); wherein the selecting includes selecting the acoustic preset (P1-PM) such that the acoustic preset is associated with a classification among the classifications that has a highest one of the respective confidence levels (C1-CM). receiving an image of a real-world environment; using a trained machine learning classifier, classifying the image to produce classifications associated with acoustic presets (P1-PM) for an acoustic environment simulation, the acoustic presets (P1-PM) each comprising a set of acoustic parameters (AP1-APN), the acoustic parameters (AP1-APN) having respective values for a given acoustic preset (P1-PM) with the values varying across the acoustic presets (P1-PM), and the acoustic parameters (AP1-APN) including at least acoustic reverberation parameters, wherein the classifications include room types; and selecting an acoustic preset among the acoustic presets (P1-PM) based on the classifications; wherein the classifying includes classifying the image to produce the classifications such that the classifications have respective confidence levels (C1-CM); wherein the selecting includes selecting the acoustic preset (P1-PM) such that the acoustic preset is associated with a classification among the classifications that has a highest one of the respective confidence levels (C1-CM).
A Brassica plant, in particular a Brassica oleracea plant, carrying a genetic determinant that comprises QTL1 and/or QTL2 and/or QTL3, which confers resistance against Plasmodiophora brassicae, and which genetic determinant is present in plants that are grown from seeds which were deposited with the NCIMB under NCIMB accession number 41851, wherein the said genetic determinant as present in plants that are grown from the seeds of NCIMB deposit 41851 comprises: - QTL1, located on chromosome 3 between marker BO00365 (SEQ ID No. 3) and marker BO00403 (SEQ ID No. 4) and linked to marker BO00812 (SEQ ID NO. 1); or - QTL1, located on chromosome 3, between marker BO01881 (SEQ ID No.9) and marker BO02440 (SEQ ID No. 10) and linked to marker BO02081 (SEQ ID No. 7); or - QTL1, located on chromosome 3, between marker BO02157 (SEQ ID No.14) and marker BO02306 (SEQ ID No. 15) and linked to marker BO02480 (SEQ ID No. 13); and/or - QTL2, located on chromosome 8 between marker BO00829 (SEQ ID No. 5) and marker BO1007 (SEQ ID No. 6) and linked to marker BO01026 (SEQ ID No. 2); and/or - QTL3, located on chromosome 4 between marker BO02418 (SEQ ID No. 11) and BO01995, (SEQ ID N o. 12) and linked to marker BO02117 (SEQ ID No. 8). - QTL1, located on chromosome 3 between marker BO00365 (SEQ ID No. 3) and marker BO00403 (SEQ ID No. 4) and linked to marker BO00812 (SEQ ID NO. 1); or - QTL1, located on chromosome 3, between marker BO01881 (SEQ ID No.9) and marker BO02440 (SEQ ID No. 10) and linked to marker BO02081 (SEQ ID No. 7); or - QTL1, located on chromosome 3, between marker BO02157 (SEQ ID No.14) and marker BO02306 (SEQ ID No. 15) and linked to marker BO02480 (SEQ ID No. 13); and/or - QTL2, located on chromosome 8 between marker BO00829 (SEQ ID No. 5) and marker BO1007 (SEQ ID No. 6) and linked to marker BO01026 (SEQ ID No. 2); and/or - QTL3, located on chromosome 4 between marker BO02418 (SEQ ID No. 11) and BO01995, (SEQ ID N o. 12) and linked to marker BO02117 (SEQ ID No. 8).
Method for the production of an implant blank , in particular of a dental implant blank, from a source body, said implant blank comprising at least one first region, which is a surface region , and a second region which is a core region , wherein the surface region comprises at least one bioactive surface material and extends from at least one surface going outwards in the direction of the core region , and the core region comprises at least one carrier material which can tolerate a mechanical load, characterized in that the source body has a porosity for controlling a specifically targeted distribution of the bioactive surface material inside the source body, and in a first step, which is a loading step, is loaded with a solution of the bioactive surface material , and in a second step, which is a distribution control step, the distribution of the bioactive surface material inside the source body by means of a convection flow, wherein a flow direction and flow speed are controlled by the specifically targeted production of environmental parameter gradients in relation to different surfaces of the source body in such a way that the solution inside the surface region exhibits a higher concentration than inside the core region , wherein the control is applied by the regulation of one or more environmental parameters in a closed environment , in particular by regulation of the air humidity and/or the pressure and/or the temperature.
A liquefied natural gas storage tank having an improved insulation structure, the liquefied natural gas storage tank comprising: an insulation wall installed on an inner wall of the tank ; and sealing walls installed on an upper surface of the insulation wall and brought into direct contact with liquefied natural gas; wherein the insulation wall comprises corner structures installed at corner portions of the tank , anchor structures installed on the inner wall of the tank , and planar structures installed at planar portions of the tank , wherein the sealing walls comprise a first sealing wall brought into direct contact with the liquefied natural gas and a second sealing wall installed below the first sealing wall , wherein the first sealing wall and the second sealing wall are spaced apart from each other, wherein the first sealing wall comprises a first corrugated portion and the second sealing wall comprises a second corrugated portion such that the first corrugated portion and the second corrugated portion are opposing each other, and wherein the sealing walls enclose a supporting board for allowing a distance between the first sealing wall and the second sealing wall to be kept constant, and characterized in that the supporting board is provided over at least a portion of the sealing walls except the corrugated portions. an insulation wall installed on an inner wall of the tank ; and sealing walls installed on an upper surface of the insulation wall and brought into direct contact with liquefied natural gas; wherein the insulation wall comprises corner structures installed at corner portions of the tank , anchor structures installed on the inner wall of the tank , and planar structures installed at planar portions of the tank , wherein the sealing walls comprise a first sealing wall brought into direct contact with the liquefied natural gas and a second sealing wall installed below the first sealing wall , wherein the first sealing wall and the second sealing wall are spaced apart from each other, wherein the first sealing wall comprises a first corrugated portion and the second sealing wall comprises a second corrugated portion such that the first corrugated portion and the second corrugated portion are opposing each other, and wherein the sealing walls enclose a supporting board for allowing a distance between the first sealing wall and the second sealing wall to be kept constant, and characterized in that the supporting board is provided over at least a portion of the sealing walls except the corrugated portions.
A post-print system comprising: a heating mechanism to heat a build volume when present in a housing within a first temperature range for a time period during a post-print stage; a cooling mechanism to cool the build volume when present in the housing within a second temperature range that is below the first temperature range; and a controller programmed to: select the first temperature range, the second temperature range and the time period based on build material information associated with the build volume, wherein: the first temperature range is above a crystallization point of the build volume and the time period represents a structural modification duration at the first temperature, which structural modification duration is a period to enhance a strength of the build volume, and which duration is determined based on the build material. a heating mechanism to heat a build volume when present in a housing within a first temperature range for a time period during a post-print stage; a cooling mechanism to cool the build volume when present in the housing within a second temperature range that is below the first temperature range; and a controller programmed to: select the first temperature range, the second temperature range and the time period based on build material information associated with the build volume, wherein: the first temperature range is above a crystallization point of the build volume and the time period represents a structural modification duration at the first temperature, which structural modification duration is a period to enhance a strength of the build volume, and which duration is determined based on the build material.
An assembly consisting of a filter plate for a filter press and an insert , wherein the filter plate comprises a contact surface for contacting a further filter plate, which extends parallel to a plane (x, y) formed by the filter plate , and at least one channel opening for forming a channel, wherein the channel opening passes through the filter plate perpendicular to the plane (x, y) formed by the filter plate and is bounded by a channel surface of the filter plate , the filter plate comprises an annular first recess at the transition from the channel surface to the contact surface , which comprises a first annular boundary surface , in which a retaining groove is formed, and the assembly comprises an insert corresponding to the annular first recess with a second annular boundary surface , characterised in that the insert comprises an annular second recess , in which an elastic ring seal is arranged, which protrudes beyond the plane formed by the contact surface , and the insert in the region of the retaining groove comprises a receiving groove , in which a retaining ring is arranged which engages in the retaining groove , in such a way that the insert is held in the first recess in the axial direction of the channel opening .
A wireless power receiving device comprising: a power storage device , a communication device , a power receiving unit configured to wirelessly receive power from a power transmitting unit of a power transmitting device ; a rectifier circuit configured to rectify the power received by the power receiving unit and output the rectified power to the power storage device ; a charging relay provided between the rectifier circuit and the power storage device ; a voltage sensor configured to sense a voltage on a power line between the power receiving unit and the rectifier circuit ; and a controller configured to wirelessly communicate with the power transmitting device via the communication device , characterized in that the controller is configured to, after wireless communication with the power transmitting device is established and before a power transmission request signal as a signal for requesting the power transmitting device to transmit power is output to the power transmitting device , close the charging relay , and also perform a short-circuit determination process, by using a value of a voltage sensed by the voltage sensor with the charging relay closed, to determine whether the rectifier circuit has a short circuit fault. a power storage device , a communication device , a power receiving unit configured to wirelessly receive power from a power transmitting unit of a power transmitting device ; a rectifier circuit configured to rectify the power received by the power receiving unit and output the rectified power to the power storage device ; a charging relay provided between the rectifier circuit and the power storage device ; a voltage sensor configured to sense a voltage on a power line between the power receiving unit and the rectifier circuit ; and a controller configured to wirelessly communicate with the power transmitting device via the communication device , characterized in that the controller is configured to, after wireless communication with the power transmitting device is established and before a power transmission request signal as a signal for requesting the power transmitting device to transmit power is output to the power transmitting device , close the charging relay , and also perform a short-circuit determination process, by using a value of a voltage sensed by the voltage sensor with the charging relay closed, to determine whether the rectifier circuit has a short circuit fault.