mhurhangee/ep-ind-claims huggingface dataset:
Commercial vehicle structure with a sliding tarpaulin arrangement which laterally bounds a load compartment and which contains a plurality of suspension posts which are displaceable in the longitudinal direction and, during the displacement, are guided in an upper guide of a roof pillar, and a flexible tarpaulin which is connected to said suspension posts, wherein - the suspension posts, in a first position, are supported transversely with respect to the longitudinal direction at the upper ends thereof in the upper guide and at the lower ends thereof in a lower receptacle of a floor frame and are shiftable into a second position in which the suspension posts are released from the lower receptacle and are displaceable together with the tarpaulin in the lateral direction, - the tarpaulin is vertically braceable and releasable by clamping devices at longitudinal positions, which correspond to the suspension posts, in the longitudinal direction, characterized in that - each suspension post is assigned a clamping means with a manually handleable actuating means, wherein the clamping means is designed for shifting a suspension post between the first and second position and at the same time for the vertical bracing or release of the tarpaulin in a respectively uniform actuating operation of the actuating means. - the suspension posts, in a first position, are supported transversely with respect to the longitudinal direction at the upper ends thereof in the upper guide and at the lower ends thereof in a lower receptacle of a floor frame and are shiftable into a second position in which the suspension posts are released from the lower receptacle and are displaceable together with the tarpaulin in the lateral direction, - the tarpaulin is vertically braceable and releasable by clamping devices at longitudinal positions, which correspond to the suspension posts, in the longitudinal direction, characterized in that - each suspension post is assigned a clamping means with a manually handleable actuating means, wherein the clamping means is designed for shifting a suspension post between the first and second position and at the same time for the vertical bracing or release of the tarpaulin in a respectively uniform actuating operation of the actuating means.
A calibration device for calibrating thermal devices comprising: a chamber including a bottom wall and a plurality of side walls; a tank disposed within the chamber, the tank including a bottom wall and a plurality of side walls (164a-d), the bottom wall of the tank being spaced apart from the bottom wall of the chamber, the side walls (164a-d) of the tank being spaced apart from the side walls of the chamber; a propeller disposed within the tank, wherein the propeller includes a plurality of blades which, in operation, moves a fluid disposed within the tank toward one of the side walls while the propeller rotates in a predetermined direction; the calibration device being characterized by further comprising: a conduit disposed between the bottom wall of the tank and the bottom wall of the chamber and between the side walls of the tank and the side walls of the chamber; a motor coupled to a fluid propulsion device, wherein the fluid propulsion device, in operation, moves air into the conduit past the bottom wall and side walls of the tank, the air moving in the conduit contacting an exterior surface of the tank; and a processor coupled to the motor, wherein the processor, in operation, controls a speed at which the motor rotates. a chamber including a bottom wall and a plurality of side walls; a tank disposed within the chamber, the tank including a bottom wall and a plurality of side walls (164a-d), the bottom wall of the tank being spaced apart from the bottom wall of the chamber, the side walls (164a-d) of the tank being spaced apart from the side walls of the chamber; a propeller disposed within the tank, wherein the propeller includes a plurality of blades which, in operation, moves a fluid disposed within the tank toward one of the side walls while the propeller rotates in a predetermined direction; the calibration device being characterized by further comprising: a conduit disposed between the bottom wall of the tank and the bottom wall of the chamber and between the side walls of the tank and the side walls of the chamber; a motor coupled to a fluid propulsion device, wherein the fluid propulsion device, in operation, moves air into the conduit past the bottom wall and side walls of the tank, the air moving in the conduit contacting an exterior surface of the tank; and a processor coupled to the motor, wherein the processor, in operation, controls a speed at which the motor rotates. a conduit disposed between the bottom wall of the tank and the bottom wall of the chamber and between the side walls of the tank and the side walls of the chamber; a motor coupled to a fluid propulsion device, wherein the fluid propulsion device, in operation, moves air into the conduit past the bottom wall and side walls of the tank, the air moving in the conduit contacting an exterior surface of the tank; and a processor coupled to the motor, wherein the processor, in operation, controls a speed at which the motor rotates.
A distributed antenna system, comprising: a downlink communication path configured for communicatively coupling a transmit antenna to a base station; an uplink communication path configured for communicatively coupling a receive antenna to the base station; a non-duplexer isolator sub-system electronically configured for isolating uplink signals traversing the uplink communication path from downlink signals; and a gain adjuster positioned in the uplink communication path, the gain adjuster being configured to adjust a gain of the uplink signals by amplifying the uplink signals in response to downlink noise exceeding a threshold. a downlink communication path configured for communicatively coupling a transmit antenna to a base station; an uplink communication path configured for communicatively coupling a receive antenna to the base station; a non-duplexer isolator sub-system electronically configured for isolating uplink signals traversing the uplink communication path from downlink signals; and a gain adjuster positioned in the uplink communication path, the gain adjuster being configured to adjust a gain of the uplink signals by amplifying the uplink signals in response to downlink noise exceeding a threshold.
An electrolyte material which is formed of a polymer H having units represented by the following formula u1 and units based on tetrafluoroethylene, wherein the proportion of the units u1 in the polymer H is from 18.1 to 29.9 mol% to all the units contained in the polymer H, wherein the polymer H has EW represented by the following formula I of from 400 to 550 g/eq, and the mass reduction ratio when immersed in hot water at 120°C for 24 hours is at most 15 mass%: wherein Q 11 is a perfluoroalkylene group which may have an etheric oxygen atom, Q 12 is a single bond or a perfluoroalkylene group which may have an etheric oxygen atom, Y 1 is a fluorine atom or a monovalent perfluoroorganic group, s is 0 or 1, R f1 is a perfluoroalkyl group which may have an etheric oxygen atom, X 1 is an oxygen atom, a nitrogen atom or a carbon atom, a is 0 when X 1 is an oxygen atom, 1 when X 1 is a nitrogen atom, and 2 when X 1 is a carbon atom, and Z + is H +, a monovalent metal ion or an ammonium ion in which at least one hydrogen atom may be substituted with a hydrocarbon group; EW = 1000 / AR wherein EW is the equivalent weight (number of g of the polymer per 1 equivalent amount of ion exchange groups), and AR is the ion exchange capacity (milliequivalent of ion exchange groups per 1 g of the polymer). Q 11 is a perfluoroalkylene group which may have an etheric oxygen atom, Q 12 is a single bond or a perfluoroalkylene group which may have an etheric oxygen atom, Y 1 is a fluorine atom or a monovalent perfluoroorganic group, s is 0 or 1, R f1 is a perfluoroalkyl group which may have an etheric oxygen atom, X 1 is an oxygen atom, a nitrogen atom or a carbon atom, a is 0 when X 1 is an oxygen atom, 1 when X 1 is a nitrogen atom, and 2 when X 1 is a carbon atom, and Z + is H +, a monovalent metal ion or an ammonium ion in which at least one hydrogen atom may be substituted with a hydrocarbon group; EW = 1000 / AR wherein EW is the equivalent weight (number of g of the polymer per 1 equivalent amount of ion exchange groups), and AR is the ion exchange capacity (milliequivalent of ion exchange groups per 1 g of the polymer).
Blood treatment apparatus having an extracorporeal circuit and a dialyzate circuit as well as a dialyzer which comprises a blood-side chamber and a dialyzate-side chamber which is separated from the blood-side chamber by a membrane, wherein the blood-side chamber is in fluid communication with the extracorporeal circuit and the dialyzate chamber is in fluid communication with the dialyzate circuit, and having a preparation unit for the online preparation of a solution, characterized in that the blood treatment apparatus comprises first means for carrying out a priming mode, and second means for carrying out an initial treatment mode, wherein the first means are configured such that they control the preparation unit such that a flushing solution having a pH of ≥ 7.3, and preferably of ≥ 7.4, is prepared and such that the extracorporeal circuit is filled with this flushing solution, and the second means are configured such that they control the preparation unit such that dialyzate having a pH of ≥ 7.3, and preferably of ≥ 7.4, is prepared, and such that the dialyzate circuit is filled with this dialyzate, wherein the blood treatment apparatus comprises a control or regulation unit which operates the first means before the second means, wherein the preparation unit comprises conveying means for conveying bicarbonate and in particular a concentrate containing bicarbonate; and in that the conveying means are configured such that they carry out the setting of the pH by means of the conveying of bicarbonate, and wherein the blood treatment apparatus comprises third means for carrying out a treatment mode following the initial treatment mode, wherein the third means are configured such that they control the preparation unit such that the dialyzate is matched in its composition to a prescribed composition, wherein the control or regulation unit is configured such that the third means are operated after the second means.
A composition comprising: a dosage form comprising: a first population of polymeric synthetic nanocarriers that comprise a first set of surface antigens; a second population of polymeric synthetic nanocarriers that comprise a second set of surface antigens; and a pharmaceutically acceptable excipient; wherein the first population of synthetic nanocarriers and second population of synthetic nanocarriers are combined in the dosage form to form a multivalent vaccine for administration, and wherein the first set of surface antigens and the second set of surface antigens are structurally and immunologically different. a dosage form comprising: a first population of polymeric synthetic nanocarriers that comprise a first set of surface antigens; a second population of polymeric synthetic nanocarriers that comprise a second set of surface antigens; and a pharmaceutically acceptable excipient; a first population of polymeric synthetic nanocarriers that comprise a first set of surface antigens; a second population of polymeric synthetic nanocarriers that comprise a second set of surface antigens; and a pharmaceutically acceptable excipient; wherein the first population of synthetic nanocarriers and second population of synthetic nanocarriers are combined in the dosage form to form a multivalent vaccine for administration, and wherein the first set of surface antigens and the second set of surface antigens are structurally and immunologically different.
A method for a first User Equipment, in the following also referred to as UE, in RRC_CONNECTED to request sidelink resources, comprising: transmitting a first Radio Resource Control, in the following also referred to as RRC, message to a network node to request sidelink resources for transmission, wherein a presence of a sidelink Quality of Service, in the following also referred to as QoS, information list in the first RRC message is optional, wherein each entry in the sidelink QoS information list includes an information element indicating a QoS profile of a PC5 QoS flow and an information element indicating a PC5 QoS flow identity of the PC5 QoS flow, and wherein the sidelink QoS information list is present if the first RRC message is used to request sidelink resources for traffic transfer of a Vehicle-to-Everything, in the following also referred to as V2X, service with a second UE, after a unicast link is established between the first UE and the second UE, characterized in that the sidelink QoS information list is absent if the first RRC message is used to request sidelink resources for transmitting a PC5-S message used to request establishment of the unicast link with the second UE for direct communication with the second UE. transmitting a first Radio Resource Control, in the following also referred to as RRC, message to a network node to request sidelink resources for transmission, wherein a presence of a sidelink Quality of Service, in the following also referred to as QoS, information list in the first RRC message is optional, wherein each entry in the sidelink QoS information list includes an information element indicating a QoS profile of a PC5 QoS flow and an information element indicating a PC5 QoS flow identity of the PC5 QoS flow, and wherein the sidelink QoS information list is present if the first RRC message is used to request sidelink resources for traffic transfer of a Vehicle-to-Everything, in the following also referred to as V2X, service with a second UE, after a unicast link is established between the first UE and the second UE, characterized in that the sidelink QoS information list is absent if the first RRC message is used to request sidelink resources for transmitting a PC5-S message used to request establishment of the unicast link with the second UE for direct communication with the second UE.
Lift drive with an electric motor which is designed for a frequency converter operation and has a rotor and a stator (10, 80), - wherein at least one of the rotor and stator (10, 80) has a winding in the form of a needle winding; - wherein coils of the phases (100, 102, 104) are arranged so that there is at least one change in the winding in terms of function and/or direction, and - wherein a winding head disk (28, 82, 150) is provided, that is designed to separate phases (100, 102, 104) of the electric motor from each other and separate inputs and outputs of coils (20, 22, 86) of each phase (100, 102, 104) of the electric motor from each other; - wherein grooves (170, 178, 180, 182) are provided in the outer perimeter; - wherein the grooves (170, 178, 180, 182) are formed such that a wire can be guided at different heights in an axial direction with reference to the winding head disc; - wherein at least one step (190, 192) is provided in at least one of the grooves (170, 178, 180, 182); - wherein the at least one step (190, 192) is designed to lift or lower a wire within the groove (170, 178, 180, 182) with reference to the height. - wherein at least one of the rotor and stator (10, 80) has a winding in the form of a needle winding; - wherein coils of the phases (100, 102, 104) are arranged so that there is at least one change in the winding in terms of function and/or direction, and - wherein a winding head disk (28, 82, 150) is provided, that is designed to separate phases (100, 102, 104) of the electric motor from each other and separate inputs and outputs of coils (20, 22, 86) of each phase (100, 102, 104) of the electric motor from each other; - wherein grooves (170, 178, 180, 182) are provided in the outer perimeter; - wherein the grooves (170, 178, 180, 182) are formed such that a wire can be guided at different heights in an axial direction with reference to the winding head disc; - wherein at least one step (190, 192) is provided in at least one of the grooves (170, 178, 180, 182); - wherein the at least one step (190, 192) is designed to lift or lower a wire within the groove (170, 178, 180, 182) with reference to the height.
A joined body manufacturing method comprising: a laminating step forming a laminated body (76, 80, 83, 84, 85): by coating temporary fixing material (40, 41, 42, 43, 81) including saturated fatty acid as a main ingredient beforehand on either a first member (51, 52) or a second member (20, 75; 25; 35, 45), wherein the first member (51, 52) is made of a metal plate, and the second member (20, 75; 25; 35, 45) includes one or more of metal plates or ceramic plates; stacking and positioning the first member (51, 52) and the second member (20, 75; 25; 35, 45) with the temporary fixing material (40, 41, 42, 43, 81) therebetween in a state in which the temporary fixing material (40, 41, 42, 43, 81) is melted; and cooling the temporary fixing material (40, 41, 42, 43, 81), to form the laminated body (76, 80, 83, 84, 85) in which the stacked first member (51, 52) and the second member (20, 75; 25; 35, 45) are temporarily joined; and a joining step forming a joined body in which the first member (51, 52) and the second member (20, 75; 25; 35, 45) are joined by heating with pressurizing the laminated body (76, 80, 83, 84, 85) in a stacking direction, wherein the temporary fixing material is decomposed and disappeared at an initial stage of the heating of the joining step. a laminating step forming a laminated body (76, 80, 83, 84, 85): by coating temporary fixing material (40, 41, 42, 43, 81) including saturated fatty acid as a main ingredient beforehand on either a first member (51, 52) or a second member (20, 75; 25; 35, 45), wherein the first member (51, 52) is made of a metal plate, and the second member (20, 75; 25; 35, 45) includes one or more of metal plates or ceramic plates; stacking and positioning the first member (51, 52) and the second member (20, 75; 25; 35, 45) with the temporary fixing material (40, 41, 42, 43, 81) therebetween in a state in which the temporary fixing material (40, 41, 42, 43, 81) is melted; and cooling the temporary fixing material (40, 41, 42, 43, 81), to form the laminated body (76, 80, 83, 84, 85) in which the stacked first member (51, 52) and the second member (20, 75; 25; 35, 45) are temporarily joined; and a joining step forming a joined body in which the first member (51, 52) and the second member (20, 75; 25; 35, 45) are joined by heating with pressurizing the laminated body (76, 80, 83, 84, 85) in a stacking direction, wherein the temporary fixing material is decomposed and disappeared at an initial stage of the heating of the joining step.
Electromechanical actuator for an active roll stabilizer of a motor vehicle, comprising an electric motor with a rotor shaft and a motor housing, an end plate which is supported in the motor housing and has the purpose of supporting the rotor shaft, a cover which is arranged at the end side with respect to the motor housing and with respect to the end plate and is connected to a first stabilizer half, wherein the actuator comprises, in addition to the electric motor, a planetary gear mechanism with an output to which a second stabilizer half is attached, characterized in that a component carrier for electric and/or electronic components is arranged on and attached to the end plate.
A device for controlling the slats of a blind with adjustable slats, wherein the device comprises a rotating longitudinal support body of rockers connected by rods (4, 5) opposite each other for the synchronisation of the oscillation thereof, wherein said rods (4, 5) are flexible, characterised in that the longitudinal support body is longitudinally divided into a plurality of modules along which the rods (4, 5) extend longitudinally.
An axial piston pump controller configured to control an axial piston pump having a fixed valve plate and a variable displacement configured to: determine a displacement of the axial piston pump; calculate a pump displacement control current to be supplied to the axial piston pump to control the displacement of the axial piston pump comprising: calculating a nominal value for the pump displacement control current based on a rotational speed of the axial piston pump; calculating a pump stiffness adjustment factor based on a pump stiffness control map having as inputs: an output pressure of the axial piston pump, and the displacement of the axial piston pump; and calculating the pump displacement control current to be supplied to the axial piston pump based on the nominal value and the pump stiffness adjustment factor; and output an instruction to output the calculated pump displacement control current to the axial piston pump in order to control the displacement of the axial piston pump. determine a displacement of the axial piston pump; calculate a pump displacement control current to be supplied to the axial piston pump to control the displacement of the axial piston pump comprising: calculating a nominal value for the pump displacement control current based on a rotational speed of the axial piston pump; calculating a pump stiffness adjustment factor based on a pump stiffness control map having as inputs: an output pressure of the axial piston pump, and the displacement of the axial piston pump; and calculating the pump displacement control current to be supplied to the axial piston pump based on the nominal value and the pump stiffness adjustment factor; and calculating a nominal value for the pump displacement control current based on a rotational speed of the axial piston pump; calculating a pump stiffness adjustment factor based on a pump stiffness control map having as inputs: an output pressure of the axial piston pump, and the displacement of the axial piston pump; and calculating the pump displacement control current to be supplied to the axial piston pump based on the nominal value and the pump stiffness adjustment factor; and output an instruction to output the calculated pump displacement control current to the axial piston pump in order to control the displacement of the axial piston pump.
A method of monitoring a condition of a plurality of rows of soils and displaying alarm condition at a row, implemented by an implement monitor including a central processing unit, a memory, and a graphical interface comprising: transmitting to the monitor a set of images of a plurality of rows of soil corresponding to a plurality of row units of a planter; computing, by the central processing unit of the monitor, an alarm value associated with a row of soil of the plurality of rows of soil based on analysis of an image of the set of images, the image being of the row of soil; identifying a row exhibiting an alarm condition based on a comparison between the alarm value at each row of soil of the plurality of rows of soil and an associated alarm threshold; in response to identifying a row exhibiting the alarm condition: causing display of the image of the row of soil associated with the alarm condition and a graphical representation of the alarm condition in the monitor. transmitting to the monitor a set of images of a plurality of rows of soil corresponding to a plurality of row units of a planter; computing, by the central processing unit of the monitor, an alarm value associated with a row of soil of the plurality of rows of soil based on analysis of an image of the set of images, the image being of the row of soil; identifying a row exhibiting an alarm condition based on a comparison between the alarm value at each row of soil of the plurality of rows of soil and an associated alarm threshold; in response to identifying a row exhibiting the alarm condition: causing display of the image of the row of soil associated with the alarm condition and a graphical representation of the alarm condition in the monitor.