mhurhangee/ep-ind-claims huggingface dataset:
A planter row unit tippable about a horizontal axis between a transport position and a working position, the row unit having a seed meter, wherein the seed meter is configured to transition to an orientation in which it is angled relative to the direction of gravity when the row unit is in the transport position, the seed meter comprising: a seed disc rotatable within a housing in a direction of rotation, wherein the housing comprises a seed pool area on a seed side of the seed disc; a first brush disposed in said seed meter on said seed side; and, a second brush disposed in said seed meter on said seed side; characterized in that the second brush is generally vertical when the row unit is in the working position and the first brush is an upper brush located above and angled relative to the second brush, said seed meter further comprises a flap pivotably attached to a lower end of said first brush, wherein when said planter row unit is in the transport position, said flap pivots under gravity and contacts said second brush, and wherein when said planter row unit is in the working position, said flap pivots under gravity away from said second brush, the arrangement configured such that said flap, said first brush, and said second brush cooperate with said seed disc to prevent seeds from said seed pool area passing through an exit in said seed meter when said planter row unit is in said transport position and that when said planter row unit is in the working position, seeds are allowed to fall vertically from an upper portion of the meter and pass between the brushes back to the seed pool area. a seed disc rotatable within a housing in a direction of rotation, wherein the housing comprises a seed pool area on a seed side of the seed disc; a first brush disposed in said seed meter on said seed side; and, a second brush disposed in said seed meter on said seed side; characterized in that the second brush is generally vertical when the row unit is in the working position and the first brush is an upper brush located above and angled relative to the second brush, said seed meter further comprises a flap pivotably attached to a lower end of said first brush, wherein when said planter row unit is in the transport position, said flap pivots under gravity and contacts said second brush, and wherein when said planter row unit is in the working position, said flap pivots under gravity away from said second brush, the arrangement configured such that said flap, said first brush, and said second brush cooperate with said seed disc to prevent seeds from said seed pool area passing through an exit in said seed meter when said planter row unit is in said transport position and that when said planter row unit is in the working position, seeds are allowed to fall vertically from an upper portion of the meter and pass between the brushes back to the seed pool area.
Laminated board of wood-plastic-composite material, comprising - at least one supportive board made of a wood-particle-plastic mixture, - arranged on one side, preferably on the upper side, of the supportive board, at least one layer made of at least one solvent-free release agent, - at least one decor applied by the direct printing process, and - at least one wear-protection layer arranged on the decor, where, provided between the at least one layer of release agent and the at least one decor, there is at least one basecoat layer, where the at least one basecoat layer is a layer made of a liquid synthetic resin with a solids content of the aqueous synthetic resin solution of from 30 to 80%, and at least one cover layer, where the at least one cover layer takes the form of a white ground. - at least one supportive board made of a wood-particle-plastic mixture, - arranged on one side, preferably on the upper side, of the supportive board, at least one layer made of at least one solvent-free release agent, - at least one decor applied by the direct printing process, and - at least one wear-protection layer arranged on the decor,
A system, having a mounting device and a gear unit with a shaft to which a first gear wheel is non-rotatably connected and to which a second gear wheel is non-rotatably connectable, the gear unit has two output shafts (9, 10) oriented parallel to each other which are externally toothed in each case on their axial end regions, wherein the mounting device has two toothed rings which are received in a receiving part, in particular plate part, wherein the relative orientation of each of the toothed rings towards the receiving part is established in a form-fit, characterised in that a fixing means, in particular screw or pin, at least partially protrudes through a bore in the receiving part into a cutout, in particular groove, in the toothed ring, with the cutout in the toothed ring being arranged on the radially outer circumference of the toothed ring, with the bore being directed radially. the gear unit has two output shafts (9, 10) oriented parallel to each other which are externally toothed in each case on their axial end regions, wherein the mounting device has two toothed rings which are received in a receiving part, in particular plate part, wherein the relative orientation of each of the toothed rings towards the receiving part is established in a form-fit, characterised in that a fixing means, in particular screw or pin, at least partially protrudes through a bore in the receiving part into a cutout, in particular groove, in the toothed ring, with the cutout in the toothed ring being arranged on the radially outer circumference of the toothed ring, with the bore being directed radially.
Alkaline-earth metal or rare-earth metal aluminate precursor compound of formula or a(M 1 O).b(MgO).c(Al 2 O 3) a(M 2 O 1.5).b(MgO).c(Al 2 O 3) in which M 1 denotes barium, strontium or calcium and M 2 denotes cerium and terbium in combination and a, b and c are integer or non-integer numbers which satisfy the relationships 0.25 ≤ a ≤ 4; 0 ≤ b ≤ 2 und 0.5 ≤ c ≤ 9; crystallized essentially in the form of a transition alumina, leading after calcination to an alkaline-earth metal or rare-earth metal aluminate, characterized in that it is in the form of substantially spherical and chemically homogeneous particles in which the constituent elements are bonded together via bonds of chemical type, having a mean diameter of between 1.5 μm and 20 μm and comprising pores whose mean diameter is between 10 nm and 200 nm, the porosity being measured via the known techniques with nitrogen and with mercury.
An RF tag to which power is wirelessly fed from a reader/writer, comprising: a rectification circuit that rectifies an AC signal supplied from an antenna and outputs a DC voltage (VOUT) supplied to each unit inside the RF tag as a power supply voltage; a limiter that limits the output voltage of the rectification circuit to a predetermined voltage or less; a matching circuit, of which an impedance is changeable, disposed between the antenna and the rectification circuit; a variable load unit, of which an amount of power consumption is changeable, consuming power output from the rectification circuit; and a control unit that is capable of executing an impedance adjusting process of adjusting the impedance of the matching circuit such that the output voltage of the rectification circuit increases, the RF tag being characterized in that, when a predetermined condition is satisfied the output voltage of the rectification circuit is reduced to a voltage (Vref) less than the predetermined voltage (Vlim) by adjusting the amount of power consumption of the variable load unit, followed by the execution of the impedance adjusting process. a rectification circuit that rectifies an AC signal supplied from an antenna and outputs a DC voltage (VOUT) supplied to each unit inside the RF tag as a power supply voltage; a limiter that limits the output voltage of the rectification circuit to a predetermined voltage or less; a matching circuit, of which an impedance is changeable, disposed between the antenna and the rectification circuit; a variable load unit, of which an amount of power consumption is changeable, consuming power output from the rectification circuit; and a control unit that is capable of executing an impedance adjusting process of adjusting the impedance of the matching circuit such that the output voltage of the rectification circuit increases, the RF tag being characterized in that, when a predetermined condition is satisfied the output voltage of the rectification circuit is reduced to a voltage (Vref) less than the predetermined voltage (Vlim) by adjusting the amount of power consumption of the variable load unit, followed by the execution of the impedance adjusting process.
A provisional modular supporting structure for supporting a section of railway track while work is in progress below the tracks; comprising a plurality of crossbeams supported in respective sockets distributed along the web of bracing rails (16, 161, 162) characterised in that the modular supporting structure comprises at least one adjusting assembly configured so that it can be disassembled from the bracing rails (16, 161, 162), which assembly comprises a first adjustable rod cylinder disposed crosswise to the bracing rails (161, 162), a second adjustable rod cylinder and a third adjustable rod cylinder to adjust the height of the modular supporting structure to the plane of the running surface in the working position of the modular supporting structure.
A node in a wireless communication network, the node comprising at least two antenna columns (2, 3) which are physically separated from each other, each antenna column (2, 3) comprising at least one dual polarized antenna element (4a, 4b, 4c, 4d; 5a, 5b, 5c, 5d), each antenna element (4a, 4b, 4c, 4d; 5a, 5b, 5c, 5d) having a first polarization and a second polarization, the first polarization and second polarization being mutually orthogonal, such that each antenna column (2, 3) comprises a first antenna port (6, 7), associated with the first polarization, and a second antenna port (8, 9), associated with the second polarization, characterized in that the node further comprises at least two four-port power dividers/combiners (10, 11), each power divider/combiner (10, 11) having a first port pair (12, 13) and a second port pair (14, 15), where, for each power divider/combiner (10, 11), power input into any port in a port pair is isolated from the other port in said port pair, but divided between the ports in the other port pair, where antenna ports (6, 7; 8, 9) of antenna columns (2, 3) that are pair-wise physically separated, from those pairs of antenna columns with antenna columns that are most physically separated to those pairs of antenna columns with antenna columns that are least physically separated, in a falling order, are cross-wise connected to the first port pair (12, 13) in corresponding power dividers/combiners (10, 11), such that each first port pair (12, 13) is associated with orthogonal polarizations (P1, P2) of different antenna columns (2, 3), where furthermore, for at least one power divider/combiner, the ports in the second port pair are connected to a corresponding second phase altering device and third phase altering device, the phase altering devices (17, 18) that are connected to a certain power divider/combiner constituting a set of phase altering devices, and where one port (14a, 15a) in each second port pair (14, 15) is connected to a first power dividing/combining network and the other port (14b, 15b) in each second port pair (14, 15) is connected to a second power dividing/combining network, each power dividing/combining network (31, 32) having a respective main input/output port (33, 34).
Actuator apparatus which comprises - an electric-motor actuating drive, - a first output shaft and a second output shaft, - at least one actuating element which is coupled to the first output shaft and/or to the second output shaft and is configured for coupling to a transmission member, and which, in interaction with the transmission member, converts a rotational movement of the first output shaft and/or the second output shaft into a linear movement of the transmission member, and - a differential gear which is coupled on the input side to the electric-motor actuating drive and which comprises the first output shaft and the second output shaft, and which is configured for transmitting and for dividing an input-side torque to the first output shaft and the second output shaft, characterized in that the first output shaft and/or the second output shaft comprise/comprises in each case one spindle. - an electric-motor actuating drive, - a first output shaft and a second output shaft, - at least one actuating element which is coupled to the first output shaft and/or to the second output shaft and is configured for coupling to a transmission member, and which, in interaction with the transmission member, converts a rotational movement of the first output shaft and/or the second output shaft into a linear movement of the transmission member, and - a differential gear which is coupled on the input side to the electric-motor actuating drive and which comprises the first output shaft and the second output shaft, and which is configured for transmitting and for dividing an input-side torque to the first output shaft and the second output shaft,
A battery tester comprising two tester cables attached to a housing of said battery tester, said battery tester being configured to electrically connect by said two tester cables to terminals of a battery to be tested, said battery tester comprising a computing device and a screen, the computing device being configured to display on the screen a user interface for battery testing allowing for one-handed interaction with the user interface, wherein the user interface is vertically oriented, i.e. portrait orientation, and the battery tester is sized to be held one-handed; the user interface comprising a series of interfaces: - a first interface comprising a plurality of icons, each of the plurality of icons corresponding to a test condition or a tester functionality, wherein one of the plurality of icons corresponds to a test condition to begin a test; - a testing interface comprising a number of instructions, the testing interface configured to dynamically update based on the completion of one or more testing steps, and wherein selection of the one of the plurality of icons in the first interface corresponding to the test condition displays the testing interface; and - a results interface (131, 135, 141, 144), having a three-stage top navigation and health summary, the three-stage top navigation for reporting battery health metrics, wherein completion of one or more tests displays the results interface (131, 135, 141, 144), and wherein the three-stage top navigation provides along a top of the results interface (131, 135, 141, 144) three icons for allowing a user to navigate between results options and obtain an overview of the battery health metrics. - a first interface comprising a plurality of icons, each of the plurality of icons corresponding to a test condition or a tester functionality, wherein one of the plurality of icons corresponds to a test condition to begin a test; - a testing interface comprising a number of instructions, the testing interface configured to dynamically update based on the completion of one or more testing steps, and wherein selection of the one of the plurality of icons in the first interface corresponding to the test condition displays the testing interface; and - a results interface (131, 135, 141, 144), having a three-stage top navigation and health summary, the three-stage top navigation for reporting battery health metrics, wherein completion of one or more tests displays the results interface (131, 135, 141, 144), and wherein the three-stage top navigation provides along a top of the results interface (131, 135, 141, 144) three icons for allowing a user to navigate between results options and obtain an overview of the battery health metrics.
A method performed by a computing device, the method comprising: receiving a request from a software application (218, 608, 610) to determine whether a license is valid for the software application; generating a command that is sent to a trusted platform module, TPM, (104, 220) responsive to the request, the command specifying an identifier of the software application and including a license file corresponding to the license, the license file being specific to the software application and being generated for the software application based on application information, wherein the license file is signed using a key generated by the TPM based on a hash of the license file; retrieving the key by the TPM based on a mapping for the identifier of the software application in a mapping data structure subsequent to receiving the command; validating the license at the TPM using a secure register of the TPM based on the key and the license file, wherein validating the license comprises utilizing the retrieved key to validate the signature of the license file; and providing by the TPM a validation indication response to the command. receiving a request from a software application (218, 608, 610) to determine whether a license is valid for the software application; generating a command that is sent to a trusted platform module, TPM, (104, 220) responsive to the request, the command specifying an identifier of the software application and including a license file corresponding to the license, the license file being specific to the software application and being generated for the software application based on application information, wherein the license file is signed using a key generated by the TPM based on a hash of the license file; retrieving the key by the TPM based on a mapping for the identifier of the software application in a mapping data structure subsequent to receiving the command; validating the license at the TPM using a secure register of the TPM based on the key and the license file, wherein validating the license comprises utilizing the retrieved key to validate the signature of the license file; and providing by the TPM a validation indication response to the command.
An autonomous driving mobile service robot warehousing and delivery system comprising: a plurality of line parts; robot bodies disposed on each line part and manually driven by a user's control or autonomously driven by control modules; the control modules disposed on the corresponding robot bodies to provide position information of the robot bodies, receive warehousing and delivery information of the robot bodies from a server, and control driving of the robot bodies in response to the received information to store the robot bodies in the line parts or deliver the robot bodies from the line parts; the server configured to calculate information of the number of robot bodies required according to the user's registration and usage information, transmit delivery information to the control modules, transmit warehousing information to the control modules according to the user's return request of the delivered robot bodies, and receive information of the number of delivery times from counting parts, characterized in that the server is further configured to compare the number of delivery times by line part counted by the counting parts, and transmit the compared results to the control modules to allow the robot bodies to be delivered sequentially from the line part having the smallest number of delivery times; and the counting parts are configured to count the number of delivery times of the robot bodies from the respective line parts to transmit the information of the number of delivery times to the server. a plurality of line parts; robot bodies disposed on each line part and manually driven by a user's control or autonomously driven by control modules; the control modules disposed on the corresponding robot bodies to provide position information of the robot bodies, receive warehousing and delivery information of the robot bodies from a server, and control driving of the robot bodies in response to the received information to store the robot bodies in the line parts or deliver the robot bodies from the line parts; the server configured to calculate information of the number of robot bodies required according to the user's registration and usage information, transmit delivery information to the control modules, transmit warehousing information to the control modules according to the user's return request of the delivered robot bodies, and receive information of the number of delivery times from counting parts, characterized in that the server is further configured to compare the number of delivery times by line part counted by the counting parts, and transmit the compared results to the control modules to allow the robot bodies to be delivered sequentially from the line part having the smallest number of delivery times; and the counting parts are configured to count the number of delivery times of the robot bodies from the respective line parts to transmit the information of the number of delivery times to the server.
Seismic shaker for exerting an excitation force on the ground, comprising: - a base plate for placement on the ground through which the excitation force is exerted on the ground, - a reaction mass, - a resilient construction through which the reaction mass is connected to the base plate, - an actuator parallel to the resilient construction and through which the reaction mass is connected to the base plate, - a controller unit which is connected to and is configured to control the actuator, - a sensor: configured to measure a parameter of the motion of the reaction mass relative to the base plate and connected to the controller unit, - a first comparison unit which is present between the controller unit and the sensor, and is configured to send a difference signal that is equal to the difference between the measured value of the parameter, and a value of the parameter set in the first comparison unit, - a control unit which is present between the first comparison unit and the controller unit, and that; is configured to as a function of the difference signal compute a correction value, and - a second comparison unit which is present between the control unit and the controller unit, and is configured to send out a sum signal which is equal to the sum of the correction value and a desired value of the excitation force to be exerted set in the second comparison unit, wherein the sensor is a displacement sensor and the parameter is the displacement of the reaction mass. - a base plate for placement on the ground through which the excitation force is exerted on the ground, - a reaction mass, - a resilient construction through which the reaction mass is connected to the base plate, - an actuator parallel to the resilient construction and through which the reaction mass is connected to the base plate, - a controller unit which is connected to and is configured to control the actuator, - a sensor: configured to measure a parameter of the motion of the reaction mass relative to the base plate and connected to the controller unit, - a first comparison unit which is present between the controller unit and the sensor, and is configured to send a difference signal that is equal to the difference between the measured value of the parameter, and a value of the parameter set in the first comparison unit, - a control unit which is present between the first comparison unit and the controller unit, and that; is configured to as a function of the difference signal compute a correction value, and - a second comparison unit which is present between the control unit and the controller unit, and is configured to send out a sum signal which is equal to the sum of the correction value and a desired value of the excitation force to be exerted set in the second comparison unit, wherein the sensor is a displacement sensor and the parameter is the displacement of the reaction mass.