mhurhangee/ep-ind-claims huggingface dataset:
Milling machine for working ground surfaces, comprising - a milling device mounted at a machine frame transverse to the direction of travel, - at least one first conveying device arranged at the machine frame which accepts the milled-off material from the milling device, - at least one second conveying device pivotable, relative to the machine frame and/or the first conveying device, about a horizontal pivoting axis in a predetermined inclination angle range, and laterally about a pivoting axis extending in vertical direction, wherein - the first conveying device transfers the milled-off material onto the second conveying device, - a transfer element with a first transfer opening essentially coaxial to the vertical pivoting axis and open towards the bottom is provided at the first conveying device, and a reception element with a reception opening open towards the top is arranged at the second conveying device, wherein a lid element covering at least the major part of the reception opening is arranged at the reception element, said lid element comprising a passage opening which connects the transfer opening with the reception opening, characterized in that the reception element is pivotable, relative to the lid element, about the horizontal pivoting axis. - a milling device mounted at a machine frame transverse to the direction of travel, - at least one first conveying device arranged at the machine frame which accepts the milled-off material from the milling device, - at least one second conveying device pivotable, relative to the machine frame and/or the first conveying device, about a horizontal pivoting axis in a predetermined inclination angle range, and laterally about a pivoting axis extending in vertical direction, wherein - the first conveying device transfers the milled-off material onto the second conveying device, - a transfer element with a first transfer opening essentially coaxial to the vertical pivoting axis and open towards the bottom is provided at the first conveying device, and a reception element with a reception opening open towards the top is arranged at the second conveying device,
A laundry treatment machine comprising: a wash tub including an outer tub in which wash water is poured and an inner tub which is rotatably provided inside the outer tub and in which laundry may be accommodated; a pulsator rotatably provided inside the inner tub; a motor to rotate at least one of the inner tub and the pulsator; at least one clutch to selectively transmit torque of the motor to at least one of the inner tub and the pulsator; a clutch drive unit to control driving of the clutch; and a controller to control the motor to repeat rotation and braking in a first direction a first number of times during a first time period after a position of the clutch is selected, wherein the controller controls the motor to repeat rotation and braking in a second direction a second number of times during the first time period, subsequent to the rotation in the first direction after the position of the clutch is selected, wherein a magnitude of a rotational speed is successively reduced when the motor is rotated and braked in the first direction during the first time period, and a magnitude of a rotational speed is successively reduced when the motor is rotated and braked in the second direction during the first time period, wherein during the first time period the controller controls the motor to rotate at a first speed (Wa) in the first direction, stop, rotate at a second speed (Wb) in the first direction, stop, rotate at a third speed (Wc) in the first direction, stop, rotate at the first speed (Wa) in the second direction, stop, rotate at the second speed (Wb) in the second direction, stop, rotate at the third speed (Wc) in the second direction, and stop, and wherein the magnitude of the rotational speed is in the order of the first speed (Wa)> the second speed (Wb)> the third speed (Wc). a wash tub including an outer tub in which wash water is poured and an inner tub which is rotatably provided inside the outer tub and in which laundry may be accommodated; a pulsator rotatably provided inside the inner tub; a motor to rotate at least one of the inner tub and the pulsator; at least one clutch to selectively transmit torque of the motor to at least one of the inner tub and the pulsator; a clutch drive unit to control driving of the clutch; and a controller to control the motor to repeat rotation and braking in a first direction a first number of times during a first time period after a position of the clutch is selected,
An agent for local application exhibiting a biocidal effect, comprising a peptide H 2 N-His-Gly-Val-Ser-Gly-His-Gly-Gin-His-Gly-Val-His-Gly-COOH and excipients, wherein said agent additionally comprises a peptide H 2 N- (CH 2) 10 -CO-Ile-Leu-Pro-D-Phe-Lys-D-Phe-Pro-D-Phe-D-Phe-Pro-D-Phe -Arg-Arg-NH 2, wherein the ratio between said peptides is from 1:2 to 2:1 (wt. %)
A position encoder readhead for reading a series of position features (8, 10) on a scale to determine the relative position between itself and the scale, in which the readhead is configured to read position features on a scale via a snapshot capture process that is automatically adaptable so as to change at least one of i) the readhead's feature capture duration and ii) the duration that electromagnetic radiation ("EMR") is emitted by at least one electromagnetic radiation ("EMR") source during the snapshot capture process, dependent on the actual measured relative speed between the scale and readhead based on readings obtained by the readhead.
A hardware unit for manipulating data stored in a memory, the hardware unit comprising: an internal buffer; a memory reading block, configured to read the data from the memory and write the data to the internal buffer; and a memory writing block, configured to read the data from the internal buffer and write the data to the memory, wherein the data comprises a multidimensional array comprising a plurality of data elements, wherein at least one of the memory reading block and the memory writing block is configured to traverse the multidimensional array using a plurality of nested loops, each loop having associated with it a corresponding stride between data elements of the multidimensional array, characterised in that the hardware unit further comprises a control channel between the memory reading block and the memory writing block, wherein the memory reading block and the memory writing block are configured to communicate via the control channel to maintain synchronisation between them when writing the data to the internal buffer and reading the data from the internal buffer, respectively, and wherein at least one loop of the plurality of nested loops is configured to iterate a different number of times depending on a loop index of at least one other loop of the plurality of nested loops. an internal buffer; a memory reading block, configured to read the data from the memory and write the data to the internal buffer; and a memory writing block, configured to read the data from the internal buffer and write the data to the memory, wherein the data comprises a multidimensional array comprising a plurality of data elements, wherein at least one of the memory reading block and the memory writing block is configured to traverse the multidimensional array using a plurality of nested loops, each loop having associated with it a corresponding stride between data elements of the multidimensional array,
A communication method, comprising: receiving quasi co-location, QCL, information carried in higher layer signaling and receiving indication information carried in downlink control information, DCI,, wherein the indication information is used to indicate a total quantity N of layers of downlink data and N demodulation reference signal, DMRS, antenna ports, and the QCL information indicates a QCL type, or, a quantity of QCL relationships that the N DMRS antenna ports satisfy, wherein N is a positive integer; and determining, based on the received QCL information and the received indication information, the total quantity N of layers of downlink data and a DMRS antenna port occupied by the downlink data. receiving quasi co-location, QCL, information carried in higher layer signaling and receiving indication information carried in downlink control information, DCI,, wherein the indication information is used to indicate a total quantity N of layers of downlink data and N demodulation reference signal, DMRS, antenna ports, and the QCL information indicates a QCL type, or, a quantity of QCL relationships that the N DMRS antenna ports satisfy, wherein N is a positive integer; and determining, based on the received QCL information and the received indication information, the total quantity N of layers of downlink data and a DMRS antenna port occupied by the downlink data.
A hinge assembly (110, 120) for a shower door panel having a front face, a rear face and a side edge between the front and rear faces, the door hinge assembly (110; 120) comprising: a first hinge portion (112; 122) arranged, in use, to be attached to the side edge of the shower door panel, wherein the first hinge portion has a pin (116; 126) protruding vertically therefrom, and a second hinge portion (114; 124) arranged, in use, to be attached to a support and to cooperate with the first hinge portion (112; 122) so that the shower door panel can hinge between an open position and a closed position about an axis of rotation, wherein the second hinge portion (114; 124) has a vertical socket arranged, in use, to receive the pin (116; 126), wherein the socket has a lateral opening to receive the pin (116; 126), and a retainer member arranged, in use, to cover the opening to retain the pin in the socket, and wherein the socket is shaped to allow rotation of the pin within the socket, the first (112; 122) and second (114; 124) hinge portions being arranged, in use, such that the axis of rotation is adjacent to the side edge of the shower door panel and substantially between the front and rear faces of the shower door panel. a first hinge portion (112; 122) arranged, in use, to be attached to the side edge of the shower door panel, wherein the first hinge portion has a pin (116; 126) protruding vertically therefrom, and a second hinge portion (114; 124) arranged, in use, to be attached to a support and to cooperate with the first hinge portion (112; 122) so that the shower door panel can hinge between an open position and a closed position about an axis of rotation, wherein the second hinge portion (114; 124) has a vertical socket arranged, in use, to receive the pin (116; 126), wherein the socket has a lateral opening to receive the pin (116; 126), and a retainer member arranged, in use, to cover the opening to retain the pin in the socket, and wherein the socket is shaped to allow rotation of the pin within the socket, the first (112; 122) and second (114; 124) hinge portions being arranged, in use, such that the axis of rotation is adjacent to the side edge of the shower door panel and substantially between the front and rear faces of the shower door panel.
An organic material for an organic light emitting diode (OLED) display, comprising an anthracene derivative of which at least one constituent is substituted with deuterium, characterised in that the anthracene derivative is selected from compounds represented by Formula 2 to Formula 14:
Control device (10, 20, 30) for a building comprising an electrical component (13, 23, 33), characterized in that the electrical component is at least partially covered by a transparent plate (16, 26, 36), this plate being smooth on its outer face (16a, 26a, 36a) and comprising a repetition of a periodic relief (16b, 26b, 36b) on its inner face that makes it possible to give the non-metallic outer face a lustre of metallic type, in that the relief is of pyramidal or conical type, in that the angle of the faces of the pyramids or of the generatrices of the cones with the main plane of the transparent plate is greater than the critical angle of refraction between the material of the plate and the air, in that the electrical component is an electronic circuit and in that the electronic circuit comprises at least one sensor of capacitive type and/or at least one radio frequency transmitter.
A fuel cell having a housing, a substrate in the housing for containing electrolyte and having a working electrode and a counter electrode formed on respective opposed surfaces; and a current collector for each electrode characterised in that at least one current collector is non-conformably depressed into its associated electrode to define a channel for containing electrolyte whereby charge can be transferred to the current collector by ionic conduction and wherein the current collectors are made of at least 95% pure tantalum.
Control valve assembly for adjusting at least two fluid flows, in particular of at least two cooling liquid flows, in a line system, in particular of a motor vehicle, such as an electrically driven motor vehicle, comprising: - at least two rotary valves for blocking and releasing at least one flow path each; - a drive for controlling the at least two rotary valves; - at least one coupling having an engaged position, in which the drive is force-transmittingly coupled to one of the at least two rotary valves, and a disengaged position, in which the drive is decoupled from the one of the at least two rotary valves, wherein the drive has a drive pulley characterized in that the at least two rotary valves are assigned a respective driven pulley extending along the outer contour of the rotary valves, via which the drive controls the at least two rotary valves. - at least two rotary valves for blocking and releasing at least one flow path each; - a drive for controlling the at least two rotary valves; - at least one coupling having an engaged position, in which the drive is force-transmittingly coupled to one of the at least two rotary valves, and a disengaged position, in which the drive is decoupled from the one of the at least two rotary valves, wherein the drive has a drive pulley characterized in that the at least two rotary valves are assigned a respective driven pulley extending along the outer contour of the rotary valves, via which the drive controls the at least two rotary valves. the drive has a drive pulley characterized in that the at least two rotary valves are assigned a respective driven pulley extending along the outer contour of the rotary valves, via which the drive controls the at least two rotary valves.
A method for device to device, D2D, communication by a terminal, the method comprising: obtaining, from a radio link control, RLC, layer, first data for transmission via a D2D dedicated logical channel (421, 431, 441, 451); obtaining, from the RLC layer, second data for transmission via a logical channel for a cellular network (401, 411) communication; buffering, to a first buffer, information received for transmission via any D2D dedicated logical channel; buffering, to a second buffer, information received for transmission via any logical channel for the cellular network communication; triggering a buffer status report, BSR; calculating first buffer size information per logical channel group based on the first data which is buffered in the first buffer; calculating second buffer size information per logical channel group based on the second data which is buffered in the second buffer; generating a first medium access control, MAC, control element, CE, for a BSR of the D2D communication based on the first buffer size information per logical channel group; and generating a second MAC CE for a BSR of the cellular network communication based on the second buffer sizeinformation per logical channel group; wherein each logical channel group is formed by grouping logical channels based on priorities of the logical channels and logical channel configuration information, wherein the method further comprises in case that a resource for transmission is not enough to allocate the first MAC CE and the second MAC CE simultaneously, selecting and transmitting the second MAC CE with a priority. obtaining, from a radio link control, RLC, layer, first data for transmission via a D2D dedicated logical channel (421, 431, 441, 451); obtaining, from the RLC layer, second data for transmission via a logical channel for a cellular network (401, 411) communication; buffering, to a first buffer, information received for transmission via any D2D dedicated logical channel; buffering, to a second buffer, information received for transmission via any logical channel for the cellular network communication; triggering a buffer status report, BSR; calculating first buffer size information per logical channel group based on the first data which is buffered in the first buffer; calculating second buffer size information per logical channel group based on the second data which is buffered in the second buffer; generating a first medium access control, MAC, control element, CE, for a BSR of the D2D communication based on the first buffer size information per logical channel group; and generating a second MAC CE for a BSR of the cellular network communication based on the second buffer sizeinformation per logical channel group; wherein each logical channel group is formed by grouping logical channels based on priorities of the logical channels and logical channel configuration information, wherein the method further comprises in case that a resource for transmission is not enough to allocate the first MAC CE and the second MAC CE simultaneously, selecting and transmitting the second MAC CE with a priority.
A method for mapping geologic data performed with one or more computing systems, the method comprising: receiving, through a user interface, a selection of a template describing a theoretical geologic depositional profile representing an arrangement of a plurality of theoretical geologic facies; receiving, through the user interface, a plurality of paleo-elevations or paleo-depths relative to sea level of an actual facies in an actual geologic depositional profile, the plurality of paleo-elevations or paleo-depths relative to sea level of the actual facies determined by logging a wellbore formed through the actual facies in the actual geological depositional profile; determining a plurality of theoretical paleo-elevations or paleo-depths relative to sea level for the theoretical geologic facies in the theoretical geologic profile that corresponds to the actual facies in the actual geologic depositional profile; mapping, via a deterministic simulation algorithm based on Walther's Law, the received plurality of paleo-elevations or paleo-depths to the plurality of theoretical paleo-elevations or paleo-depths by interpolating and/or extrapolating the theoretical geologic deposition profile based on the received plurality of paleo-elevations or paleo-depths, wherein the mapping directly simulates a facies succession as a paleo-environmental or paleo-elevation ramp; generating a graphical map representing the actual geologic depositional profile based on the mapping; and displaying the generated graphical map in the user interface. receiving, through a user interface, a selection of a template describing a theoretical geologic depositional profile representing an arrangement of a plurality of theoretical geologic facies; receiving, through the user interface, a plurality of paleo-elevations or paleo-depths relative to sea level of an actual facies in an actual geologic depositional profile, the plurality of paleo-elevations or paleo-depths relative to sea level of the actual facies determined by logging a wellbore formed through the actual facies in the actual geological depositional profile; determining a plurality of theoretical paleo-elevations or paleo-depths relative to sea level for the theoretical geologic facies in the theoretical geologic profile that corresponds to the actual facies in the actual geologic depositional profile; mapping, via a deterministic simulation algorithm based on Walther's Law, the received plurality of paleo-elevations or paleo-depths to the plurality of theoretical paleo-elevations or paleo-depths by interpolating and/or extrapolating the theoretical geologic deposition profile based on the received plurality of paleo-elevations or paleo-depths, wherein the mapping directly simulates a facies succession as a paleo-environmental or paleo-elevation ramp; generating a graphical map representing the actual geologic depositional profile based on the mapping; and displaying the generated graphical map in the user interface. generating a graphical map representing the actual geologic depositional profile based on the mapping; and displaying the generated graphical map in the user interface.
A method of operating a network infrastructure equipment in a wireless telecommunications system to support a first random access procedure for a first terminal device and a second random access procedure for a second terminal device, wherein an amount of data for an uplink message of the second random access procedure is greater than an amount of data for a corresponding uplink message of the first random access procedure, and wherein the method comprises: establishing a first common search space for use with the first random access procedure; establishing a second common search space for use with the second random access procedure; exchanging a first series of random access procedure messages with the first terminal device, wherein a first scheduling message indicating radio resources for at least one of the first series of random access procedure messages is transmitted by the network infrastructure equipment to the first terminal device using radio resources in the first common search space, and exchanging a second series of random access procedure messages with the second terminal device, wherein a second scheduling message indicating radio resources for at least one of the second series of random access procedure messages is transmitted by the network infrastructure equipment to the second terminal device using radio resources in the second common search space. establishing a first common search space for use with the first random access procedure; establishing a second common search space for use with the second random access procedure; exchanging a first series of random access procedure messages with the first terminal device, wherein a first scheduling message indicating radio resources for at least one of the first series of random access procedure messages is transmitted by the network infrastructure equipment to the first terminal device using radio resources in the first common search space, and exchanging a second series of random access procedure messages with the second terminal device, wherein a second scheduling message indicating radio resources for at least one of the second series of random access procedure messages is transmitted by the network infrastructure equipment to the second terminal device using radio resources in the second common search space.