mhurhangee/ep-ind-claims huggingface dataset:
An electromagnetic induction type absolute position measuring encoder having two or more tracks, the encoder comprising: two or more rows of scale coils (14-1, 14-2), each row including a plurality of scale coils arranged on a scale in a measuring direction so as to have a scale pitch (λ1, λ2) different from that of another row; and a transmitter coil (24-1, 24-2) and a receiver coil (20-1, 20-2) provided on a grid moveable relative to the scale in the measuring direction so as to face the scale coils (14-1, 14-2), so that the encoder can measure an absolute position of the grid with respect to the scale on the basis of a flux change detected at the receiver coil (20-1, 20-2) via the scale coil (14-1, 14-2) when the transmitter coil (24-1, 24-2) is excited, characterized in that each scale coil (14-1, 14-2) of at least one row comprises a scale coil main body (14-1a, 14-2a) and at least one additional coil line (14-1b, 14-1c, 14-2b, 14-2c) extending on at least one side of the scale coil main body (14-1a, 14-2a) beyond the scale coil main body (14-1a, 14-2a) in the measuring direction. two or more rows of scale coils (14-1, 14-2), each row including a plurality of scale coils arranged on a scale in a measuring direction so as to have a scale pitch (λ1, λ2) different from that of another row; and a transmitter coil (24-1, 24-2) and a receiver coil (20-1, 20-2) provided on a grid moveable relative to the scale in the measuring direction so as to face the scale coils (14-1, 14-2), so that the encoder can measure an absolute position of the grid with respect to the scale on the basis of a flux change detected at the receiver coil (20-1, 20-2) via the scale coil (14-1, 14-2) when the transmitter coil (24-1, 24-2) is excited, characterized in that each scale coil (14-1, 14-2) of at least one row comprises a scale coil main body (14-1a, 14-2a) and at least one additional coil line (14-1b, 14-1c, 14-2b, 14-2c) extending on at least one side of the scale coil main body (14-1a, 14-2a) beyond the scale coil main body (14-1a, 14-2a) in the measuring direction.
Foldable platform truck, comprising: - at least one bearing surface supported by at least three wheels (4, 5); - a foldable operating bracket that on one side is rotatable attached to the at least one bearing surface and on the opposite free side has a gripping handle; - a lock for securing the operating bracket in at least one unfolded operating locking position; and - a control for controlling the operating bracket lock; characterized in that the operating bracket is also provided with a brake that is contacting at least one of the wheels when the operating bracket is moved from an unfolded operating position to a farther opened position. - at least one bearing surface supported by at least three wheels (4, 5); - a foldable operating bracket that on one side is rotatable attached to the at least one bearing surface and on the opposite free side has a gripping handle; - a lock for securing the operating bracket in at least one unfolded operating locking position; and - a control for controlling the operating bracket lock;
Method for assisting the piloting of an aircraft equipped with a powerplant that comprises at least one engine and with a main rotor that assists at least partially with the lift and/or propulsion of the aircraft, said aircraft being a rotorcraft, each engine being controlled by a control means on the basis of a set point, the powerplant being monitored by determining a value of a plurality of predetermined monitoring parameters (Ng, T4, Q, C), said method including the following steps for at least one operating speed of said at least one engine: - determining a power margin, referred to as "limiting power margin (ΔWlim)", of said powerplant relative to a power limit at said operating speed; - converting the limiting power margin (ΔWlim) into a collective pitch margin (Δθ) for said operating speed, the collective pitch margin (Δθ) being a margin between a current collective pitch ( θ n) of blades of said main rotor and a collective pitch limit ( θ limit) of said blades; - determining said collective pitch limit ( θ limit) and displaying said collective pitch limit ( θ limit), characterized in that said conversion of the limiting power margin (ΔWlim) into a collective pitch margin (Δθ) is carried out by applying an algorithm, said algorithm reducing said collective pitch margin (Δθ) relative to an actual collective pitch margin which is proportional to the limiting power margin (ΔWlim) when the power margin is not zero in order to predict said set point induced by said control means being exceeded, said collective pitch margin (Δθ) being zero when the limiting power margin (ΔWlim) is zero. - determining a power margin, referred to as "limiting power margin (ΔWlim)", of said powerplant relative to a power limit at said operating speed; - converting the limiting power margin (ΔWlim) into a collective pitch margin (Δθ) for said operating speed, the collective pitch margin (Δθ) being a margin between a current collective pitch ( θ n) of blades of said main rotor and a collective pitch limit ( θ limit) of said blades; - determining said collective pitch limit ( θ limit) and displaying said collective pitch limit ( θ limit),
A method for handling hybrid automatic repeat request ('HARQ') operations at a user equipment in a wireless communications network during transmission mode changes, the method comprising: detecting a transmission mode change (212, 312, 412, 512, 812), the transmission mode defining at least a maximum number of transport blocks per transmission opportunity; and manipulating an HARQ process buffer based on the detecting; wherein the HARQ process buffer is an uplink HARQ process buffer; and wherein an eNB provides uplink grants only for a maximum of a first number of transport blocks per uplink HARQ process prior to, during or both prior to and during an uplink transmission mode reconfiguration in which the maximum number of transport blocks per transmission opportunity is reduced from a second number of transport blocks to the first number of transport blocks, the second number of transport blocks being greater than the first number of transport blocks. detecting a transmission mode change (212, 312, 412, 512, 812), the transmission mode defining at least a maximum number of transport blocks per transmission opportunity; and manipulating an HARQ process buffer based on the detecting; wherein the HARQ process buffer is an uplink HARQ process buffer; and wherein an eNB provides uplink grants only for a maximum of a first number of transport blocks per uplink HARQ process prior to, during or both prior to and during an uplink transmission mode reconfiguration in which the maximum number of transport blocks per transmission opportunity is reduced from a second number of transport blocks to the first number of transport blocks, the second number of transport blocks being greater than the first number of transport blocks.
Screw spindle pump having a housing, a housing cover and at least one running spindle (17, 18) received in a bore (4, 5) in the housing, and a bushing (8, 9) which is arranged on the housing cover and which has a receiving space (32, 33) bounded by a cylindrical flange (19, 20) and in which one end (28, 29) of the running spindle (17, 18) engages, wherein the bottom of the bushing (8, 9) has an opening (37, 38) via which, from the side opposite the running spindle (17, 18), it is possible to supply a fluid, supplied via a cover-side supply duct, with pressure against the end face (30, 31) of the running spindle (17, 18), characterized in that the bushing (8, 9) with a radial flange (25, 26) engages with radial play in a recess (21, 22) in the cover, this recess being open towards the housing, and the radial flange (25, 26) is supported axially on the housing, and in that at least a portion of the cylindrical flange (19, 20) of the bushing (8, 9) engages in the bore (4, 5) and is received with play therein.
Spoked wheel for bicycle, comprising: - a rim having at least one spoke attachment chamber provided with a plurality of spoke attachment holes, - a plurality of spokes coupled with the rim at said spoke attachment holes, - a spoke attachment element partially inserted in said spoke attachment hole, wherein said spoke attachment element comprises a stem configured to be inserted in said spoke attachment hole and an enlarged head configured to abut against the rim, or against an insert in abutment against the rim, at said spoke attachment hole, wherein said wheel comprises at least one holding element defined in said rim or in said insert and configured to prevent the movement of said spoke attachment element along a radially outer direction, and wherein said enlarged head or said stem comprises a holding surface configured to operate in abutment against said at least one holding element, characterized in that said rim is made at least partially from composite material and in that said stem comprises a plurality of longitudinal ribs extending parallel to a longitudinal axis of the spoke attachment element and a plurality of longitudinal grooves each defined between two respective ribs, wherein said spoke attachment element does not project radially from the rim internally with respect to the rim or comprises a radially inner end portion that projects radially from the rim internally with respect to the rim by a length shorter than or equal to the diameter of the spoke at said spoke attachment hole. - a rim having at least one spoke attachment chamber provided with a plurality of spoke attachment holes, - a plurality of spokes coupled with the rim at said spoke attachment holes, - a spoke attachment element partially inserted in said spoke attachment hole, wherein said spoke attachment element comprises a stem configured to be inserted in said spoke attachment hole and an enlarged head configured to abut against the rim, or against an insert in abutment against the rim, at said spoke attachment hole, wherein said wheel comprises at least one holding element defined in said rim or in said insert and configured to prevent the movement of said spoke attachment element along a radially outer direction, and wherein said enlarged head or said stem comprises a holding surface configured to operate in abutment against said at least one holding element, characterized in that said rim is made at least partially from composite material and in that said stem comprises a plurality of longitudinal ribs extending parallel to a longitudinal axis of the spoke attachment element and a plurality of longitudinal grooves each defined between two respective ribs, wherein said spoke attachment element does not project radially from the rim internally with respect to the rim or comprises a radially inner end portion that projects radially from the rim internally with respect to the rim by a length shorter than or equal to the diameter of the spoke at said spoke attachment hole.
An information processing device, which is wirelessly connectable to a device configured to perform a certain process, comprising: wireless communication means configured to communicate with the device by a first connection method in which a connection is established to the device via a wireless router, which is an external wireless router and differs from the device, or by a second connection method in which a connection is established to the device not via the wireless router; determination means configured to determine whether the wireless communication means has already been wirelessly connected to the wireless router; selecting means configured to select the first connection method or the second connection method; and control means configured to perform control for causing the wireless communication means to establish a wireless connection to the device by the connection method selected by the selecting means, characterized in that the selecting means is configured not to select the second connection method, in a case where the determination means determines that the wireless communication means has already been wirelessly connected to the wireless router, and after the determination means determines that the wireless communication means has already been wirelessly connected to the wireless router and the selecting means selects the first connection method, the control means performs the control for causing the wireless communication means to establish the wireless connection to the device by the first connection method. wireless communication means configured to communicate with the device by a first connection method in which a connection is established to the device via a wireless router, which is an external wireless router and differs from the device, or by a second connection method in which a connection is established to the device not via the wireless router; determination means configured to determine whether the wireless communication means has already been wirelessly connected to the wireless router; selecting means configured to select the first connection method or the second connection method; and control means configured to perform control for causing the wireless communication means to establish a wireless connection to the device by the connection method selected by the selecting means, characterized in that the selecting means is configured not to select the second connection method, in a case where the determination means determines that the wireless communication means has already been wirelessly connected to the wireless router, and after the determination means determines that the wireless communication means has already been wirelessly connected to the wireless router and the selecting means selects the first connection method, the control means performs the control for causing the wireless communication means to establish the wireless connection to the device by the first connection method.
Dynamic transaction card (120, 200, 300) comprising: - a microcontroller (224, 324) within the dynamic transaction card (120,...); - data storage within the dynamic transaction card (120,...) storing optimal configurations; wherein: - the microcontroller (224, 324) is configured to: - monitor (604, 704) a plurality of hardware components of the dynamic transaction card (120,...) in order to determine functionality data and a plurality of software configurations used to derive configuration data; - transmit, via a network (110, 504), the functionality data and configuration data to a processor (212, 224, 312, 324) that utilizes machine learning to cluster functionality and/or configuration data to process (608, 708) the functionality data and configuration data with respect to a user group segment; - receive, via the network (110, 504), optimal configuration data from the processor (212,...), and - apply the optimal configurations to the dynamic transaction card (120,...). - a microcontroller (224, 324) within the dynamic transaction card (120,...); - data storage within the dynamic transaction card (120,...) storing optimal configurations; wherein: - the microcontroller (224, 324) is configured to: - monitor (604, 704) a plurality of hardware components of the dynamic transaction card (120,...) in order to determine functionality data and a plurality of software configurations used to derive configuration data; - transmit, via a network (110, 504), the functionality data and configuration data to a processor (212, 224, 312, 324) that utilizes machine learning to cluster functionality and/or configuration data to process (608, 708) the functionality data and configuration data with respect to a user group segment; - receive, via the network (110, 504), optimal configuration data from the processor (212,...), and - apply the optimal configurations to the dynamic transaction card (120,...). - monitor (604, 704) a plurality of hardware components of the dynamic transaction card (120,...) in order to determine functionality data and a plurality of software configurations used to derive configuration data; - transmit, via a network (110, 504), the functionality data and configuration data to a processor (212, 224, 312, 324) that utilizes machine learning to cluster functionality and/or configuration data to process (608, 708) the functionality data and configuration data with respect to a user group segment; - receive, via the network (110, 504), optimal configuration data from the processor (212,...), and - apply the optimal configurations to the dynamic transaction card (120,...).
A computer implemented method for differential traction drive and steering axis coordination for an autonomous device, comprising: initiating a steering motion based on a target autonomous device speed, and a steering rotational speed, characterized in that the method further comprises determining a left wheel starting speed based on the target autonomous device speed, a distance from a steering axle associated with the autonomous device to a center of the left traction wheel, and the steering rotational speed; determining a right wheel starting speed based on the target autonomous device speed, a distance from the steering axle to a center of the right traction wheel, and the steering rotational speed; and applying the left wheel starting speed and the right wheel starting speed. initiating a steering motion based on a target autonomous device speed, and a steering rotational speed, characterized in that the method further comprises determining a left wheel starting speed based on the target autonomous device speed, a distance from a steering axle associated with the autonomous device to a center of the left traction wheel, and the steering rotational speed; determining a right wheel starting speed based on the target autonomous device speed, a distance from the steering axle to a center of the right traction wheel, and the steering rotational speed; and applying the left wheel starting speed and the right wheel starting speed.
A floor surfacing machine comprising a frame that is carried by at least two wheels (3, 4) and comprises a handle arrangement allowing an operator to move the machine over a ground surface to be surfaced, where the floor surfacing machine further comprises a combustion engine and a tool holder disc adapted to be driven by the combustion engine, where the combustion engine comprises a motor axle that is rotatable about a first axis and is connected to a first pulley that is arranged to drive a first endless power transferring means that further is adapted to drive a second pulley that is rotatable about a second axis, where a first pulley axle is running along the second axis, where the second pulley further is connected to a third pulley that is mounted closer to the tool holder disc than the second pulley, and that is arranged to drive a second endless power transferring means that further is adapted to drive a fourth pulley that is connected to a second pulley axle that is rotatable about a third axis, where the second pulley axle is adapted to propel the tool holder disc, and where the first axis, the second axis and the third axis are all adapted to run mutually parallel such that there is a shortest first distance (r 1) between the first axis and the third axis, such that there is a shortest second distance (r 2) between the second axis and the third axis, and such that there is a shortest third distance (r 3) between the first axis and the second axis, where the first distance (r 1) falls below the third distance (r 3) and that the first endless power transferring means has a length that exceeds the length of the second endless power transferring means.
One or more computer-readable storage media comprising instructions stored thereon that, responsive to execution by a computing device comprising a memory, cause the computing device to perform operations comprising: receiving a request to capture an image of at least one portion of the memory; ascertaining whether to capture the image of the at least one portion of memory via an intermediate write to memory, or directly to storage without capturing the image via an intermediate write; in an event that the image of the at least one portion of memory is to be captured via an intermediate write to memory: allocating a buffer region in memory in which to store the image of the at least one portion of memory; temporarily pausing non-capture related computing activity without stopping and rebooting the computing device; writing an image of the at least one portion of memory to the allocated buffer region; and resuming allowing the non-capture related computing activity prior to writing the image of the at least one portion of memory from the allocated buffer region to storage; and in an event that the image of the at least one portion of memory is to be captured directly to storage, writing the image of the at least one portion of memory to storage media of the computing device. receiving a request to capture an image of at least one portion of the memory; ascertaining whether to capture the image of the at least one portion of memory via an intermediate write to memory, or directly to storage without capturing the image via an intermediate write; in an event that the image of the at least one portion of memory is to be captured via an intermediate write to memory: allocating a buffer region in memory in which to store the image of the at least one portion of memory; temporarily pausing non-capture related computing activity without stopping and rebooting the computing device; writing an image of the at least one portion of memory to the allocated buffer region; and resuming allowing the non-capture related computing activity prior to writing the image of the at least one portion of memory from the allocated buffer region to storage; and allocating a buffer region in memory in which to store the image of the at least one portion of memory; temporarily pausing non-capture related computing activity without stopping and rebooting the computing device; writing an image of the at least one portion of memory to the allocated buffer region; and resuming allowing the non-capture related computing activity prior to writing the image of the at least one portion of memory from the allocated buffer region to storage; and in an event that the image of the at least one portion of memory is to be captured directly to storage, writing the image of the at least one portion of memory to storage media of the computing device.