mhurhangee/ep-ind-claims huggingface dataset:
Electromechanical converter system for an electric vehicle, in particular a lightweight electric vehicle, comprising - a support housing (10, 10', 10") for connection to the vehicle, - an electromechanical energy converter that is arranged at least partially in the support housing (10, 10', 10") and comprises at least one stator (21, 21') and one rotor (22, 22') that can rotate about a drive axis (7, 40) with respect to the stator (21, 21'), and - a power transmission device, which connects the rotor (22, 22') to a connecting element, wherein - the support housing (10, 10', 10") has at least one first axial section and one second axial section, - the first section has a greater diameter than the second section in a direction transverse to the drive axis (7, 40), - the stator (21, 21') and the rotor (22, 22') are arranged at least partially in the first section of the support housing (10, 10', 10") and - the second section is designed to bear the rotor (22, 22') and/or the connecting element, wherein the first section of the support housing (10, 10', 10") has fastening means for connection to the electric vehicle and is arranged outside the wheel plane such that heat generated in the electromechanical energy converter is dissipated into the outside air and via the vehicle chassis, wherein the second section of the support housing (10, 10', 10") comprises a radial outer surface that is designed to bear the connecting element. - a support housing (10, 10', 10") for connection to the vehicle, - an electromechanical energy converter that is arranged at least partially in the support housing (10, 10', 10") and comprises at least one stator (21, 21') and one rotor (22, 22') that can rotate about a drive axis (7, 40) with respect to the stator (21, 21'), and - a power transmission device, which connects the rotor (22, 22') to a connecting element, wherein - the support housing (10, 10', 10") has at least one first axial section and one second axial section, - the first section has a greater diameter than the second section in a direction transverse to the drive axis (7, 40), - the stator (21, 21') and the rotor (22, 22') are arranged at least partially in the first section of the support housing (10, 10', 10") and - the second section is designed to bear the rotor (22, 22') and/or the connecting element,
A device for reducing fouling in a heat exchanger tube comprising: (a) an elongated displacement body configured to be inserted in the heat exchanger tube to reduce the flow cross-sectional area in a portion of the tube, wherein the displacement body is a hollow body having a closed shell, which defines the outer contours and shape of the displacement body and encloses an inner void space, and (b) a mount connected to the elongated displacement body for attaching the device to an end of the heat exchanger tube, the mount being configured to hold the displacement body, when inserted into the tube, in a spaced relationship to the inner surface of the tube, wherein the mount comprises a plurality of support members radially extending from the surface of the displacement body, the support members each having a recess at the side which is to face the heat exchanger tube the recesses being configured to mate with the wall of the heat exchanger tube. (a) an elongated displacement body configured to be inserted in the heat exchanger tube to reduce the flow cross-sectional area in a portion of the tube, wherein the displacement body is a hollow body having a closed shell, which defines the outer contours and shape of the displacement body and encloses an inner void space, and (b) a mount connected to the elongated displacement body for attaching the device to an end of the heat exchanger tube, the mount being configured to hold the displacement body, when inserted into the tube, in a spaced relationship to the inner surface of the tube, wherein the mount comprises a plurality of support members radially extending from the surface of the displacement body, the support members each having a recess at the side which is to face the heat exchanger tube the recesses being configured to mate with the wall of the heat exchanger tube.
Wind turbine comprising a hub connected to a rotatable shaft extending in an axial direction and at least one bearing supporting the shaft against a housing, wherein the housing comprises an electrically conductive cage section, which surrounds at least partially an axial segment of the shaft, characterized in that the cage section is connected to the shaft by at least one first conduction means and at least one second conduction means, wherein the at least one first conduction means and the at least one second conduction means are arranged spaced both from each other in the axial direction, wherein the at least one bearing is arranged between the segment of the shaft and the cage section of the housing at an axial position in between the at least one first conduction means and the at least one second conduction means.
A film roll supporting device supporting a film roll having a film wound around a core, comprising: a shaft body part extending through a central hole of the film roll and having the film roll mounted thereon; a shaft tip part extending in an axis direction of the shaft body part from one end of the shaft body part on a side from which the central hole of the film roll being introduced; and a projection part extending in a direction intersecting the axis direction of the shaft body part and abutting from below to the core of the film roll provisionally placed on the shaft tip part when the mounting of the film roll is performed, characterized in that the projection part extends from the shaft tip part; and in that the device further comprises at least one cutout recessed in a direction intersecting the axis direction of the shaft body part being formed in the projection part, the cutout being sized to provide a movement path for a holding hand on the introduction side of the film roll during the mounting operation of a film roll. a shaft body part extending through a central hole of the film roll and having the film roll mounted thereon; a shaft tip part extending in an axis direction of the shaft body part from one end of the shaft body part on a side from which the central hole of the film roll being introduced; and a projection part extending in a direction intersecting the axis direction of the shaft body part and abutting from below to the core of the film roll provisionally placed on the shaft tip part when the mounting of the film roll is performed, characterized in that the projection part extends from the shaft tip part; and in that the device further comprises at least one cutout recessed in a direction intersecting the axis direction of the shaft body part being formed in the projection part, the cutout being sized to provide a movement path for a holding hand on the introduction side of the film roll during the mounting operation of a film roll.
A squeegee assembly for a surface cleaning machine that is movable in a first direction, the squeegee assembly including a front squeegee having a lower edge for engaging a surface to be cleaned and a rear squeegee having a lower edge for engaging the surface to be cleaned mounted in close proximity to the front squeegee to define a vacuum chamber there between, characterised in that the lower edge of the front squeegee defines at least one channel, the assembly further comprising a seal flap for at least one channel biased in a closed position within the channel, the seal flap being movable to an open position at least partially outside the channel; wherein when the surface cleaning machine is moved in a first direction, engagement of the seal flap and the surface to be cleaned causes the seal flap to move to the open position, allowing fluid to pass through the channel; and wherein when the lower edge of the front squeegee is partially disengaged from the surface to be cleaned, the seal flap is biased back to its closed position, reducing or preventing fluid from passing through the channel.
A method, comprising: responsive to receiving a selection of a telephone number on a device: transmitting, by the device, an encoded identifier corresponding to the telephone number to a server; determining whether the telephone number is registered for a business messaging system based at least in part on a response received from the server, wherein a business messaging system is a system including one or more messaging servers designed to allow the communication of messages between a client device and a device operated by a business; and providing a first display element for initiating communication with the telephone number via the business messaging system when the telephone number is registered for the business messaging system, otherwise providing a second display element for initiating communication with the telephone number via a user messaging system. transmitting, by the device, an encoded identifier corresponding to the telephone number to a server; determining whether the telephone number is registered for a business messaging system based at least in part on a response received from the server, wherein a business messaging system is a system including one or more messaging servers designed to allow the communication of messages between a client device and a device operated by a business; and providing a first display element for initiating communication with the telephone number via the business messaging system when the telephone number is registered for the business messaging system, otherwise providing a second display element for initiating communication with the telephone number via a user messaging system.
A belt cleaner which removes the leavings of conveying material on the surface of a conveyor belt at the return running side thereof comprising a scraper, a holder holding said scraper and pushing-up tension means; wherein said holder is provided with a pair of rotary shafts having an axis extending in the transverse direction of the belt, and a pair of holding rails (6a,6b) which form a holding groove curving from its both ends toward the center in the return running direction of the belt, and wherein said scraper is comprised of a blade of a resilient member in which supporting plates are embedded in parallel with each other, and thin plate-like tips are fixedly mounted on the back top of said supporting plates respectively, said blade being formed to be curved from a linear state to a substantially arcuate shape and inserted to be held in said holding groove, and said pushing-up tension means exerting resilient forces to rotate said rotary shafts so that said tips are moved up and pressed against the belt surface in an inclined posture at an angle θ1 from the perpendicular to the belt surface, characterized in that: said scraper is provided with a flat slope to be contacted with the belt surface in a manner of surface-contact connection which extends from the top edge of each tip toward the belt running direction in parallel with the belt surface when said tips are held in said inclined posture, and a width W of said flat slope in the belt running direction with respect to the thickness t of said tip is formed under the condition of t<W. wherein said holder is provided with a pair of rotary shafts having an axis extending in the transverse direction of the belt, and a pair of holding rails (6a,6b) which form a holding groove curving from its both ends toward the center in the return running direction of the belt, and wherein said scraper is comprised of a blade of a resilient member in which supporting plates are embedded in parallel with each other, and thin plate-like tips are fixedly mounted on the back top of said supporting plates respectively, said blade being formed to be curved from a linear state to a substantially arcuate shape and inserted to be held in said holding groove, and said pushing-up tension means exerting resilient forces to rotate said rotary shafts so that said tips are moved up and pressed against the belt surface in an inclined posture at an angle θ1 from the perpendicular to the belt surface, characterized in that: said scraper is provided with a flat slope to be contacted with the belt surface in a manner of surface-contact connection which extends from the top edge of each tip toward the belt running direction in parallel with the belt surface when said tips are held in said inclined posture, and a width W of said flat slope in the belt running direction with respect to the thickness t of said tip is formed under the condition of t<W.
An injection mold (100, 200, 300) including a first mold half (96, 196, 296) including a molded article transfer device (150, 250), an in-mold shutter and a first mold shoe (130, 230, 330) arranged therebetween, wherein the in-mold shutter being configured to selectively engage, in use, the first mold shoe (130, 230, 330) to a platen of a mold clamping assembly of an injection molding system; the in-mold shutter comprising a shutter member, a link member associated with the first mold shoe (130, 230, 330), a shutter actuator with which to selectively engage the shutter member with the link member, a support base to which the shutter member is slidably coupled, and an ejector box with which to couple the molded article transfer device (150, 250) to the support base, which ejector box defines a space within which the first mold shoe (130, 230, 330) may be moved, in use, along a mold-stroke axis; wherein the shutter member and the link member are selectively engageable to hold the first mold shoe (130, 230, 330) in an extended position, along the mold-stroke axis, during a step of molding a first molded article in the injection mold (100, 200, 300), and wherein the shutter member and the link member are configured to cooperate such that (i) when the shutter member is positioned in an open position, relative to the link member, the shutter member is disengaged from the link member, whereby the first mold shoe (130, 230, 330) may be moved, in use, along the mold-stroke axis, and (ii) when the shutter member is positioned in a shut position, the shutter member is engaged with the link member, whereby the first mold shoe (130, 230, 330) is engaged with a platen of the injection molding system.
A method of loading a rotating assembly of a turbocharger, the method comprising: positioning a swage collar on an end portion of a turbocharger shaft that extends through a through bore of a compressor wheel; applying a pulling force to the end portion of the turbocharger shaft while compressing the compressor wheel between one or more seating surfaces and a base end of the compressor wheel and measuring loading and controlling force to achieve a desired amount of loading; deforming the swage collar to form a swaged collar fixed to the end portion of the turbocharger shaft; and releasing the pulling force wherein the swaged collar maintains the desired amount of loading. positioning a swage collar on an end portion of a turbocharger shaft that extends through a through bore of a compressor wheel; applying a pulling force to the end portion of the turbocharger shaft while compressing the compressor wheel between one or more seating surfaces and a base end of the compressor wheel and measuring loading and controlling force to achieve a desired amount of loading; deforming the swage collar to form a swaged collar fixed to the end portion of the turbocharger shaft; and releasing the pulling force wherein the swaged collar maintains the desired amount of loading.
A compound for use in the treatment of cancer, wherein the compound is of formula (Ia): wherein: R 1 and R 2 are independently OH, alkoxy or alkylcarbonyloxy, R 4 is OH and R 6 is H, or a pharmaceutically acceptable salt thereof. R 1 and R 2 are independently OH, alkoxy or alkylcarbonyloxy, R 4 is OH and R 6 is H, or a pharmaceutically acceptable salt thereof.
A user terminal configured to communicate with a plurality of cell groups each being formed with one or more cells that use different frequency bands, the user terminal comprising: a receiving section configured to receive downlink control information; and a control section configured to select at least one cell from cells to which uplink control information is able to be allocated, at least one of which being configured in each cell group, and to control the cell as a cell to transmit the uplink control information; characterized in that the control section is further configured to, when information indicating cross-carrier scheduling is included in the downlink control information and a cell having received the downlink control information and a cell designated by the information indicating the cross-carrier scheduling belong to different cell groups, select as the cell to transmit the uplink control information, a cell which is included in a cell group including the cell designated by the information indicating the cross-carrier scheduling and to which the uplink control information is able to be allocated. a receiving section configured to receive downlink control information; and a control section configured to select at least one cell from cells to which uplink control information is able to be allocated, at least one of which being configured in each cell group, and to control the cell as a cell to transmit the uplink control information; characterized in that the control section is further configured to, when information indicating cross-carrier scheduling is included in the downlink control information and a cell having received the downlink control information and a cell designated by the information indicating the cross-carrier scheduling belong to different cell groups, select as the cell to transmit the uplink control information, a cell which is included in a cell group including the cell designated by the information indicating the cross-carrier scheduling and to which the uplink control information is able to be allocated.
A three-dimensional object printing apparatus, comprising: a head unit that includes a head and a curing unit, the head having an ejecting surface on which a nozzle is provided, the head being configured to eject liquid from the nozzle toward a three-dimensional workpiece, the curing unit having an emitting surface from which energy for curing the liquid is emitted; and a movement mechanism that changes relative position and relative orientation of the workpiece and the head unit; wherein when a direction in which the head ejects the liquid is defined as an ejecting direction, the ejecting surface is located closer to an ejecting direction side, which is a side toward which the ejecting direction goes, than the emitting surface is, and wherein a plurality of nozzles is provided along a nozzle-row axis on the ejecting surface, the movement mechanism includes a plurality of rotation axes that includes at least one rotation axis orientable to be parallel to the nozzle-row axis, among the at least one rotation axis orientable to be parallel to the nozzle-row axis, one rotation axis closest to the head unit is defined as a center rotation axis, and in a state in which the center rotation axis and the nozzle-row axis are parallel to each other, the emitting surface is located inside a virtual circle having a center at the center rotation axis and having a radius equal to R, where R is defined as a distance between the center rotation axis and an edge of the ejecting surface that is most distant from the center rotation axis when the head is viewed in a direction of the nozzle-row axis. a head unit that includes a head and a curing unit, the head having an ejecting surface on which a nozzle is provided, the head being configured to eject liquid from the nozzle toward a three-dimensional workpiece, the curing unit having an emitting surface from which energy for curing the liquid is emitted; and a movement mechanism that changes relative position and relative orientation of the workpiece and the head unit; wherein when a direction in which the head ejects the liquid is defined as an ejecting direction, the ejecting surface is located closer to an ejecting direction side, which is a side toward which the ejecting direction goes, than the emitting surface is, and wherein a plurality of nozzles is provided along a nozzle-row axis on the ejecting surface, the movement mechanism includes a plurality of rotation axes that includes at least one rotation axis orientable to be parallel to the nozzle-row axis, among the at least one rotation axis orientable to be parallel to the nozzle-row axis, one rotation axis closest to the head unit is defined as a center rotation axis, and in a state in which the center rotation axis and the nozzle-row axis are parallel to each other, the emitting surface is located inside a virtual circle having a center at the center rotation axis and having a radius equal to R, where R is defined as a distance between the center rotation axis and an edge of the ejecting surface that is most distant from the center rotation axis when the head is viewed in a direction of the nozzle-row axis.
Chalcogen compound powder, represented as a general formula: Cu a In b Ga 1-b Se c (where 0.65 ≤ a ≤ 1.2, 0 < b ≤ 1, and 1.9 ≤ c ≤ 2.4), and having an average particle diameter of from 5 nm inclusive to 0.5 μm exclusive and a carbon content of 0.2% or less by mass.
A User Equipment, UE, comprising: a transmitting and receiving unit; and a control unit, wherein a first connection is a connection comprising multiple connectivities, established by the UE to a data network via multiple endpoint nodes located in a core network, the control unit is configured to establish the first connection comprising, simultaneously, a connectivity using an Access Point Name, APN, via a first endpoint node and a connectivity using the APN via a second endpoint node, and in a procedure for changing endpoint nodes of the first connection from the first endpoint node to the second endpoint node, the transmitting and receiving unit is configured to receive a first control information from the core network, and based on a reception of the first control information, the control unit is configured to perform a transmission and reception of data via the first connection by using a second IP address associated with the second endpoint node of the first connection, instead of a transmission and reception of data via the first connection that has been executed by using a first IP address associated with the first endpoint node of the first connection. a transmitting and receiving unit; and a control unit, a first connection is a connection comprising multiple connectivities, established by the UE to a data network via multiple endpoint nodes located in a core network, the control unit is configured to establish the first connection comprising, simultaneously, a connectivity using an Access Point Name, APN, via a first endpoint node and a connectivity using the APN via a second endpoint node, and in a procedure for changing endpoint nodes of the first connection from the first endpoint node to the second endpoint node, the transmitting and receiving unit is configured to receive a first control information from the core network, and based on a reception of the first control information, the control unit is configured to perform a transmission and reception of data via the first connection by using a second IP address associated with the second endpoint node of the first connection, instead of a transmission and reception of data via the first connection that has been executed by using a first IP address associated with the first endpoint node of the first connection. the transmitting and receiving unit is configured to receive a first control information from the core network, and based on a reception of the first control information, the control unit is configured to perform a transmission and reception of data via the first connection by using a second IP address associated with the second endpoint node of the first connection, instead of a transmission and reception of data via the first connection that has been executed by using a first IP address associated with the first endpoint node of the first connection.