mhurhangee/ep-ind-claims huggingface dataset:
An oscillatory linear actuator comprising: an electromagnet for changing a magnetic field periodically; a first movable body that is disposed on one side in a first direction (z) of the electromagnet, includes a permanent magnet that makes a reciprocating motion in a second direction (x) intersecting with the first direction (z) under action of the magnetic field generated by the electromagnet, and configured to act on a target object; a second movable body that is juxtaposed to the first movable body in a third direction (y) perpendicular to the first (z) and the second direction (x) and configured to make a reciprocating motion in the second direction (x) with a phase opposite to that of the first movable body; a third holder that holds the electromagnet; a first holder that is coupled to the third holder and holds the first movable body so as to provide space between the first movable body and the electromagnet and to allow the first movable body to move in the second direction (x) relative to the electromagnet; a second holder that is coupled to the third holder and holds the second movable body so as to provide space between the second movable body and the electromagnet and to allow the second movable body to move in the second direction (x) relative to the electromagnet; and a coupling spring (431, 432) that couples the first holder and the second holder; characterized in that the coupling spring (431, 432) has a ring shape when viewed in the second direction (x) and is disposed on one side in the first direction (z) of the first and second holders (410, 420). an electromagnet for changing a magnetic field periodically; a first movable body that is disposed on one side in a first direction (z) of the electromagnet, includes a permanent magnet that makes a reciprocating motion in a second direction (x) intersecting with the first direction (z) under action of the magnetic field generated by the electromagnet, and configured to act on a target object; a second movable body that is juxtaposed to the first movable body in a third direction (y) perpendicular to the first (z) and the second direction (x) and configured to make a reciprocating motion in the second direction (x) with a phase opposite to that of the first movable body; a third holder that holds the electromagnet; a first holder that is coupled to the third holder and holds the first movable body so as to provide space between the first movable body and the electromagnet and to allow the first movable body to move in the second direction (x) relative to the electromagnet; a second holder that is coupled to the third holder and holds the second movable body so as to provide space between the second movable body and the electromagnet and to allow the second movable body to move in the second direction (x) relative to the electromagnet; and a coupling spring (431, 432) that couples the first holder and the second holder; characterized in that the coupling spring (431, 432) has a ring shape when viewed in the second direction (x) and is disposed on one side in the first direction (z) of the first and second holders (410, 420).
A device for controlling an electric motor, the device comprising: an inverter supplying a current to an electric motor; a current sensor attached to a wiring between the inverter and the electric motor sensing the current supplied from the inverter to the electric motor; and a control unit enabling the current to be supplied from the inverter to the electric motor, obtaining first and second current offset values sensed from the current sensor at a plurality of times, when the electric motor is in a non-operate mode, characterized in that the control unit is configured to compare the first current offset value with the second current offset value and to update the first current offset value to the second current offset value when a difference between the first current offset value and the second current offset value is less than a reference value of effectiveness, and to compensate for a current value applied to the electric motor based on the second current offset value obtained through the updating. an inverter supplying a current to an electric motor; a current sensor attached to a wiring between the inverter and the electric motor sensing the current supplied from the inverter to the electric motor; and a control unit enabling the current to be supplied from the inverter to the electric motor, obtaining first and second current offset values sensed from the current sensor at a plurality of times, when the electric motor is in a non-operate mode, characterized in that the control unit is configured to compare the first current offset value with the second current offset value and to update the first current offset value to the second current offset value when a difference between the first current offset value and the second current offset value is less than a reference value of effectiveness, and to compensate for a current value applied to the electric motor based on the second current offset value obtained through the updating.
A bone plate assembly, comprising: a plate having a plurality of apertures formed through the full thickness of the plate, with at least two apertures being positioned proximal to lateral edges on opposing sides of the plate; at least one fastener having a leading end with a ribbed profile, and a second end opposite the leading end, the fastener being configured for the leading end to pass substantially around a portion of bone and through at least one aperture for locking engagement to establish compression with adjustable tension between the plate and the bone; and a plurality of locking mechanisms, each being incorporated with one of said apertures, and each locking mechanism configured to allow the leading end of a fastener having the ribbed profile to pass through the aperture in a first direction, and to resist fastener movement in a second direction opposite the first direction; each locking mechanism further comprising a base slot that accommodates entry of the fastener leading end into the locking mechanism to secure around the ribbed profile of the fastener leading end, and an exit slot through which the fastener leading end exits the locking mechanism; wherein the plate is contoured to lie against and be compressed against a surface of a bone. a plate having a plurality of apertures formed through the full thickness of the plate, with at least two apertures being positioned proximal to lateral edges on opposing sides of the plate; at least one fastener having a leading end with a ribbed profile, and a second end opposite the leading end, the fastener being configured for the leading end to pass substantially around a portion of bone and through at least one aperture for locking engagement to establish compression with adjustable tension between the plate and the bone; and a plurality of locking mechanisms, each being incorporated with one of said apertures, and each locking mechanism configured to allow the leading end of a fastener having the ribbed profile to pass through the aperture in a first direction, and to resist fastener movement in a second direction opposite the first direction; each locking mechanism further comprising a base slot that accommodates entry of the fastener leading end into the locking mechanism to secure around the ribbed profile of the fastener leading end, and an exit slot through which the fastener leading end exits the locking mechanism; wherein the plate is contoured to lie against and be compressed against a surface of a bone.
An optical transmission module (10, 20) comprising: a lead frame formed of a thin plate of metal having high electric conductivity and including an electric wiring pattern formed therein; an electronic device mounted on one face of the lead frame and including a light projecting element and/or light receiving element for photoelectric conversion; and the lead frame forming a support for positioning an optical fiber to be coupled to the light projecting element and/or light receiving element, and a reflection mirror disposed in opposition to the support, said mirror being included in the lead frame and formed therein by bending or surface machining, said mirror reflecting light from the light projecting element to the optical fiber and/or light from the optical fiber to the light receiving element, the optical transmission module being characterised in that a resin housing is formed around the lead frame through insert - moulding of the lead frame, wherein a portion of the housing is receded to form a first cavity in which the lead frame is exposed for mounting the electric device and exposing the mirror, and in that the support of the optical fibre comprises a slit formed through the entire thickness of the lead frame metal plate for positioning the optical fibre to be coupled to the light projecting and/or light receiving element. a lead frame formed of a thin plate of metal having high electric conductivity and including an electric wiring pattern formed therein; an electronic device mounted on one face of the lead frame and including a light projecting element and/or light receiving element for photoelectric conversion; and the lead frame forming a support for positioning an optical fiber to be coupled to the light projecting element and/or light receiving element, and a reflection mirror disposed in opposition to the support, said mirror being included in the lead frame and formed therein by bending or surface machining, said mirror reflecting light from the light projecting element to the optical fiber and/or light from the optical fiber to the light receiving element, the optical transmission module being characterised in that a resin housing is formed around the lead frame through insert - moulding of the lead frame, wherein a portion of the housing is receded to form a first cavity in which the lead frame is exposed for mounting the electric device and exposing the mirror, and in that the support of the optical fibre comprises a slit formed through the entire thickness of the lead frame metal plate for positioning the optical fibre to be coupled to the light projecting and/or light receiving element.
A nasal respiratory interface comprising: a frame having a front surface, a rear surface, and an aperture extending from the front surface to the rear surface, the frame having an oval form with a truncated height portion; a seal for a nasal pillow, the seal attached to the frame; and a yoke having a front surface and a rear surface, the yoke configured to couple the frame to a headgear system, wherein the yoke comprises a recessed surface, wherein the frame comprises a recessed wall and a shelf, and wherein the recessed wall of the frame is configured to mate with the recessed surface of the yoke, wherein a central portion of the yoke extends partially around the aperture and has a vertical height that is less than that of two lateral apexes (A1, A2) between which the central portion spans. a frame having a front surface, a rear surface, and an aperture extending from the front surface to the rear surface, the frame having an oval form with a truncated height portion; a seal for a nasal pillow, the seal attached to the frame; and a yoke having a front surface and a rear surface, the yoke configured to couple the frame to a headgear system, wherein the yoke comprises a recessed surface, wherein the frame comprises a recessed wall and a shelf, and wherein the recessed wall of the frame is configured to mate with the recessed surface of the yoke, wherein a central portion of the yoke extends partially around the aperture and has a vertical height that is less than that of two lateral apexes (A1, A2) between which the central portion spans.
A liquid crystal display, comprising: a substrate; first signal lines disposed on the substrate, the first signal lines longitudinally extending in substantially a first direction; a gate insulating layer disposed on the first signal lines; a first electrode disposed on the gate insulating layer; a thin film transistor connected to a first signal line of the first signal lines, the thin film transistor comprising the gate insulating layer and the first electrode; a pixel electrode longitudinally extending in substantially the first direction, the pixel electrode being connected to the thin film transistor and configured to receive a data voltage from the thin film transistor; a common electrode overlapping with at least a portion of the pixel electrode; and a first insulating layer disposed between the pixel electrode and the common electrode, wherein: one of the pixel electrode and the common electrode has a planar shape and the other comprises branch electrodes (133; 193) overlapping with at least a portion of the planar-shaped electrode, the branch electrodes (133; 193) extend substantially parallel to the first signal line, and at least a portion of the common electrode overlaps with at least a portion of the first signal line. a substrate; first signal lines disposed on the substrate, the first signal lines longitudinally extending in substantially a first direction; a gate insulating layer disposed on the first signal lines; a first electrode disposed on the gate insulating layer; a thin film transistor connected to a first signal line of the first signal lines, the thin film transistor comprising the gate insulating layer and the first electrode; a pixel electrode longitudinally extending in substantially the first direction, the pixel electrode being connected to the thin film transistor and configured to receive a data voltage from the thin film transistor; a common electrode overlapping with at least a portion of the pixel electrode; and a first insulating layer disposed between the pixel electrode and the common electrode, wherein: one of the pixel electrode and the common electrode has a planar shape and the other comprises branch electrodes (133; 193) overlapping with at least a portion of the planar-shaped electrode, the branch electrodes (133; 193) extend substantially parallel to the first signal line, and at least a portion of the common electrode overlaps with at least a portion of the first signal line. one of the pixel electrode and the common electrode has a planar shape and the other comprises branch electrodes (133; 193) overlapping with at least a portion of the planar-shaped electrode, the branch electrodes (133; 193) extend substantially parallel to the first signal line, and at least a portion of the common electrode overlaps with at least a portion of the first signal line.
A method for wireless communication by a mobile device (115,315,1115,1815) in a system in which a plurality of available networks provide wireless communications through two or more different radio access technologies, RATs, the method comprising: receiving a page transmission at the mobile device (115,315,1115,1815), the page transmission including service information comprising an identifier indicating one or more services that are to be initiated in response to the page transmission, the identifier indicating which of the one or more of the plurality of RATs (105,135,305,335) are to be used by the mobile device (115,315,1115,1815) to initiate the service; determining one or more of the plurality of available networks (105,135,305,335) to access for wireless communication based at least in part on: the service information and a policy indicating a priority for accessing the one or more different RATs based at least in part on the one or more services to be initiated; and accessing one or more of the determined available networks (105,135,305,335) responsive to the determining. receiving a page transmission at the mobile device (115,315,1115,1815), the page transmission including service information comprising an identifier indicating one or more services that are to be initiated in response to the page transmission, the identifier indicating which of the one or more of the plurality of RATs (105,135,305,335) are to be used by the mobile device (115,315,1115,1815) to initiate the service; determining one or more of the plurality of available networks (105,135,305,335) to access for wireless communication based at least in part on: the service information and a policy indicating a priority for accessing the one or more different RATs based at least in part on the one or more services to be initiated; and the service information and a policy indicating a priority for accessing the one or more different RATs based at least in part on the one or more services to be initiated; and accessing one or more of the determined available networks (105,135,305,335) responsive to the determining.
Method of producing a metal strip, particularly a steel strip, in the casting curve of a continuous casting plant, comprising pouring a metal melt, particularly steel melt, in a continuous casting procedure to form a cast strip, which is cooled by coolant (8, 11) and if desired reduced in thickness, wherein on the basis of one or more simulation and computation models, for example the DSC (Dyanmic Solidification Control) computation and control program, which describe or calculate the time-dependent temperature distribution over the cast strip length and the formation of a desired structure of the cast strip over the cast strip length and which are filed in a computer unit, there is, during production of the cast strip, constant and continuous computation on-line by means of a computer unit and the simulation and computation model or models of values which describe the formation of the respective structural composition and control this or process parameters influencing the cast strip information and on the basis of which the cooling of the cast strip and/or the casting speed is or are dynamically set on-line during production of the cast strip, characterised in that the simulation and computation model or models filed in the computer unit realises or realise on the basis of mathematical/physical models, which are a constituent of the simulation and/or computation model or models, different regulation concepts with respect to the macro-structure, the micro-structure, for achieving a uniformly formed end of liquid phase, for regulation of a constant exit thickness of the cast strip and for avoidance of voids and unconsolidated core locations, wherein depending on the computed instantaneous temperature distribution over the cast strip length or in a respective cross-section, which is under consideration, of the cast strip the coolant quantity or coolant distribution, particularly spray water quantity or spray water distribution, to be locally applied to the cast strip and the casting speed and the roller or segment adjustment are regulated in such a way that the desired structure or the desired structural composition is continuously, dynamically and constantly computed and set on-line and a desired position and formation of the end of the liquid phase and a desired geometric dimension or surface property or internal structure property of the cast strip are set.
A terrace canopy comprising: - a support pillar extending in a substantially vertical direction; - a first and a second beam (3, 4) each extending in a substantially horizontal direction, wherein each beam is provided with a headboard at at least one end; and - a corner element positioned between and secured to the support pillar and the beams and provided with a first and a second wall portion, wherein the headboard of the first beam is attached against the first wall portion of the corner element, and wherein the headboard of the second beam is attached against the second wall portion of the corner element, wherein mutually cooperating alignment means (101, 122) are provided between each wall portion and the headboard attached thereto, the mutually cooperating alignment means being configured for aligning a beam with respect to the support pillar, characterised in that the mutually cooperating alignment means comprise a tongue and groove. - a support pillar extending in a substantially vertical direction; - a first and a second beam (3, 4) each extending in a substantially horizontal direction, wherein each beam is provided with a headboard at at least one end; and - a corner element positioned between and secured to the support pillar and the beams and provided with a first and a second wall portion, wherein the headboard of the first beam is attached against the first wall portion of the corner element, and wherein the headboard of the second beam is attached against the second wall portion of the corner element,
A compound of the following formula: wherein R 1 is selected from the group consisting of 2-chloro-7-ethoxyquinolin, 5-(quinoxalin-6-yl), 2-chloro-6,7-dimethoxyquinolin, 2-chloro-6-ethoxyquinolin, 4-Bromophenyl, 4-fluorophenyl, 4-chlorophenyl, 2-chlorophenyl, 2-methoxyphenyl, 4-ethylphenyl, 4-Diethylaminophenyl, 4-dimethylaminophenyl, thiophene, 4-methoxyphenyl, p-tolyl, 2,5-dimethoxyphenyl, 3,4-dimethoxyphenyl, 4-ethylphenyl; and 1-phenyl-3-p-tolyl-1H-pryazole; R 2 is selected from the groups consisting of 4-bromo, 4-chloro, 4-nitro, 4-methyl, 4-methoxy and 3,4-dimethyl; and R 3 is selected from the group consisting of: ketobutyric acids, and wherein n = 1, 2, 3,4, or 5; or a pharmaceutically acceptable salt thereof. R 1 is selected from the group consisting of 2-chloro-7-ethoxyquinolin, 5-(quinoxalin-6-yl), 2-chloro-6,7-dimethoxyquinolin, 2-chloro-6-ethoxyquinolin, 4-Bromophenyl, 4-fluorophenyl, 4-chlorophenyl, 2-chlorophenyl, 2-methoxyphenyl, 4-ethylphenyl, 4-Diethylaminophenyl, 4-dimethylaminophenyl, thiophene, 4-methoxyphenyl, p-tolyl, 2,5-dimethoxyphenyl, 3,4-dimethoxyphenyl, 4-ethylphenyl; and 1-phenyl-3-p-tolyl-1H-pryazole; R 2 is selected from the groups consisting of 4-bromo, 4-chloro, 4-nitro, 4-methyl, 4-methoxy and 3,4-dimethyl; and R 3 is selected from the group consisting of: ketobutyric acids, and
A method, performed in a requester device that is coupled with a responder device by a serial interface, of selecting an approach to handle an error in a request-response communication between the requester and responder devices over the serial interface, the method comprising steps of: transmitting a request packet, of the request-response communication, over the serial interface, based on a request from an application that is executing on a logical processor; reporting (228, 124) the error in the request-response communication to an application-layer module; and selecting an error handling approach, of a plurality of error handling approaches, that is to be used to handle the error with the application-layer module. transmitting a request packet, of the request-response communication, over the serial interface, based on a request from an application that is executing on a logical processor; reporting (228, 124) the error in the request-response communication to an application-layer module; and selecting an error handling approach, of a plurality of error handling approaches, that is to be used to handle the error with the application-layer module.
A cryostat arrangement, with a vacuum container and an object to be cooled, in particular a superconducting magnetic coil system or a cryocontainer, wherein the object to be cooled is arranged inside the vacuum container, wherein the vacuum container comprises a neck tube, leading to the object to be cooled, wherein a cooling arm of a cold head is arranged at least partly in the neck tube, wherein a closed cavity is formed around the cooling arm, being sealed off fluid-tight against the object to be cooled, wherein the cavity in normal operation is filled at least partly with a first cryogenic fluid, wherein a first thermal coupling means is provided, suitable for the thermal coupling of the first cryogenic fluid in the cavity to the object to be cooled, wherein the cryostat arrangement furthermore comprises a pump device, to which the cavity is connected, characterized in that a monitoring device is provided, which monitors the cooling function of the cold head, and which is designed to automatically activate the pump device upon failure of the cooling function of the cold head, so that the cavity is evacuated.