mhurhangee/patent-ind-claim-en huggingface dataset:
A transdermal therapeutic system for the transdermal administration of solifenacin comprising a solifenacin-containing layer structure, the solifenacin-containing layer structure comprising: A) a backing layer, and B) a solifenacin-containing layer comprising a therapeutically effective amount of solifenacin base, wherein the solifenacin-containing layer structure comprises at least one polymer selected from the group consisting of a polymer based on polysiloxanes, a silicone acrylic hybrid polymer, a polymer based on polyisobutylenes and an acrylate polymer, and wherein the transdermal therapeutic system does not contain a transdermal permeation enhancer selected from the group consisting of a fatty acid ester, a terpene, and a carboxylic acid having 2 to 10 carbon atoms. A) a backing layer, and B) a solifenacin-containing layer comprising a therapeutically effective amount of solifenacin base, wherein the solifenacin-containing layer structure comprises at least one polymer selected from the group consisting of a polymer based on polysiloxanes, a silicone acrylic hybrid polymer, a polymer based on polyisobutylenes and an acrylate polymer, and wherein the transdermal therapeutic system does not contain a transdermal permeation enhancer selected from the group consisting of a fatty acid ester, a terpene, and a carboxylic acid having 2 to 10 carbon atoms.
A compressor , comprising a pulley for connection to a drive system and a magnetic clutch assembly for connecting a drive shaft to the pulley such that the rotation of the pulley is transferred to the drive shaft , wherein the clutch arrangement comprises an electromagnet , a hub attached to the drive shaft and an armature plate ; and wherein the compressor further comprises a rotation sensor , wherein the rotation sensor comprises a magnetic field sensor characterised in that : the rotation sensor further comprises one or more magnetic portions attached to, or forming part of, the drive shaft or hub , and wherein at least the magnetic field sensor is positioned outside of any magnetic leakage paths within the compressor which are generated by the electromagnet when energised.
Planetary gear system for a gas turbine engine , in particular an aircraft turbo engine with a plurality of planetary gears coupled to a carrier device , with front planetary gears mounted on pins in a front row (A) and aft planetary gears mounted on pins in an aft row (B), the two rows (A, B) being parallel to each other in the axial direction of the planetary gear system , wherein the carrier device comprises a base structure being in one piece with the carrier device , the base structure positioned around a rotational axis of the gas turbine engine , the pins are coupled to the carrier device through first extension elements and second extension elements for the positioning of the pins relative to the base structure , the second extension elements axially extending the respective pins further away from the base structure than the pins positioned by the first extension elements , so that the aft planetary gears are positioned in the aft row (B) axially further away from the base structure than the front planetary gears in the front row (A), characterized in that the first extension elements , in particular arms as part of the first extension elements form first inclination angles (α A ) which are smaller than second inclination angles (α B ) formed by the second extension elements , in particular arms as parts of the second extension elements , wherein the first and second inclination angles (α A , α B ) are measured between the plane of the base structure and a projection of the extension elements through the centers of the pins in a radial direction. the carrier device comprises a base structure being in one piece with the carrier device , the base structure positioned around a rotational axis of the gas turbine engine , the pins are coupled to the carrier device through first extension elements and second extension elements for the positioning of the pins relative to the base structure , the second extension elements axially extending the respective pins further away from the base structure than the pins positioned by the first extension elements , so that the aft planetary gears are positioned in the aft row (B) axially further away from the base structure than the front planetary gears in the front row (A),
Effector command interface intended to command power effectors , the command interface comprising an active control unit that is intended to convert a very-low-voltage command order sent by at least one very-low-voltage command receiver into an electrical command intended for the at least one power effector , the command interface being characterized in that it comprises a passive conversion unit connected to the active control unit by very-low-voltage electrical links , the passive conversion unit comprising: - at least two input ports that are intended to be connected to a very-low-voltage command receiver via very-low-voltage communication means of bus type, - at least two outputs that are interconnected with said at least two input ports and connected to the active control unit via very-low-voltage electrical links , the active control unit comprising processing means intended to convert very-low-voltage command orders transmitted by the very-low-voltage electrical links into a power command order for commanding, in a dedicated manner, at least one power effector , the conversion of the very-low-voltage command orders into a power command order being carried out depending on scenarios programmed into said unit; said passive conversion unit comprises internal connection means allowing each of those inputs of the input ports that are intended to command a given function to be connected in series, each series connection permitting a least one input to be electrically connected with a single very-low-voltage electrical link ; each input port of the passive conversion unit comprises an input connected to a common internal first bus and at least one second input connected to an internal data bus , - a first output of the passive conversion unit being interconnected with all the common internal buses and being connected to the active control unit via a first very-low-voltage electrical link , - at least one second output of the passive conversion unit being interconnected with at least one internal data bus and being connected to the active control unit via at least one second very-low-voltage electrical link . - at least two input ports that are intended to be connected to a very-low-voltage command receiver via very-low-voltage communication means of bus type, - at least two outputs that are interconnected with said at least two input ports and connected to the active control unit via very-low-voltage electrical links , - a first output of the passive conversion unit being interconnected with all the common internal buses and being connected to the active control unit via a first very-low-voltage electrical link , - at least one second output of the passive conversion unit being interconnected with at least one internal data bus and being connected to the active control unit via at least one second very-low-voltage electrical link .
A core shooting assembly comprising a sealing hood which can be moved vertically between an open position and a sealed closed position for the supply of compressed air to a core shooting chamber or for sealing a replaceable gassing chamber against the core shooting chamber by means of transverse movement, wherein a filter board is releasably attached to the sealing hood on the outflow side by means of a locking device , such that said filter board can be placed on the gassing chamber in a detached manner and can be moved laterally away from the sealing hood into a replacement position with the transverse movement of said filter board, and wherein a filter board receptacle forming part of a pivotable holder is arranged in the replacement position, such that said filter board receptacle engages with the filter board as a result of said transverse movement, characterised in that the filter board receptacle is attached to a pivot axis together with at least one second filter board receptacle carrying a second filter board .
A process for making a foam composition, the process comprising the steps of: (A) forming a mixture comprising high density polyethylene (HDPE), low density polyethylene (LDPE) and a peroxide; wherein the peroxide is di-t-amyl peroxide; wherein the minimum amount of peroxide is at least about 0.02wt% based upon the weight of the HDPE/LDPE blend; wherein the mixture of (A) further comprises a CO 2 -philic compound; wherein the CO 2 -philic compound is polydimethylsiloxane; and (B) contacting the mixture of (A) with carbon dioxide (CO 2 ). (A) forming a mixture comprising high density polyethylene (HDPE), low density polyethylene (LDPE) and a peroxide; wherein the peroxide is di-t-amyl peroxide; wherein the minimum amount of peroxide is at least about 0.02wt% based upon the weight of the HDPE/LDPE blend; wherein the mixture of (A) further comprises a CO 2 -philic compound; wherein the CO 2 -philic compound is polydimethylsiloxane; and (B) contacting the mixture of (A) with carbon dioxide (CO 2 ).
A vibration damping control apparatus for a vehicle, comprising: - a driving/braking torque producing means to produce a driving/braking torque of a wheel of the vehicle; - a correction torque calculating means to calculate a correction torque (dTw*, dTw1*) to suppress a vehicle body sprung vibration; and - a correction torque command outputting means to output a correction torque command (dTw_out*) to the driving/braking torque producing means , in accordance with the correction torque (dTw*, dTw1*); wherein the correction torque outputting means is configured: - to output a hunting time correction torque command smaller than a normal time correction torque command when a state in which an amplitude of the correction torque (dTw*, dTw1*) is greater than or equal to a predetermined amplitude continues for a predetermined time length, - thereafter to output a returning time correction torque command restricted with restriction on the correction torque as an output of the correction torque command (dTw_out*) if a state in which the amplitude of the correction torque (dTw*, dTw1*) is smaller than or equal to a predetermined amplitude continues for a first predetermined time length, and - thereafter to return the output of the correction torque command (dTw_out*) from the returning time correction torque command to the normal time correction torque command when the state in which the amplitude of the correction torque (dTw*, dTw1*) is smaller than or equal to the predetermined amplitude continues for a second predetermined time length while the returning time correction toque command is being output. - a driving/braking torque producing means to produce a driving/braking torque of a wheel of the vehicle; - a correction torque calculating means to calculate a correction torque (dTw*, dTw1*) to suppress a vehicle body sprung vibration; and - a correction torque command outputting means to output a correction torque command (dTw_out*) to the driving/braking torque producing means , in accordance with the correction torque (dTw*, dTw1*); - to output a hunting time correction torque command smaller than a normal time correction torque command when a state in which an amplitude of the correction torque (dTw*, dTw1*) is greater than or equal to a predetermined amplitude continues for a predetermined time length, - thereafter to output a returning time correction torque command restricted with restriction on the correction torque as an output of the correction torque command (dTw_out*) if a state in which the amplitude of the correction torque (dTw*, dTw1*) is smaller than or equal to a predetermined amplitude continues for a first predetermined time length, and - thereafter to return the output of the correction torque command (dTw_out*) from the returning time correction torque command to the normal time correction torque command when the state in which the amplitude of the correction torque (dTw*, dTw1*) is smaller than or equal to the predetermined amplitude continues for a second predetermined time length while the returning time correction toque command is being output.
A method for forming at least a portion of a flexible medical article comprising a flexible tubular shaft with at least one lumen, and a hub , the method comprising: forming the tubular shaft of the medical article by extrusion; cutting said extruded tubular shaft of the medical article into a desired length; characterized in that the the tubular shaft is formed by extruding a polycarbonate urethane copolymer; and that the method further comprises the subsequent steps of annealing said extruded, cut tubular shaft of the medical article by heating said tubular shaft to increase flexibility of said tubular shaft , wherein annealing comprises annealing the flexible tubular shaft of the medical article at about 120°C for about one hour; cutting the annealed tubular shaft of the medical article into a desired length; forming a first end of the tubular shaft into a tip, and flaring a second end of the tubular shaft and over-molding the second end onto the hub . forming the tubular shaft of the medical article by extrusion; cutting said extruded tubular shaft of the medical article into a desired length; characterized in that the the tubular shaft is formed by extruding a polycarbonate urethane copolymer; and that the method further comprises the subsequent steps of annealing said extruded, cut tubular shaft of the medical article by heating said tubular shaft to increase flexibility of said tubular shaft , wherein annealing comprises annealing the flexible tubular shaft of the medical article at about 120°C for about one hour; cutting the annealed tubular shaft of the medical article into a desired length; forming a first end of the tubular shaft into a tip, and flaring a second end of the tubular shaft and over-molding the second end onto the hub .
A shovel comprising: a lower traveling body ; an upper turning body turnably mounted on the lower traveling body ; a cab mounted on the upper turning body ; a plurality of image capturing devices mounted on the upper turning body ; a display device provided in the cab ; and an operation part provided in the cab , wherein the display device includes an image display part configured to display a captured image captured by at least one of the plurality of image capturing devices and a menu screen, and characterized in that the image display part is configured to display the menu screen while displaying the captured image and operating condition information, in response to the operation part being operated, the operating condition information being information on operating condition of the shovel . a lower traveling body ; an upper turning body turnably mounted on the lower traveling body ; a cab mounted on the upper turning body ; a plurality of image capturing devices mounted on the upper turning body ; a display device provided in the cab ; and an operation part provided in the cab , wherein the display device includes an image display part configured to display a captured image captured by at least one of the plurality of image capturing devices and a menu screen, and characterized in that the image display part is configured to display the menu screen while displaying the captured image and operating condition information, in response to the operation part being operated, the operating condition information being information on operating condition of the shovel .
A vessel provided with a boom construction , especially a gangway construction, for transferring persons and/or cargo from said vessel to an offshore object or vice versa, the boom construction comprising: an elongated mast structure extending in a direction substantially upwards from a deck of said vessel ; and a boom , especially a gangway, connected to the mast structure and extending from the mast structure in a substantially sideward direction, wherein the boom is mounted to an elevation unit being adjustable in height along the elongated mast structure , the mast structure being pivotally mounted with respect to a hull of the vessel in a manner such as to be pivotable with respect to said hull about a single pivot axis only, and the boom construction further comprising at least one actuator for pivoting the mast structure about said single pivot axis such as to compensate for at least a part of a roll movement of the hull of the vessel , wherein the boom is rotatably connected to the elongated mast structure in order to allow the boom to slew about said elongated mast structure by means of a slewing platform rotatably connected to the elevation unit that is adjustable in height along said elongated mast structure. an elongated mast structure extending in a direction substantially upwards from a deck of said vessel ; and a boom , especially a gangway, connected to the mast structure and extending from the mast structure in a substantially sideward direction, wherein the boom is mounted to an elevation unit being adjustable in height along the elongated mast structure , the mast structure being pivotally mounted with respect to a hull of the vessel in a manner such as to be pivotable with respect to said hull about a single pivot axis only, and the boom construction further comprising at least one actuator for pivoting the mast structure about said single pivot axis such as to compensate for at least a part of a roll movement of the hull of the vessel , wherein the boom is rotatably connected to the elongated mast structure in order to allow the boom to slew about said elongated mast structure by means of a slewing platform rotatably connected to the elevation unit that is adjustable in height along said elongated mast structure.
A tower for a wind turbine extending axially along a longitudinal axis (Z) of the wind turbine , wherein the tower comprises: a plurality of axially adjacent tower segments , each tower segment extending axially between two axial ends, a respective flange being provided at one or both of said axial ends for connecting the respective tower segment to another tower segment , a rail attached to an external surface of at least one tower segment , the rail being provided at the flange , the rail providing a guide to which a service trolley is attachable in order to be movable along the rail . a plurality of axially adjacent tower segments , each tower segment extending axially between two axial ends, a respective flange being provided at one or both of said axial ends for connecting the respective tower segment to another tower segment , a rail attached to an external surface of at least one tower segment , the rail being provided at the flange , the rail providing a guide to which a service trolley is attachable in order to be movable along the rail .
A metal roofing material for being arranged on an eave-side metal roofing material in an eave-ridge direction of a roof so as to overlap with the eave-side metal roofing material , the metal roofing material comprising: a front substrate made of a metal sheet and comprising a body portion formed in a box shape; a back substrate arranged on the back side of the front substrate so as to cover an opening of the body portion ; a core material filling the space between the body portion and the back substrate ; characterized in that the metal roofing material further comprises at least one reinforcing plate that is embedded in the core material at a position closer to the back substrate than a top plate of the body portion or that is disposed in contact with the outer surface of the back substrate . a front substrate made of a metal sheet and comprising a body portion formed in a box shape; a back substrate arranged on the back side of the front substrate so as to cover an opening of the body portion ; a core material filling the space between the body portion and the back substrate ; characterized in that the metal roofing material further comprises at least one reinforcing plate that is embedded in the core material at a position closer to the back substrate than a top plate of the body portion or that is disposed in contact with the outer surface of the back substrate .
An external pulse generator comprising: a pulse generator electrically configured for generating neurostimulation pulses along a plurality of stimulation channels; a battery electrically coupled to the pulse generator; an outer housing enclosing the pulse generator and battery ; an external cable extending from the housing ; a multi-pin connector electrically coupleable to the pulse generator through the external cable , wherein a plurality of pins of the multi-pin connector correspond to the plurality of stimulation channels; and an actuatable user interface feature disposed on the housing and configured for initiating wireless communication with an external programmer when actuated, wherein the actuatable user interface is configured such that: actuation while the pulse generator is off or in a hibernation state causes the external pulse generator to be receptive to wireless communication with the external programmer for a pre-determined period of time; and wherein operation or communication by the external pulse generator remains unchanged when actuation occurs while the pulse generator is operating or communicating. a pulse generator electrically configured for generating neurostimulation pulses along a plurality of stimulation channels; a battery electrically coupled to the pulse generator; an outer housing enclosing the pulse generator and battery ; an external cable extending from the housing ; a multi-pin connector electrically coupleable to the pulse generator through the external cable , wherein a plurality of pins of the multi-pin connector correspond to the plurality of stimulation channels; and an actuatable user interface feature disposed on the housing and configured for initiating wireless communication with an external programmer when actuated, wherein the actuatable user interface is configured such that: actuation while the pulse generator is off or in a hibernation state causes the external pulse generator to be receptive to wireless communication with the external programmer for a pre-determined period of time; and wherein operation or communication by the external pulse generator remains unchanged when actuation occurs while the pulse generator is operating or communicating. actuation while the pulse generator is off or in a hibernation state causes the external pulse generator to be receptive to wireless communication with the external programmer for a pre-determined period of time; and wherein operation or communication by the external pulse generator remains unchanged when actuation occurs while the pulse generator is operating or communicating.