mhurhangee/patent-ind-claim-en huggingface dataset:
A motor comprising: a stator a rotor including a plurality of rotor cores arranged inside the stator spaced apart from one another in a circumferential direction, and a plurality of permanent magnets placed between respective two neighboring rotor cores of the plurality of rotor cores , the permanent magnets extending radially about the center of the stator , the rotor being rotatably placed inside the stator ; and a magnetic flux adjustment unit including a ring-shaped main frame , a plurality of magnetic substance portions extending from the main frame and spaced apart from one another in a circumferential direction of the rotor , and non-magnetic regions defined between the plurality of magnetic substance portions , wherein the magnetic flux adjustment unit is rotatable between a first position where each of the plurality of magnetic substance portions is located in a space between the respective neighboring rotor cores of the plurality of rotor cores such that each of the plurality of magnetic substance portions overlap a portion of the respective neighboring rotor cores and each of the plurality of magnetic substance portions correspond to a single permanent magnet, and a second position where each of the plurality of non-magnetic regions is located in a space between the respective permanent magnets among the plurality of permanent magnets such that each of the plurality of non-magnetic regions overlap a portion of the respective permanent magnets. a stator a rotor including a plurality of rotor cores arranged inside the stator spaced apart from one another in a circumferential direction, and a plurality of permanent magnets placed between respective two neighboring rotor cores of the plurality of rotor cores , the permanent magnets extending radially about the center of the stator , the rotor being rotatably placed inside the stator ; and a magnetic flux adjustment unit including a ring-shaped main frame , a plurality of magnetic substance portions extending from the main frame and spaced apart from one another in a circumferential direction of the rotor , and non-magnetic regions defined between the plurality of magnetic substance portions , wherein the magnetic flux adjustment unit is rotatable between a first position where each of the plurality of magnetic substance portions is located in a space between the respective neighboring rotor cores of the plurality of rotor cores such that each of the plurality of magnetic substance portions overlap a portion of the respective neighboring rotor cores and each of the plurality of magnetic substance portions correspond to a single permanent magnet, and a second position where each of the plurality of non-magnetic regions is located in a space between the respective permanent magnets among the plurality of permanent magnets such that each of the plurality of non-magnetic regions overlap a portion of the respective permanent magnets.
A system adapted for selectively adiabatically coupling electromagnetic waves from one waveguide to another waveguide, the system comprising: - a first waveguide portion and a second waveguide portion , the first waveguide portion and the second waveguide portion having a substantially different surface normal cross-section causing a different interaction of the first and second waveguide portion with the environment, and the first waveguide portion and the second waveguide portion being positioned with respect to each other in a coupling region so that under first predetermined environmental conditions coupling of electromagnetic waves between the first waveguide portion and the second waveguide portion occurs and under second predetermined environmental conditions substantially no coupling of electromagnetic waves between the first waveguide portion and the second waveguide portion occurs, and - a fluid positioning means for selectively positioning at least a first fluid such that it is selectively either entirely and simultaneously overlaying both said first waveguide portion and said second waveguide portion in the coupling region, thus inducing first predetermined environmental conditions, or not entirely overlaying both said first waveguide portion and said second waveguide portion in the coupling region, thus inducing second predetermined environmental conditions. - a first waveguide portion and a second waveguide portion , the first waveguide portion and the second waveguide portion having a substantially different surface normal cross-section causing a different interaction of the first and second waveguide portion with the environment, and the first waveguide portion and the second waveguide portion being positioned with respect to each other in a coupling region so that under first predetermined environmental conditions coupling of electromagnetic waves between the first waveguide portion and the second waveguide portion occurs and under second predetermined environmental conditions substantially no coupling of electromagnetic waves between the first waveguide portion and the second waveguide portion occurs, and - a fluid positioning means for selectively positioning at least a first fluid such that it is selectively either entirely and simultaneously overlaying both said first waveguide portion and said second waveguide portion in the coupling region, thus inducing first predetermined environmental conditions, or not entirely overlaying both said first waveguide portion and said second waveguide portion in the coupling region, thus inducing second predetermined environmental conditions.
A connector device comprising: a connector housing having a terminal accommodating chamber ; a terminal configured to be accommodated in the terminal accommodating chamber ; a sheathed electric wire including an electric wire core wire made of aluminum and an insulating sheath made of resin or the like that covers the electric core wire , the insulating sheath at an end portion of the electric wire is peeled off to expose the core wire , wherein the electric wire is configured to be connected by laser welding to an electric wire coupling portion of the terminal at the exposed portion of the core wire ; a corrosion-proof material and a corrosion-proof material holding portion retaining the corrosion-proof material above the connector housing, wherein a melting point of the corrosion-proof material is set to be lower than a melting point of a material forming the connector housing, characterized in that the corrosion-proof material is to be disposed at a position facing the terminal accommodated in the terminal accommodating chamber and a corrosion proof target portion of the electric wire including a connection portion at which the terminal and the electric wire core wire are connected to each other, wherein the corrosion-proof material holding portion retains the corrosion-proof material such that the corrosion-proof material can be moved downward toward the corrosion-proof target portion, and wherein the corrosion-proof material is configured to be melted and then cured while covering the corrosion-proof target portion. a connector housing having a terminal accommodating chamber ; a terminal configured to be accommodated in the terminal accommodating chamber ; a sheathed electric wire including an electric wire core wire made of aluminum and an insulating sheath made of resin or the like that covers the electric core wire , the insulating sheath at an end portion of the electric wire is peeled off to expose the core wire , wherein the electric wire is configured to be connected by laser welding to an electric wire coupling portion of the terminal at the exposed portion of the core wire ; a corrosion-proof material and a corrosion-proof material holding portion retaining the corrosion-proof material above the connector housing, wherein a melting point of the corrosion-proof material is set to be lower than a melting point of a material forming the connector housing, characterized in that the corrosion-proof material is to be disposed at a position facing the terminal accommodated in the terminal accommodating chamber and a corrosion proof target portion of the electric wire including a connection portion at which the terminal and the electric wire core wire are connected to each other, wherein the corrosion-proof material holding portion retains the corrosion-proof material such that the corrosion-proof material can be moved downward toward the corrosion-proof target portion, and wherein the corrosion-proof material is configured to be melted and then cured while covering the corrosion-proof target portion.
A system for stacking sheets comprising: an input drive that receives sheets from a source and directs each of the sheets in a downstream direction at a selected input velocity; a gripper assembly having a plurality of gripper units , each with a jaw member that moves between an open and a closed, gripped, position, the jaw member having an extension finger that extends outwardly and downwardly into pressurable engagement with a top sheet at a stacking location and that defines a ramp for the sheet directed from the input drive , the gripper units being mounted on a continuously moving surface that locates each of the gripper units over the stacking location , moving in the downstream direction; and a controller that operates the moving surface so that one of the gripper units moves to a closed position when a downstream edge of a respective one of the sheets is located at the jaw member and that moves to an open position when the downstream edge is adjacent to a backstop in the stacking location . an input drive that receives sheets from a source and directs each of the sheets in a downstream direction at a selected input velocity; a gripper assembly having a plurality of gripper units , each with a jaw member that moves between an open and a closed, gripped, position, the jaw member having an extension finger that extends outwardly and downwardly into pressurable engagement with a top sheet at a stacking location and that defines a ramp for the sheet directed from the input drive , the gripper units being mounted on a continuously moving surface that locates each of the gripper units over the stacking location , moving in the downstream direction; and a controller that operates the moving surface so that one of the gripper units moves to a closed position when a downstream edge of a respective one of the sheets is located at the jaw member and that moves to an open position when the downstream edge is adjacent to a backstop in the stacking location .
A production method of a structure system which enables heat, sound and moisture insulation without having a thermal bridge and has its own load-bearing elements, comprising the steps of: - placing the exterior wall cladding; - placing the interior wall cladding such that there is a space between the exterior wall cladding and the interior wall cladding; - filling and drying a filling material in said space so as to partially or completely surround the main load-bearing system; and - providing expansion of the filling material such that it adheres to the interior wall cladding and exterior wall cladding, wherein the filling material does not adhere to the mould; characterized by comprising the steps of: - placing the main load-bearing system in at least one mould in such a way that there is a space between the main load-bearing system and the surfaces of the mould, wherein the mould limits the filling material so as to shape it; - integrating the main load-bearing system partially or completely into the space such that it does not contact the interior wall cladding and the exterior wall cladding; and - removing the mould after the drying process is completed. - placing the exterior wall cladding; - placing the interior wall cladding such that there is a space between the exterior wall cladding and the interior wall cladding; - filling and drying a filling material in said space so as to partially or completely surround the main load-bearing system; and - providing expansion of the filling material such that it adheres to the interior wall cladding and exterior wall cladding, wherein the filling material does not adhere to the mould; characterized by comprising the steps of: - placing the main load-bearing system in at least one mould in such a way that there is a space between the main load-bearing system and the surfaces of the mould, wherein the mould limits the filling material so as to shape it; - integrating the main load-bearing system partially or completely into the space such that it does not contact the interior wall cladding and the exterior wall cladding; and - removing the mould after the drying process is completed. - placing the main load-bearing system in at least one mould in such a way that there is a space between the main load-bearing system and the surfaces of the mould, wherein the mould limits the filling material so as to shape it; - integrating the main load-bearing system partially or completely into the space such that it does not contact the interior wall cladding and the exterior wall cladding; and - removing the mould after the drying process is completed.
Light-emitting diode comprising: - a stack of semiconductor layers including a first face and a second face that are opposite one another relative to a thickness of the stack , - a first electrode comprising a face in contact with the first face of the stack , and - a second electrode in contact with the stack , the stack comprising an active region able to generate photons, a layer of semiconductor material with doping of a first type and a layer of semiconductor material with doping of a second type, a recess being formed in the second face of the stack which results in that the stack comprises a thinned part , the face of the first electrode in contact with the first face being in contact only with the thinned part of the stack , the second electrode being in contact with a zone of the stack separate from said thinned part of the stack , the stack having a first thickness (d1) between its first and second faces and a second thickness d between a bottom of the recess and the first face , the second thickness d being strictly less than the first thickness, the thinned part of the stack comprising a first part linking the first electrode to a zone located in the active region of the stack and a second part extending from the first part to the bottom of the recess , characterized in that the recess is formed in the layer of semiconductor material with doping of a first type that has an electrical conductivity strictly greater than the electrical conductivity of the layer of semiconductor material with doping of a second type, and in that the second thickness d satisfy the following equation: d = z + L where z = k z . λ 2 n , d = k d . λ 2 n , and L being such that λ 2 n . k d − k z = L where k d > k z , k d and k z being positive integers other than 0, λ being a main emission wavelength during operation of the light-emitting diode, and n being an optical index of the stack determined at the main emission wavelength, the first part having a thickness equal to z and the second part having a thickness equal to L . - a stack of semiconductor layers including a first face and a second face that are opposite one another relative to a thickness of the stack , - a first electrode comprising a face in contact with the first face of the stack , and - a second electrode in contact with the stack ,
A radio station comprising: an interface unit configured to communicate control information for Coordinated Multi Point, CoMP, communication, in which a plurality of radio stations take part in data transmission/ reception with a single terminal, with at least one of a second radio station taking part in the Coordinated Multi Point, CoMP, communication and a control station managing the radio station , wherein the control information for the Coordinated Multi Point, CoMP, communication is cell specific information for a cell of the radio station, and wherein the radio station is configured to send, in preparing for performing CoMP transmission/ reception, a request for configuring a cooperating set, CoMP configuration request, to the second radio station , wherein the second radio station is configured to manage a neighbor cell, the radio station is configured to send, in case a response to the request for configuring the cooperating set, CoMP set configuration response, is returned from the second radio station to the radio station , the control information for the Coordinated Multi Point, CoMP, communication to the second radio station, and the the radio station is configured to receive control information for the Coordinated Multi Point, CoMP, communication from the second radio station . an interface unit configured to communicate control information for Coordinated Multi Point, CoMP, communication, in which a plurality of radio stations take part in data transmission/ reception with a single terminal, with at least one of a second radio station taking part in the Coordinated Multi Point, CoMP, communication and a control station managing the radio station , wherein the control information for the Coordinated Multi Point, CoMP, communication is cell specific information for a cell of the radio station, and wherein the radio station is configured to send, in preparing for performing CoMP transmission/ reception, a request for configuring a cooperating set, CoMP configuration request, to the second radio station , wherein the second radio station is configured to manage a neighbor cell, the radio station is configured to send, in case a response to the request for configuring the cooperating set, CoMP set configuration response, is returned from the second radio station to the radio station , the control information for the Coordinated Multi Point, CoMP, communication to the second radio station, and the the radio station is configured to receive control information for the Coordinated Multi Point, CoMP, communication from the second radio station .
A pharmaceutical formulation comprising AMG 416 hydrochloride: in aqueous solution, wherein the formulation has a pH of 2.0 to 5.0.
A lead rubber bearing, comprising: a deformable body comprising rubber layers laminated with metal reinforcement layers ; and at least one lead plug received in a hole formed through the laminated layers of the deformable body, wherein the deformable body has a thermally conductive interface in contact with the lead plug to provide thermal conduction between the lead plug and at least some of the metal reinforcement layers , characterized in that the thermally conductive interface includes at least one thermally conductive deformable portion in contact with at least one of the metal reinforcement layers , and exposed at an inner surface of the hole to be in contact with the lead plug , and wherein the thermally conductive deformable portion has: an inner part forming at least part of a wall of the hole receiving the lead plug ; and radial extensions belonging to the rubber layers of the deformable body laminated with the metal reinforcement layers . a deformable body comprising rubber layers laminated with metal reinforcement layers ; and at least one lead plug received in a hole formed through the laminated layers of the deformable body, wherein the deformable body has a thermally conductive interface in contact with the lead plug to provide thermal conduction between the lead plug and at least some of the metal reinforcement layers , characterized in that the thermally conductive interface includes at least one thermally conductive deformable portion in contact with at least one of the metal reinforcement layers , and exposed at an inner surface of the hole to be in contact with the lead plug , and wherein the thermally conductive deformable portion has: an inner part forming at least part of a wall of the hole receiving the lead plug ; and radial extensions belonging to the rubber layers of the deformable body laminated with the metal reinforcement layers . an inner part forming at least part of a wall of the hole receiving the lead plug ; and radial extensions belonging to the rubber layers of the deformable body laminated with the metal reinforcement layers .
An article of footwear having an upper and a sole structure secured to the upper , the sole structure comprising: a chamber defining an interior void for receiving a pressurised fluid, the chamber having a top portion , a bottom portion , and a side portion extending between the top portion and the bottom portion around a periphery of the chamber ; a central structure including a bonded area where the top portion of the chamber is joined to the bottom portion of the chamber to form a recess in the top portion of the chamber and a reinforcing member including an upper portion having a lower surface bonded to the top portion of the chamber and a support structure extending downward from the lower surface into the recess in the top portion of the chamber , wherein the upper portion of the reinforcing member comprises a rigid plate and the support structure is formed from a compressible material. a chamber defining an interior void for receiving a pressurised fluid, the chamber having a top portion , a bottom portion , and a side portion extending between the top portion and the bottom portion around a periphery of the chamber ; a central structure including a bonded area where the top portion of the chamber is joined to the bottom portion of the chamber to form a recess in the top portion of the chamber and a reinforcing member including an upper portion having a lower surface bonded to the top portion of the chamber and a support structure extending downward from the lower surface into the recess in the top portion of the chamber , wherein the upper portion of the reinforcing member comprises a rigid plate and the support structure is formed from a compressible material.
Riluzole or a pharmaceutically acceptable salt, solvate, anomer, enantiomer, hydrate or prodrug thereof and a checkpoint inhibitor for use in a method of treating cancer in a patient, wherein prodrugs of riluzole are compounds having the following formula; or an enantiomer, diastereomer, hydrate, solvate, pharmaceutically acceptable salt or complex thereof; wherein R 23 is selected from the group consisting H, CH 3 , CH 2 CH 3 , CH 2 CH 2 CH 3 , CH 2 CCH, CH(CH 3 ) 2 , CH 2 CH(CH 3 ) 2 , CH(CH 3 )CH 2 CH 3 , CH 2 OH, CH 2 OCH 2 Ph, CH 2 CH 2 OCH 2 Ph, CH(OH)CH 3 , CH 2 Ph, CH 2 (cyclohexyl), CH 2 (4-OH-Ph), (CH 2 ) 4 NH 2 , (CH 2 ) 3 NHC(NH 2 )NH, CH 2 (3-indole), CH 2 (5-imidazole), CH 2 CO 2 H, CH 2 CH 2 CO 2 H, CH 2 CONH 2 , and CH 2 CH 2 CONH 2 .
Prepolymerized catalyst component for the polymerization of olefins comprising a solid catalyst component which comprises Mg, Ti, and chlorine atoms and an electron donor (ID) said prepolymerized catalyst component being characterized by the fact that: - the electron donor (ID) comprises at least 80%mol of 1,3 diethers with respect to the total molar amount of electron donor compounds; - the prepolymerized catalyst has a porosity due to pores with diameters up to 1μm of less than 0.2 cm 3 /g and - the said prepolymerized catalysts component comprises an amount of ethylene prepolymer of less than 45% with respect to the total weight of prepolymerized catalyst. - the electron donor (ID) comprises at least 80%mol of 1,3 diethers with respect to the total molar amount of electron donor compounds; - the prepolymerized catalyst has a porosity due to pores with diameters up to 1μm of less than 0.2 cm 3 /g and - the said prepolymerized catalysts component comprises an amount of ethylene prepolymer of less than 45% with respect to the total weight of prepolymerized catalyst.