mhurhangee/patent-ind-claim-en huggingface dataset:
A device used to handle articles to be packaged, the device comprising - at least one work module , which can move packages of a first packaging type with articles placed thereonto, and which work module has at least one folding mechanism used to erect back and/or front flaps, which are formed by the packages of the first packaging type, as well as comprising - at least one transport module , which comprises a transport means , along which articles intended for packages of a second packaging type are movable, which second packaging type differs from the first packaging type, wherein it is provided that - the at least one folding mechanism of the at least one work module and the transport means of the at least one transport module are movable back and forth, alternating between a particular operating position (BP) and a particular waiting position (WP), such that either the at least one folding mechanism of the at least one work module or the transport means of the at least one transport module is situated in its particular operating position (BP), the device being characterised in that - the operating positions (BP) and the waiting positions (WP) are configured in such a manner that the at least one folding mechanism of the at least one work module is disposed exclusively adjacent to the right side or to the left side of the transport means of the at least one transport module . - at least one work module , which can move packages of a first packaging type with articles placed thereonto, and which work module has at least one folding mechanism used to erect back and/or front flaps, which are formed by the packages of the first packaging type, as well as comprising - at least one transport module , which comprises a transport means , along which articles intended for packages of a second packaging type are movable, which second packaging type differs from the first packaging type, wherein it is provided that - the at least one folding mechanism of the at least one work module and the transport means of the at least one transport module are movable back and forth, alternating between a particular operating position (BP) and a particular waiting position (WP), such that either the at least one folding mechanism of the at least one work module or the transport means of the at least one transport module is situated in its particular operating position (BP), the device being characterised in that - the operating positions (BP) and the waiting positions (WP) are configured in such a manner that the at least one folding mechanism of the at least one work module is disposed exclusively adjacent to the right side or to the left side of the transport means of the at least one transport module .
A pad spring for a brake pad assembly , the pad spring having a straight intermediate portion having opposite first and second ends and defining a plane (P), a first arm extending, without discontinuity, from the first end of the intermediate portion , inclined out of the plane (P) and a second arm extending without discontinuity from the second end of the intermediate portion inclined out of the plane (P) on the same side of the plane (P) as the first arm , each arm having an intermediate portion end and an opposite, free end , the free end of each arm curving outwardly relative to the intermediate portion and back towards the plane (P), each curved end describing an angle of at least 120°. a straight intermediate portion having opposite first and second ends and defining a plane (P), a first arm extending, without discontinuity, from the first end of the intermediate portion , inclined out of the plane (P) and a second arm extending without discontinuity from the second end of the intermediate portion inclined out of the plane (P) on the same side of the plane (P) as the first arm , each arm having an intermediate portion end and an opposite, free end , the free end of each arm curving outwardly relative to the intermediate portion and back towards the plane (P), each curved end describing an angle of at least 120°.
A fluid composition for a vibration dampener, said composition comprising: a base stock comprising a glycol selected from ethylene glycol, diethylene glycol, propylene glycol, butylene glycol, and any combination thereof; and a polymer having a viscosity index from 50 to 180 as measured in accordance with ASTM D 2270-10e1 and comprising the reaction product of an initiator having at least one acidic proton, and alkylene oxides reactive with said at least one acidic proton of said initiator and selected from the group of ethylene oxide, propylene oxide, and butylene oxide; wherein said composition provides a four-ball wear test scar of less than 1 millimeter, said four-ball wear test measured in accordance with ASTM D4172 and wherein the composition has less than 5 wt% water based on 100 parts by weight of the composition. a base stock comprising a glycol selected from ethylene glycol, diethylene glycol, propylene glycol, butylene glycol, and any combination thereof; and a polymer having a viscosity index from 50 to 180 as measured in accordance with ASTM D 2270-10e1 and comprising the reaction product of an initiator having at least one acidic proton, and alkylene oxides reactive with said at least one acidic proton of said initiator and selected from the group of ethylene oxide, propylene oxide, and butylene oxide; an initiator having at least one acidic proton, and alkylene oxides reactive with said at least one acidic proton of said initiator and selected from the group of ethylene oxide, propylene oxide, and butylene oxide; wherein said composition provides a four-ball wear test scar of less than 1 millimeter, said four-ball wear test measured in accordance with ASTM D4172 and wherein the composition has less than 5 wt% water based on 100 parts by weight of the composition.
A rotation angle sensor comprising: a rotary shaft , one or several permanent magnets (12; 12a, 12b, 12c), secured to the rotary shaft and oriented along an axis different from an axis of rotation (X) of the rotary shaft , and one or several electrically conductive turns disposed around the rotary shaft , and wherein each turn (13; 13a, 13b, 13c) corresponds to one of the permanent magnets (12; 12a, 12b, 12c) and intersects a plane (P R ) perpendicular to the axis of rotation (X). a rotary shaft , one or several permanent magnets (12; 12a, 12b, 12c), secured to the rotary shaft and oriented along an axis different from an axis of rotation (X) of the rotary shaft , and one or several electrically conductive turns disposed around the rotary shaft , and wherein each turn (13; 13a, 13b, 13c) corresponds to one of the permanent magnets (12; 12a, 12b, 12c) and intersects a plane (P R ) perpendicular to the axis of rotation (X).
An imaging apparatus , comprising: an imaging substrate provided with an imaging device that produces image data, the imaging substrate including the imaging device and a first connector and being arranged so that an imaging surface of the imaging device is positioned on an image-forming plane of a lens ; an intermediate substrate including a second connector connected to the first connector , movement of the intermediate substrate is restricted by the imaging substrate due to the latter being connected through the first connector with the second connector ; and a connector substrate movably connected to the intermediate substrate within a predetermined range in a direction intersecting a first direction, the connector substrate including a terminal configured to be connectable in the first direction to an external connector to which the image data is output, being connected to the intermediate substrate via at least one of a rigid-flexible substrate , a cable or a wiring harness, and being movable in the direction intersecting the first direction to the intermediate substrate . an imaging substrate provided with an imaging device that produces image data, the imaging substrate including the imaging device and a first connector and being arranged so that an imaging surface of the imaging device is positioned on an image-forming plane of a lens ; an intermediate substrate including a second connector connected to the first connector , movement of the intermediate substrate is restricted by the imaging substrate due to the latter being connected through the first connector with the second connector ; and a connector substrate movably connected to the intermediate substrate within a predetermined range in a direction intersecting a first direction, the connector substrate including a terminal configured to be connectable in the first direction to an external connector to which the image data is output, being connected to the intermediate substrate via at least one of a rigid-flexible substrate , a cable or a wiring harness, and being movable in the direction intersecting the first direction to the intermediate substrate .
A shipping member for use with a loading unit which includes a housing containing a staple cartridge assembly and a staple pusher assembly, the shipping member comprising: a base including a staple retaining surface; an annular extension extending proximally from the base and including first and second arms(130, 140; 330, 340) for frictionally engaging the housing of the loading unit, ; and first and second legs (160, 170; 260, 270; 360, 370) extending proximally from the base and each including radially inward extending tabs projecting therefrom for engaging the staple pusher assembly of the loading unit. a base including a staple retaining surface; an annular extension extending proximally from the base and including first and second arms(130, 140; 330, 340) for frictionally engaging the housing of the loading unit, ; and first and second legs (160, 170; 260, 270; 360, 370) extending proximally from the base and each including radially inward extending tabs projecting therefrom for engaging the staple pusher assembly of the loading unit.
An in vitro method for diagnosing a disease, preferably a disease associated with neurological symptoms, comprising the step detecting in a sample comprising antibodies from a patient an autoantibody binding to Inositol trisphosphate receptor type 1 (ITPR1) as defined by the Uniprot data base code Q14643,wherein the disease is paraneoplastic neurological syndrome preferably associated with breast carcinoma, wherein detection of the autoantibody indicates an increased likelihood that the patient suffers from the disease.
Rotary electric machine, in particular for a motor vehicle, having: - a stator having a body and a coil , the coil being provided with a plurality of phase windings formed by at least one conductor covered with an insulating layer , - an interconnector establishing an electrical link for at least two winding ends belonging to two distinct phase windings , wherein the interconnector has a body and at least one lower strut and one upper strut , said struts protruding axially relative to an axis (X) of the electric machine, on either side of the body of the interconnector , the lower strut coming to bear against an axial end face of the stator body , the upper strut coming to bear against a bearing of the electric machine, in order to ensure the interconnector is fitted tightly into the electric machine, the lower strut and the upper strut each having a free first end and a second end connected to the body . - a stator having a body and a coil , the coil being provided with a plurality of phase windings formed by at least one conductor covered with an insulating layer , - an interconnector establishing an electrical link for at least two winding ends belonging to two distinct phase windings ,
An apparatus comprising: a plurality of multi-level output line drivers , each multi-level output line driver of the plurality of multi-level output line drivers configured to generate a signal corresponding to a symbol of a codeword on a respective wire of a multi-wire bus, each multi-level output line driver comprising: a plurality of driver slices arranged in parallel, each driver slice having a digital driver input and a slice output wherein each driver slice comprises: a plurality of resistive elements having a first and a second end, the first end of each of the resistive elements being connected to the driver slice output; and, for each resistive element, a voltage switching circuit connected to the second end of the resistive element, the voltage switching circuit configured to selectively couple the second end of the resistive element to a respective constant-voltage node in a group of at least two constant-voltage nodes, the voltage switching circuit being controlled by the digital driver input; an adjustable delay circuit configured to receive a transmit clock and to responsively generate a skew pre-compensated transmit clock having an offset with respect to at least one other skew pre-compensated transmit clock in a different multi-level output line driver of the plurality of multi-level output line drivers ; and a common output node connected to the plurality of driver slice outputs and the respective wire of the multi-wire bus. a plurality of driver slices arranged in parallel, each driver slice having a digital driver input and a slice output wherein each driver slice comprises: a plurality of resistive elements having a first and a second end, the first end of each of the resistive elements being connected to the driver slice output; and, for each resistive element, a voltage switching circuit connected to the second end of the resistive element, the voltage switching circuit configured to selectively couple the second end of the resistive element to a respective constant-voltage node in a group of at least two constant-voltage nodes, the voltage switching circuit being controlled by the digital driver input; a plurality of resistive elements having a first and a second end, the first end of each of the resistive elements being connected to the driver slice output; and, for each resistive element, a voltage switching circuit connected to the second end of the resistive element, the voltage switching circuit configured to selectively couple the second end of the resistive element to a respective constant-voltage node in a group of at least two constant-voltage nodes, the voltage switching circuit being controlled by the digital driver input; an adjustable delay circuit configured to receive a transmit clock and to responsively generate a skew pre-compensated transmit clock having an offset with respect to at least one other skew pre-compensated transmit clock in a different multi-level output line driver of the plurality of multi-level output line drivers ; and a common output node connected to the plurality of driver slice outputs and the respective wire of the multi-wire bus.
A method performed by a terminal in a wireless communication system, the method comprising: receiving channel state information reference signal, CSI-RS, configuration information from a base station; receiving a CSI-RS for tracking based on the CSI-RS configuration information from the base station; and acquiring at least one of downlink frequency or time synchronization associated with the base station based on the CSI-RS for tracking, wherein a number of an antenna port corresponding to the CSI-RS for tracking is 1, and wherein a difference between subcarrier indices of resource elements, REs, for the CSI-RS for tracking is 4 in an orthogonal frequency division multiplexing, OFDM, symbol, and a difference between OFDM symbol indices of the REs for the CSI-RS is 4. receiving channel state information reference signal, CSI-RS, configuration information from a base station; receiving a CSI-RS for tracking based on the CSI-RS configuration information from the base station; and acquiring at least one of downlink frequency or time synchronization associated with the base station based on the CSI-RS for tracking, wherein a number of an antenna port corresponding to the CSI-RS for tracking is 1, and wherein a difference between subcarrier indices of resource elements, REs, for the CSI-RS for tracking is 4 in an orthogonal frequency division multiplexing, OFDM, symbol, and a difference between OFDM symbol indices of the REs for the CSI-RS is 4.
A composition, comprising an antibody that specifically recognizes a myosin regulatory light chain polypeptide (which is hereinafter abbreviated as Myl), selected from the group consisting of Myl9, Myl12a and Myl12b, and inhibits binding of Myl9, Myl12a or Myl12b to CD69, wherein the antibody specifically recognizes a partial amino acid sequence of Myl9, Myl12a, or Myl12b, and the partial amino acid sequence is the amino acid sequence of SEQ ID NO: 24.
An electronic apparatus comprising: an exterior body having a sidewall ; a pressure-sensitive sensor having a sensing face , wherein the pressure-sensitive sensor includes an electrostatic-capacity-type sensor electrode unit having an elongated rectangular shape and a plurality of sensing units ; a first reference electrode layer opposed to a first main face of the sensor electrode unit ; a second reference electrode layer opposed to a second main face of the sensor electrode unit ; and a deformable layer provided at least either between the first reference electrode layer and the sensor electrode unit or between the second reference electrode layer and the sensor electrode unit , the deformable layer being elastically deformed by application of pressure; and a support supporting the pressure-sensitive sensor such that an inner face of the sidewall of the exterior body is opposed to the sensing face , wherein the sidewall of the exterior body is capable of pressing the sensing face such that the exterior body presses against the sensing face . an exterior body having a sidewall ; a pressure-sensitive sensor having a sensing face , wherein the pressure-sensitive sensor includes an electrostatic-capacity-type sensor electrode unit having an elongated rectangular shape and a plurality of sensing units ; a first reference electrode layer opposed to a first main face of the sensor electrode unit ; a second reference electrode layer opposed to a second main face of the sensor electrode unit ; and a deformable layer provided at least either between the first reference electrode layer and the sensor electrode unit or between the second reference electrode layer and the sensor electrode unit , the deformable layer being elastically deformed by application of pressure; and an electrostatic-capacity-type sensor electrode unit having an elongated rectangular shape and a plurality of sensing units ; a first reference electrode layer opposed to a first main face of the sensor electrode unit ; a second reference electrode layer opposed to a second main face of the sensor electrode unit ; and a deformable layer provided at least either between the first reference electrode layer and the sensor electrode unit or between the second reference electrode layer and the sensor electrode unit , the deformable layer being elastically deformed by application of pressure; and a support supporting the pressure-sensitive sensor such that an inner face of the sidewall of the exterior body is opposed to the sensing face , wherein the sidewall of the exterior body is capable of pressing the sensing face such that the exterior body presses against the sensing face .
A check valve comprising: a valve body defining a fluid flow path (FP) and provided with a valve seat , wherein the valve body is of generally tubular configuration having an inner circumferential surface and the valve seat comprises a portion of the inner circumferential surface , a valve member located in the valve body ; the valve member having a valve stop having a circumferential surface configured to seal against the valve seat, wherein one of the valve seat and the valve stop circumferential surface is tapered; and a coupling mechanism coupling the valve member to the valve body , the coupling mechanism arranged to allow the valve member to move linearly in an axial direction relative to the valve body onto and off of the valve seat and maintain a fixed rotational relationship with the valve body , characterized in that the valve stop has a plurality of holes through which a liquid can flow when the check valve is in an open configuration with the valve body and off of the valve seat .
An electronic device comprising: a coil unit ; a power transmission circuit electrically connected to the coil unit; and a control circuit configured to wirelessly transmit power using the coil unit, wherein the coil unit includes: a first coil wound in a first shape by a first number of turns the first shape including a first layer and a second layer having an area narrower than the area of the first layer, and a second coil wound in a second shape by a second number of turns, the second shape includes a third layer disposed to be substantially coplanar with the second layer, the second coil being disposed to overlap at least a portion of the first layer, wherein the first layer, the second layer, and the third layer include a helical wire, and include a shape of a part of at least one of a circle, an ellipse, or a polygon, characterized in that a diameter of the helical wire forming the first layer or the second layer differs from a diameter of the helical wire forming the third layer. a coil unit ; a power transmission circuit electrically connected to the coil unit; and a control circuit configured to wirelessly transmit power using the coil unit, wherein the coil unit includes: a first coil wound in a first shape by a first number of turns the first shape including a first layer and a second layer having an area narrower than the area of the first layer, and a second coil wound in a second shape by a second number of turns, the second shape includes a third layer disposed to be substantially coplanar with the second layer, the second coil being disposed to overlap at least a portion of the first layer, wherein the first layer, the second layer, and the third layer include a helical wire, and include a shape of a part of at least one of a circle, an ellipse, or a polygon, a first coil wound in a first shape by a first number of turns the first shape including a first layer and a second layer having an area narrower than the area of the first layer, and a second coil wound in a second shape by a second number of turns, the second shape includes a third layer disposed to be substantially coplanar with the second layer, the second coil being disposed to overlap at least a portion of the first layer, wherein the first layer, the second layer, and the third layer include a helical wire, and include a shape of a part of at least one of a circle, an ellipse, or a polygon, characterized in that a diameter of the helical wire forming the first layer or the second layer differs from a diameter of the helical wire forming the third layer.
An airfoil for a gas turbine engine, comprising a core structure , the core structure including: an airfoil portion defining at least a portion of an airfoil profile, the airfoil portion having first and second opposed ends and first and second airfoil sections ; and a support wall extending from the first end ; wherein the airfoil further comprises an endwall panel attached to the support wall adjacent the airfoil portion , characterised in that : the second airfoil section is removeably attached with the core structure via insertion through an opening in the support wall and held in place using a retainer which includes a fastener . an airfoil portion defining at least a portion of an airfoil profile, the airfoil portion having first and second opposed ends and first and second airfoil sections ; and a support wall extending from the first end ; wherein the airfoil further comprises an endwall panel attached to the support wall adjacent the airfoil portion , characterised in that : the second airfoil section is removeably attached with the core structure via insertion through an opening in the support wall and held in place using a retainer which includes a fastener .