mhurhangee/ep-ind-claims huggingface dataset:
A method for receiving a downlink signal at a user equipment, UE, in a wireless communication system, the method comprising: receiving a physical downlink control channel, PDCCH, from a base station; and receiving a physical downlink shared channel, PDSCH, related to the PDCCH from the base station, wherein, based on a carrier receiving the PDSCH being indicated by a carrier indicator field, CIF, included in the PDCCH and based on the carrier receiving the PDSCH being different from a carrier receiving the PDCCH, a starting orthogonal frequency division multiplexing, OFDM, symbol of the PDSCH is indicated by a radio resource control, RRC, layer signal, and wherein, based on the carrier receiving the PDSCH not being indicated by the CIF included in the PDCCH, the starting OFDM symbol of the PDSCH is determined by a Control Format Indicator, CFI, received through a physical control format indicator channel. receiving a physical downlink control channel, PDCCH, from a base station; and receiving a physical downlink shared channel, PDSCH, related to the PDCCH from the base station, wherein, based on a carrier receiving the PDSCH being indicated by a carrier indicator field, CIF, included in the PDCCH and based on the carrier receiving the PDSCH being different from a carrier receiving the PDCCH, a starting orthogonal frequency division multiplexing, OFDM, symbol of the PDSCH is indicated by a radio resource control, RRC, layer signal, and wherein, based on the carrier receiving the PDSCH not being indicated by the CIF included in the PDCCH, the starting OFDM symbol of the PDSCH is determined by a Control Format Indicator, CFI, received through a physical control format indicator channel.
A movable support apparatus, supported on a floor and movable between at least two target stations, for receiving, moving and handing over rolls, winding shafts and/or machine reels intended for the handling of fiber web, the movable support apparatus comprising support members for holding up a load being handled (1, 4) at both its support ends, characterized in that the movable support apparatus is adapted to be supported on the floor with at least one air cushion element and the movable support apparatus is movable between at least two devices of a fiber web manufacturing process.
A process comprising: providing a down-flow configured reactor; reacting a hydrocarbon feedstock with aqueous nitric acid at a pressure of at least 500 psi (3,447 kPa) and a temperature of between 150 and 325 degrees Celsius; and recovering a formed nitrated compound, wherein the aqueous nitric acid is a 10 to 35 weight percent solution and the formed nitrated compound is a compound selected from formula I-1: wherein R 7 is linear C 2 -C 17 alkyl; and R 8 is H or linear C 1 -C 8 alkyl; provided that the total number of carbons in R 7 and R 8, together with the carbon to which they are attached, is 10 to 18; and the formed nitrated compound is not 1-nitrodecane, 2-nitrodecane, 1-nitroundecane, 2-nitroundecane, 3-nitroundecane, 4-nitroundecane, 5-nitroundecane, 6-nitroundecane, 1-nitrododecane, 2-nitrododecane, 3-nitrododecane, 4-nitrododecane, 5-nitrododecane, 6-nitrododecane, 1-nitrotridecane, 2-nitrotridecane, 3-nitrotridecane, 6-nitrotridecane, 1-nitrotetradecane, 1-nitropentadecane, 1-nitrohexadecane, 2-nitrohexadecane, 1-nitroheptadecane, 1-nitrooctadecane, or 2-nitrooctadecane. providing a down-flow configured reactor; reacting a hydrocarbon feedstock with aqueous nitric acid at a pressure of at least 500 psi (3,447 kPa) and a temperature of between 150 and 325 degrees Celsius; and recovering a formed nitrated compound, R 7 is linear C 2 -C 17 alkyl; and R 8 is H or linear C 1 -C 8 alkyl; the total number of carbons in R 7 and R 8, together with the carbon to which they are attached, is 10 to 18; and the formed nitrated compound is not 1-nitrodecane, 2-nitrodecane, 1-nitroundecane, 2-nitroundecane, 3-nitroundecane, 4-nitroundecane, 5-nitroundecane, 6-nitroundecane, 1-nitrododecane, 2-nitrododecane, 3-nitrododecane, 4-nitrododecane, 5-nitrododecane, 6-nitrododecane, 1-nitrotridecane, 2-nitrotridecane, 3-nitrotridecane, 6-nitrotridecane, 1-nitrotetradecane, 1-nitropentadecane, 1-nitrohexadecane, 2-nitrohexadecane, 1-nitroheptadecane, 1-nitrooctadecane, or 2-nitrooctadecane.
A handpiece, comprising: (i) a chamber having a powder and liquid (ii) the handpiece capable of activating the chamber such that the powder and the liquid are mixed into a paste, the handpiece further being capable of dispensing the paste from the chamber, characterized in that a) the mixing occurs through a planetary motion in the chamber, or b) the mixing occurs through an offset mixing chamber, wherein the chamber is a capsule, and the capsule is spun on a main axis which is offset from the mixing chamber axis. (i) a chamber having a powder and liquid (ii) the handpiece capable of activating the chamber such that the powder a) the mixing occurs through a planetary motion in the chamber, or b) the mixing occurs through an offset mixing chamber, wherein the chamber is a capsule, and the capsule is spun on a main axis which is offset from the mixing chamber axis.
A device for applying a lining strip with attached headbands (5 a) to the spine (1 a) of a book block in a book production line, • with a conveying device that laterally grips book blocks in cyclic intervals (L 0) and intermittently transports these book blocks in the longitudinal direction of the spine, • with a glue application device for the book block spine (1 a), and • with a lining and headbanding station consisting • of the feed device that assembles a material strip of lining material and headbands and transports this material strip into a supply position perpendicular to the conveying device, as well as an assigned cutting device for separating lining strips, and • of a transfer device that places a lining strip on the glued book block spine (1 a) of the stationary book block with the aid of a conveying means that carries out a reciprocating motion, characterized in • that a measuring device for determining the actual position of a book block to be lined is assigned to the conveying device for the book blocks, and in • that the conveying device features a separate drive that can be controlled by a control unit in dependence on the determined actual position of the book block and a definable nominal position in the lining and headbanding station, • wherein the nominal position for the book block can be defined in accordance with the edge position of the web material that is detected by detection means in the supply position. • with a conveying device that laterally grips book blocks in cyclic intervals (L 0) and intermittently transports these book blocks in the longitudinal direction of the spine, • with a glue application device for the book block spine (1 a), and • with a lining and headbanding station consisting • of the feed device that assembles a material strip of lining material and headbands and transports this material strip into a supply position perpendicular to the conveying device, as well as an assigned cutting device for separating lining strips, and • of a transfer device that places a lining strip on the glued book block spine (1 a) of the stationary book block with the aid of a conveying means that carries out a reciprocating motion, characterized in • that a measuring device for determining the actual position of a book block to be lined is assigned to the conveying device for the book blocks, and in • that the conveying device features a separate drive that can be controlled by a control unit in dependence on the determined actual position of the book block and a definable nominal position in the lining and headbanding station, • wherein the nominal position for the book block can be defined in accordance with the edge position of the web material that is detected by detection means in the supply position.
Method for the manufacture of wood fiber or mineral fiber based decorative substrates, comprising the steps of: (a) coating a substrate with a liquid reactive composition which can be digitally printed on after drying; (b) drying the reactive composition coated onto the substrate so as to form a basic layer having a permeability such that it may adsorb and release any condensation products formed during step (d) and (e); (c) digitally printing a decor onto the basic layer using a liquid ink; (d) drying or curing the liquid ink forming the digitally printed decor; and (e) coating the digitally printed decor with a overlay at conditions which ensure curing of both the basic layer and the overlay. (a) coating a substrate with a liquid reactive composition which can be digitally printed on after drying; (b) drying the reactive composition coated onto the substrate so as to form a basic layer having a permeability such that it may adsorb and release any condensation products formed during step (d) and (e); (c) digitally printing a decor onto the basic layer using a liquid ink; (d) drying or curing the liquid ink forming the digitally printed decor; and (e) coating the digitally printed decor with a overlay at conditions which ensure curing of both the basic layer and the overlay.
Device for the chip-removing processing of preferably metal workpieces, with a tool and a workpiece holder, wherein the tool for the chip-removing processing of the workpiece is movable along a predeterminable path of movement relative to a workpiece held in the workpiece holder, wherein the tool is able to pivot about a tool pivotal axis relative to a workpiece held in the workpiece holder, wherein the tool pivotal axis is oriented at least substantially perpendicularly to the path of movement, wherein the device is designed through pivoting the tool relative to the workpiece about the tool pivotal axis to correct the alignment of the cutter of the tool according to the contour of the path of movement, wherein the tool holder, in which the tool is received, is received on a linear drive of the device, which (drive) in turn is itself held on a tool carrier of the device and is able to pivot about a linear drive pivotal axis characterised in that the tool carrier is movable in three spatial directions (X, Y, Z) and that the device has a further linear drive which is mounted on the tool carrier where it can pivot about a linear drive pivotal axis.
An adapter assembly for selectively interconnecting a surgical end effector and a surgical device, the adapter assembly comprising: a housing configured for connection with a surgical device and to be in operative communication with a rotatable drive shaft of the surgical device; an inner tube having a proximal portion supported by the housing and extending from the housing, the inner tube defining an internal cavity and having a heat dissipation feature; a distal coupling assembly disposed at a distal portion of the inner tube, the distal coupling assembly configured to couple to an end effector; and a drive converter for interconnecting the rotatable drive shaft of the surgical device and an axially translatable drive member of the end effector, the drive converter at least partially disposed within the internal cavity of the inner tube and including a proximal portion configured to couple to the rotatable drive shaft of the surgical device and a distal portion configured to couple to the axially translatable drive member of the end effector, wherein the driver converter is configured to convert and transmit a rotation of the rotatable drive shaft of the surgical device to an axial translation of the axially translatable drive member of the end effector, characterized in that the heat dissipation feature is a plurality of annular grooves formed on the outer surface of the inner tube whereby heat generated by the drive converter is dissipated by the heat dissipation feature of the inner tube. a housing configured for connection with a surgical device and to be in operative communication with a rotatable drive shaft of the surgical device; an inner tube having a proximal portion supported by the housing and extending from the housing, the inner tube defining an internal cavity and having a heat dissipation feature; a distal coupling assembly disposed at a distal portion of the inner tube, the distal coupling assembly configured to couple to an end effector; and a drive converter for interconnecting the rotatable drive shaft of the surgical device and an axially translatable drive member of the end effector, the drive converter at least partially disposed within the internal cavity of the inner tube and including a proximal portion configured to couple to the rotatable drive shaft of the surgical device and a distal portion configured to couple to the axially translatable drive member of the end effector, wherein the driver converter is configured to convert and transmit a rotation of the rotatable drive shaft of the surgical device to an axial translation of the axially translatable drive member of the end effector, characterized in that the heat dissipation feature is a plurality of annular grooves formed on the outer surface of the inner tube whereby heat generated by the drive converter is dissipated by the heat dissipation feature of the inner tube.
A remote handle assembly (20; 20') for selectively unlocking a component in a seat assembly for an automotive vehicle, the remote handle assembly (20; 20') comprising: a handle bracket (26; 26') having a hole (70; 70') extending laterally through the handle bracket (26; 26'); a pulley having a pivot hole extending axially through the pulley; a handle spline having a passageway extending axially through the handle spline; and a pin (78; 78') extending through the passageway in the handle spline, the pivot hole in the pulley, and the hole (70; 70') in the handle bracket (26; 26'), wherein the pulley is pivotably coupled to the pin (78; 78') between an unactuated position and an actuated position and the handle spline is pivotably coupled to the pin (78; 78') between an unactuated position and an actuated position and the pin (78; 78') is fixedly coupled to the handle bracket (26; 26') and is configured to retain the handle bracket (26; 26'), the pulley and the handle spline together, wherein the passageway in the handle spline is butterfly-shaped in cross-section and a portion of the pin (78; 78') in the passageway has a double d-shape in cross section. a handle bracket (26; 26') having a hole (70; 70') extending laterally through the handle bracket (26; 26'); a pulley having a pivot hole extending axially through the pulley; a handle spline having a passageway extending axially through the handle spline; and a pin (78; 78') extending through the passageway in the handle spline, the pivot hole in the pulley, and the hole (70; 70') in the handle bracket (26; 26'), wherein the pulley is pivotably coupled to the pin (78; 78') between an unactuated position and an actuated position and the handle spline is pivotably coupled to the pin (78; 78') between an unactuated position and an actuated position and the pin (78; 78') is fixedly coupled to the handle bracket (26; 26') and is configured to retain the handle bracket (26; 26'), the pulley and the handle spline together, wherein the passageway in the handle spline is butterfly-shaped in cross-section and a portion of the pin (78; 78') in the passageway has a double d-shape in cross section.
A test and measurement system, comprising: a test and measurement instrument; a probe connected to the test and measurement instrument, the probe having a fixed impedance; a device under test connected to the probe; at least one memory (306, 308) configured to store parameters for characterizing the probe; a user interface configured to receive a nominal source impedance of the device under test; and a processor configured to receive the parameters for characterizing the probe from the memory and the nominal source impedance of the device under test from the user interface and to calculate an equalization filter using the parameters for characterizing the probe and nominal source impedance from the user interface. a test and measurement instrument; a probe connected to the test and measurement instrument, the probe having a fixed impedance; a device under test connected to the probe; at least one memory (306, 308) configured to store parameters for characterizing the probe; a user interface configured to receive a nominal source impedance of the device under test; and a processor configured to receive the parameters for characterizing the probe from the memory and the nominal source impedance of the device under test from the user interface and to calculate an equalization filter using the parameters for characterizing the probe and nominal source impedance from the user interface.
Hub for at least partially muscle-powered vehicles and in particular bicycles comprising a hub shell rotatably supported relative to a hub axle, a rotor rotatably supported relative to, and on, the hub axle by at least two rotor bearings, and a freewheel device having two interacting freewheel components (10, 20) namely, a hub-side freewheel component and a rotor-side freewheel component, wherein the two freewheel components (10, 20) each comprise axial engagement components for intermeshing with one another, wherein the hub-side freewheel component is non-rotatably und axially fixedly connected with the hub shell, wherein the rotor-side freewheel component is non-rotatably connected with the rotor and is movable in the axial direction relative to the rotor and the hub shell at least between a freewheel position and an engagement position, and wherein the hub-side freewheel component provides for defined accommodation of rolling members to support the hub shell relative to the hub axle, characterized in that the hub-side freewheel component has an axial body section with an inner central receiving space and a bearing seat formed thereon and a roller bearing received thereon to rotatably support the hub shell, and that the hub-side freewheel component is connected with the hub shell through a multiple thread showing at least two separate, axially spaced-apart thread grooves. and a freewheel device having two interacting freewheel components (10, 20) namely, a hub-side freewheel component and a rotor-side freewheel component, wherein the two freewheel components (10, 20) each comprise axial engagement components for intermeshing with one another, wherein the hub-side freewheel component is non-rotatably und axially fixedly connected with the hub shell, wherein the rotor-side freewheel component is non-rotatably connected with the rotor and is movable in the axial direction relative to the rotor and the hub shell at least between a freewheel position and an engagement position, and wherein the hub-side freewheel component provides for defined accommodation of rolling members to support the hub shell relative to the hub axle, characterized in that the hub-side freewheel component has an axial body section with an inner central receiving space and a bearing seat formed thereon and a roller bearing received thereon to rotatably support the hub shell, and that the hub-side freewheel component is connected with the hub shell through a multiple thread showing at least two separate, axially spaced-apart thread grooves.
A thermal management component (81, 82; 91, 92, 300, 400, 500), applicable to a battery comprising two layers of outer battery units (13, 15; 130, 150; 131, 151) and at least one layer of intermediate battery units (14, 16, 17; 140; 141) arranged between the two layers of the outer battery units (13, 15; 130, 150; 131, 151), comprising: a set of first heat exchange surfaces (310, 410, 510), each configured to cooperate with one of the outer battery units (13, 15; 130, 150; 131, 151) located on one side of the thermal management component (81, 82; 91, 92, 300, 400, 500) for temperature regulation; and a set of second heat exchange surfaces (320, 420, 520), each configured to cooperate with one of the intermediate battery units (14, 16, 17) located on the other side of the thermal management component (81, 82; 91, 92, 300, 400, 500) for temperature regulation; wherein each of the first heat exchange surfaces has a surface area S1, and each of the second heat exchange surfaces has a surface area S2, where S1 is greater than S2. a set of first heat exchange surfaces (310, 410, 510), each configured to cooperate with one of the outer battery units (13, 15; 130, 150; 131, 151) located on one side of the thermal management component (81, 82; 91, 92, 300, 400, 500) for temperature regulation; and a set of second heat exchange surfaces (320, 420, 520), each configured to cooperate with one of the intermediate battery units (14, 16, 17) located on the other side of the thermal management component (81, 82; 91, 92, 300, 400, 500) for temperature regulation; wherein each of the first heat exchange surfaces has a surface area S1, and each of the second heat exchange surfaces has a surface area S2, where S1 is greater than S2.
A system for supplementing a fixed fuel source for an engine with a motor-generator, the system comprising: a motor-generator including a motor and a generator; an engine; a mechanical load device driven by the engine; and a controller characterized in that the engine is configured to provide a first torque from a fixed fuel source from an independent variable flow input, wherein the fixed fuel source is independent of the engine and set external to the engine; that the mechanical load device is configured to require a second torque defined by an independent flow device; and that the controller is configured to compare the first torque and the second torque, provide a first control signal to the motor to provide power to the engine when the second torque exceeds the first torque and provide a second control signal to the generator to draw power from the engine when the first torque exceeds the second torque. a motor-generator including a motor and a generator; an engine; a mechanical load device driven by the engine; and a controller characterized in that the engine is configured to provide a first torque from a fixed fuel source from an independent variable flow input, wherein the fixed fuel source is independent of the engine and set external to the engine; that the mechanical load device is configured to require a second torque defined by an independent flow device; and that the controller is configured to compare the first torque and the second torque, provide a first control signal to the motor to provide power to the engine when the second torque exceeds the first torque and provide a second control signal to the generator to draw power from the engine when the first torque exceeds the second torque.
Use of a cleaning liquid for photolithography for cleaning a photoexposure device in a process of liquid immersion lithography that comprises filling the space between the optical lens member of a photoexposure device and an object for photoexposure mounted on the wafer stage, with a medium for liquid immersion lithography; the cleaning liquid comprising (a) 0.01 to 5% by mass of a surfactant, (b) 0.01 to 5% by mass of a hydrocarbon solvent, and (c) water as the balance. filling the space between the optical lens member of a photoexposure device and an object for photoexposure mounted on the wafer stage, with a medium for liquid immersion lithography; the cleaning liquid comprising (a) 0.01 to 5% by mass of a surfactant, (b) 0.01 to 5% by mass of a hydrocarbon solvent, and (c) water as the balance. (a) 0.01 to 5% by mass of a surfactant, (b) 0.01 to 5% by mass of a hydrocarbon solvent, and (c) water as the balance.