mhurhangee/ep-ind-claims huggingface dataset:
A sheet-stacking apparatus comprising: a conveying portion (110, 124) configured to convey a sheet; a plurality of stacking portions (112a, 112b), each stacking portion suitable for holding a stack of sheets; an elevating means configured to separately move the plurality of stacking portions (112a, 112b) up and down, the elevating means including support members (131a, 131b) capable of supporting each stacking portion (112a, 112b, and a single dolly on which the plurality of stacking portions (112a, 112b) can be mounted, wherein a sheet conveyed by the conveying portion is capable of being stacked on each stacking portion, and is capable of being stacked across the plurality of stacking portions, each stacking portion (112a, 112b) can be removed from each of the support members (131a, 131b) and taken out from the sheet-stacking apparatus, and the elevating means is operable to move down the support members, across which sheets are stacked, to a predetermined take-out position to pass the plurality of stacking portions, across which the sheets are stacked, onto the single dolly set under the stacking portions, the sheet-stacking apparatus characterized in that the plurality of stacking portions (112a, 112b) mounted on the single dolly, across which the sheets are stacked, can be taken out from the sheet-stacking apparatus by carrying the single dolly out from the sheet-stacking apparatus. a conveying portion (110, 124) configured to convey a sheet; a plurality of stacking portions (112a, 112b), each stacking portion suitable for holding a stack of sheets; an elevating means configured to separately move the plurality of stacking portions (112a, 112b) up and down, the elevating means including support members (131a, 131b) capable of supporting each stacking portion (112a, 112b, and a single dolly on which the plurality of stacking portions (112a, 112b) can be mounted, wherein a sheet conveyed by the conveying portion is capable of being stacked on each stacking portion, and is capable of being stacked across the plurality of stacking portions, each stacking portion (112a, 112b) can be removed from each of the support members (131a, 131b) and taken out from the sheet-stacking apparatus, and the elevating means is operable to move down the support members, across which sheets are stacked, to a predetermined take-out position to pass the plurality of stacking portions, across which the sheets are stacked, onto the single dolly set under the stacking portions, the sheet-stacking apparatus characterized in that the plurality of stacking portions (112a, 112b) mounted on the single dolly, across which the sheets are stacked, can be taken out from the sheet-stacking apparatus by carrying the single dolly out from the sheet-stacking apparatus.
An aerosol provision device comprising: a plurality of electrical components; a heating assembly comprising a heater component for heating aerosol generating material; and a battery to power the plurality of electrical components and the heating assembly; wherein the plurality of electrical components comprises a controller; characterised in that: the heating assembly comprises at least one coil (124, 126) configured to generate, in use, a varying magnetic field for penetrating and inductively heating the heater component, the heater component comprising a susceptor, the heating assembly further comprising an insulating member which at least partially surrounds the susceptor; and in use, the power consumption of the plurality of electrical components is less than 0.25W, wherein the plurality of electrical components comprises a plurality of LEDs and wherein each LED has a power consumption of less than 10mW at maximum intensity; wherein in use, an outer surface of the device remains below 48°C. a plurality of electrical components; a heating assembly comprising a heater component for heating aerosol generating material; and a battery to power the plurality of electrical components and the heating assembly; wherein the plurality of electrical components comprises a controller; the heating assembly comprises at least one coil (124, 126) configured to generate, in use, a varying magnetic field for penetrating and inductively heating the heater component, the heater component comprising a susceptor, the heating assembly further comprising an insulating member which at least partially surrounds the susceptor; and in use, the power consumption of the plurality of electrical components is less than 0.25W, wherein the plurality of electrical components comprises a plurality of LEDs and wherein each LED has a power consumption of less than 10mW at maximum intensity; wherein in use, an outer surface of the device remains below 48°C.
A cab for a heavy vehicle comprising: • a structure (3, 4) which internally defines a habitable volume and comprises an opening for selectively establishing communication of said habitable volume with the outside of the cab; and • a storage box arranged inside said habitable volume in an extended configuration, in which it delimits a first space selectively accessible by means of said opening, and carried by said structure; wherein said box is configurable between said extended configuration and a collapsed configuration, in which it occupies a second space reduced with respect to said first space; characterized in that said box comprises a first wall carried by said structure (4, 3) in a fixed position and a foldable structural assembly coupled to said first wall. • a structure (3, 4) which internally defines a habitable volume and comprises an opening for selectively establishing communication of said habitable volume with the outside of the cab; and • a storage box arranged inside said habitable volume in an extended configuration, in which it delimits a first space selectively accessible by means of said opening, and carried by said structure; wherein said box is configurable between said extended configuration and a collapsed configuration, in which it occupies a second space reduced with respect to said first space; characterized in that said box comprises a first wall carried by said structure (4, 3) in a fixed position and a foldable structural assembly coupled to said first wall. wherein said box is configurable between said extended configuration and a collapsed configuration, in which it occupies a second space reduced with respect to said first space; characterized in that said box comprises a first wall carried by said structure (4, 3) in a fixed position and a foldable structural assembly coupled to said first wall.
A method for forming a lipid bilayer for use in a nanopore sensor, comprising: (a) directing a buffer solution in one or more flow channels comprising an electrode having a material layer thereon, wherein said buffer solution is electrically conductive and wherein said material layer comprises one or more lipids; (b) bringing said buffer solution in contact with said material layer; (c) measuring a current through said electrode to determine if at least a portion of said material layer has formed a lipid bilayer adjacent to said electrode; and (d) based on the determination of (c), applying a stimulus to said electrode to induce said at least the portion of the material layer to form said lipid bilayer adjacent to said electrode. (a) directing a buffer solution in one or more flow channels comprising an electrode having a material layer thereon, wherein said buffer solution is electrically conductive and wherein said material layer comprises one or more lipids; (b) bringing said buffer solution in contact with said material layer; (c) measuring a current through said electrode to determine if at least a portion of said material layer has formed a lipid bilayer adjacent to said electrode; and (d) based on the determination of (c), applying a stimulus to said electrode to induce said at least the portion of the material layer to form said lipid bilayer adjacent to said electrode.
A process for the preparation of pyrvinium pamoate salt of formula, which comprises reacting pyrvinium methyl sulphate salt of formula, with disodium pamoate of formula, optionally, in the presence of a base.
A communication device for handling a measurement configuration, comprising: a storage unit for storing instructions of: receiving a measurement configuration comprising a first carrier frequency and a low priority for the first carrier frequency from a network wherein a carrier frequency configured with a low priority means that the communication device performs measurements less frequently on the carrier frequency compared to another carrier frequency configured with a normal priority; changing the low priority of the first carrier frequency to a normal priority when the communication device is configured by a radio resource control, RRC, connection re-establishment procedure to receive one or more transmissions on a data channel or control channel on the first carrier frequency from a network; and performing a measurement on the first carrier frequency according to the measurement configuration comprising the first carrier frequency with the normal priority; and a processing means, coupled to the storage unit, configured to execute the instructions stored in the storage unit. a storage unit for storing instructions of: receiving a measurement configuration comprising a first carrier frequency and a low priority for the first carrier frequency from a network wherein a carrier frequency configured with a low priority means that the communication device performs measurements less frequently on the carrier frequency compared to another carrier frequency configured with a normal priority; changing the low priority of the first carrier frequency to a normal priority when the communication device is configured by a radio resource control, RRC, connection re-establishment procedure to receive one or more transmissions on a data channel or control channel on the first carrier frequency from a network; and performing a measurement on the first carrier frequency according to the measurement configuration comprising the first carrier frequency with the normal priority; and a processing means, coupled to the storage unit, configured to execute the instructions stored in the storage unit. receiving a measurement configuration comprising a first carrier frequency and a low priority for the first carrier frequency from a network wherein a carrier frequency configured with a low priority means that the communication device performs measurements less frequently on the carrier frequency compared to another carrier frequency configured with a normal priority; changing the low priority of the first carrier frequency to a normal priority when the communication device is configured by a radio resource control, RRC, connection re-establishment procedure to receive one or more transmissions on a data channel or control channel on the first carrier frequency from a network; and performing a measurement on the first carrier frequency according to the measurement configuration comprising the first carrier frequency with the normal priority; and a processing means, coupled to the storage unit, configured to execute the instructions stored in the storage unit.
A construction comprising a rigid membrane extending across a wall or ceiling area, the membrane exhibiting an NRC of 0.10 or less when measured from the side of the membrane facing an interior space of a building to be occupied, a porous sound absorbing layer in contact with or closely adjacent the space facing membrane side, a plurality of perforated drywall sheets covering the sound absorbing layer and attached to the membrane, the perforated drywall being clad on each side with a non-woven porous scrim (20, 21), adjacent edges of the sides of the drywall panels facing the space to be occupied including the respective scrim being taped and covered with joint compound, the respective scrim and joint compound being covered with an acoustically transparent coating, the combination of the membrane, sound absorbing layer, scrim clad perforated drywall sheets and coating exhibiting an NRC of at least 0.75 when measured from a side facing the space to be occupied.
A method for externally providing access to a resource that is internal to a network, the method comprising: accessing an identifier that is resolvable, using an internal domain name server within a network, to an internal network address of a resource within the network, but the identifier not being resolvable to that resource using an external domain name server; automatically determining that an external uniform resource locator is to be generated using the identifier; in response to the determination, generating an external uniform resource locator that is structured so as to be resolved by the external domain name server to a server computing system that is configured to determine the identifier from the external uniform resource locator, to attempt to utilize the internal domain name server to resolve the identifier to the internal network address of the resource, and if the attempt is successful, provide the resource to an entity that caused the external uniform resource locator to be selected; and providing the external uniform resource locator so that the external uniform resource locator may be selected to obtain access from external to the network to the resource that is internal to the network. accessing an identifier that is resolvable, using an internal domain name server within a network, to an internal network address of a resource within the network, but the identifier not being resolvable to that resource using an external domain name server; automatically determining that an external uniform resource locator is to be generated using the identifier; in response to the determination, generating an external uniform resource locator that is structured so as to be resolved by the external domain name server to a server computing system that is configured to determine the identifier from the external uniform resource locator, to attempt to utilize the internal domain name server to resolve the identifier to the internal network address of the resource, and if the attempt is successful, provide the resource to an entity that caused the external uniform resource locator to be selected; and providing the external uniform resource locator so that the external uniform resource locator may be selected to obtain access from external to the network to the resource that is internal to the network.
Leading edge high lift device comprising a deployment system for adjusting the leading edge high lift device, in particular a slat, between a retracted position, in which, in use, the high lift device is retracted with respect to an airfoil, and at least one deployed position, in which, in use, the high lift device is deployed with respect to the airfoil, comprising: - at least one actuation unit that is configured to actuate the high lift device between the retracted position and the at least one deployed position; - at least one guidance unit that is configured to guide the high lift device during adjustment between the retracted position and the at least one deployed position along an adjustment path; - wherein the at least one guidance unit is independent from the actuation unit; - wherein the at least one guidance unit comprises a track arranged for fixedly mounting to the airfoil and a carriage for cooperation with the track, wherein the carriage is mounted to the high lift device and is movable with respect to the track; - characterised in that the adjustment path is solely determined by the shape of the track; - and further comprising multiple guidance units, wherein a single one of the guidance units is provided as a master guidance unit of which the carriage is mounted to the high-lift device in a way that does not allow any translational movement of the high-lift device with respect to the guidance unit, and wherein the other guidance units are provided as slave guidance units of which the carriage is mounted to the high-lift device in a way that allows some relative movement of the high-lift device with respect to the guidance unit in span wise direction only. - at least one actuation unit that is configured to actuate the high lift device between the retracted position and the at least one deployed position; - at least one guidance unit that is configured to guide the high lift device during adjustment between the retracted position and the at least one deployed position along an adjustment path; - wherein the at least one guidance unit is independent from the actuation unit; - wherein the at least one guidance unit comprises a track arranged for fixedly mounting to the airfoil and a carriage for cooperation with the track, wherein the carriage is mounted to the high lift device and is movable with respect to the track; - characterised in that the adjustment path is solely determined by the shape of the track; - and further comprising multiple guidance units, wherein a single one of the guidance units is provided as a master guidance unit of which the carriage is mounted to the high-lift device in a way that does not allow any translational movement of the high-lift device with respect to the guidance unit, and wherein the other guidance units are provided as slave guidance units of which the carriage is mounted to the high-lift device in a way that allows some relative movement of the high-lift device with respect to the guidance unit in span wise direction only.
A surface enhanced Raman spectroscopy-active (SERS-active) structure comprising: a substrate; and a plurality of nano-pillars created on the substrate, the nano-pillars each comprising: a silicon core having a diameter of 1-200 nm; and a metal coating with a thickness of 50-400 nm and including a SERS-active material, the nano-pillars being separated by a distance of 1-300 nm characterized in that the structure comprises clusters of nano-pillars leaning, relative to the substrate, toward each other with a distance between tips of on the order of 0-10 nm.
A capacitive touch structure comprising: a plurality of self-capacitance electrodes disposed in a same layer and insulated from each other and arranged in a matrix with rows and columns; a plurality of block electrodes being additional electrodes disposed in a same layer as the self-capacitance electrodes and insulated from the self-capacitance electrodes, wherein two block electrodes are provided between any two adjacent self-capacitance electrodes, wherein each of the two block electrodes corresponds to only one self-capacitance electrode of the two adjacent self-capacitance electrodes, and each of the two block electrodes correspond to a different self-capacitance electrode; a plurality of first wires electrically connected with the self-capacitance electrodes while not intersecting each other, wherein the self-capacitance electrodes are each electrically connected with different first wires; a plurality of second wires electrically connected with the block electrodes while not intersecting each other, wherein block electrodes corresponding to adjacent self-capacitance electrodes are electrically connected with different second wires, and one of the second wires is electrically connected with block electrodes corresponding to at least two self-capacitance electrodes, and wherein block electrodes of one column are alternately connected to one of two second wires; and a touch sensing chip electrically connected with the first wires and second wires. a plurality of self-capacitance electrodes disposed in a same layer and insulated from each other and arranged in a matrix with rows and columns; a plurality of block electrodes being additional electrodes disposed in a same layer as the self-capacitance electrodes and insulated from the self-capacitance electrodes, wherein two block electrodes are provided between any two adjacent self-capacitance electrodes, wherein each of the two block electrodes corresponds to only one self-capacitance electrode of the two adjacent self-capacitance electrodes, and each of the two block electrodes correspond to a different self-capacitance electrode; a plurality of first wires electrically connected with the self-capacitance electrodes while not intersecting each other, wherein the self-capacitance electrodes are each electrically connected with different first wires; a plurality of second wires electrically connected with the block electrodes while not intersecting each other, wherein block electrodes corresponding to adjacent self-capacitance electrodes are electrically connected with different second wires, and one of the second wires is electrically connected with block electrodes corresponding to at least two self-capacitance electrodes, and wherein block electrodes of one column are alternately connected to one of two second wires; and a touch sensing chip electrically connected with the first wires and second wires.
Delivery device for delivering a medium and for heating the medium for delivery, the delivery device having: a vehicle pump; an electric motor for driving the vehicle pump; a control unit for controlling the electric motor; wherein the electric motor has at least one conductor winding; wherein the control unit is designed to generate a first electrical alternating current with a first frequency in the at least one conductor winding; and wherein, by means of the first electrical alternating current generated in the at least one conductor winding, eddy currents are induced in a component of the delivery device for the purposes of heating the medium, characterized in that the control unit is furthermore designed to generate, simultaneously with the first electrical alternating current, a second electrical alternating current with a second frequency in the at least one conductor winding for the purposes of driving the electric motor; wherein the second electrical alternating current generates a rotating field in the electric motor. a vehicle pump; an electric motor for driving the vehicle pump; a control unit for controlling the electric motor; wherein the electric motor has at least one conductor winding; wherein the control unit is designed to generate a first electrical alternating current with a first frequency in the at least one conductor winding; and wherein, by means of the first electrical alternating current generated in the at least one conductor winding, eddy currents are induced in a component of the delivery device for the purposes of heating the medium, characterized in that the control unit is furthermore designed to generate, simultaneously with the first electrical alternating current, a second electrical alternating current with a second frequency in the at least one conductor winding for the purposes of driving the electric motor; wherein the second electrical alternating current generates a rotating field in the electric motor.