mhurhangee/patent-ind-claim-en huggingface dataset:
12V battery assembly , battery support and device for fastening said 12V battery to said battery support , comprising a fastening clamp surrounding at least a part of the battery , and a fastening tie bar that is mounted between the fastening clamp and the battery support and is capable of transmitting a prestress load to said fastening clamp by a screw/nut system of vertical axis (Z1-Z1'), the fastening clamp comprising a box for receiving the tie bar , and the tie bar having a first, lower end fastened to the battery support and a second, bracket-shaped upper end , along the axial axis (X-X') of the battery, that is housed in an interior housing of the box and is fastened to said box by the screw/nut system , the vertical axis (Z1-Z1') of said screw/nut system being contained in the lateral dimensions of the battery , said assembly being characterized in that the box comprises means (36a, 38a; 36b, 38b) for guiding the tie bar in the interior housing that engage with corresponding guide lugs provided on said tie bar .
A control circuit for supplying a substantially constant DC current to an LED lamp unit which constitutes a load, said control circuit comprising AC inputs (A, N) for connection to an AC supply which is subject to variations including supply voltage fluctuations and transients, a pair of lamp outputs (+, -) for connection to said LED lamp unit, a full wave rectifying circuit configured for supplying a DC voltage and said substantially constant DC current to said pair of lamp outputs, and an AC control circuit, characterised in that said AC control circuit is connected between said AC inputs (A, N) and said rectifying circuit to reduce variations in the magnitude of an AC current supplied to said rectifying circuit from said AC control circuit to thereby reduce corresponding variations in said substantially constant DC current, said AC control circuit including a capacitor (C1, C10, Cr) in series with an inductive winding (L2, Ws) of a magnetic component (L2, T2, T10, Tr) having a magnetically permeable core that at least part of which in operation is at least partially saturated by ferro-resonance, wherein said capacitor (C1, C10, Cr), said rectifying circuit , and said LED lamp unit are electrically connectable in series to conduct a load current therethrough which is controlled by said ferro-resonance, and said ferro-resonance is created by said load current.
A tuna canning machine with automatic quality control, comprising: a feeding conveyor system configured to receive and transport tuna blocks ; a density control system configured to compact the tuna blocks ; a nozzle configured to shape the compacted tuna blocks; a cutting device configured to obtain tuna portions from the shaped tuna blocks; a feeding system of empty cans ; a pusher system comprising a pusher configured to introduce the tuna portions into the empty cans according to an adjustable pressure and path; characterized in that the tuna canning machine comprises: an artificial vision system configured to make height measurements of the canned tuna portions ; and a control unit configured to dynamically adjust the height of the canned tuna portions by controlling the pressure and path of the pusher based on the height measurements of the canned tuna portions . a feeding conveyor system configured to receive and transport tuna blocks ; a density control system configured to compact the tuna blocks ; a nozzle configured to shape the compacted tuna blocks; a cutting device configured to obtain tuna portions from the shaped tuna blocks; a feeding system of empty cans ; a pusher system comprising a pusher configured to introduce the tuna portions into the empty cans according to an adjustable pressure and path; characterized in that the tuna canning machine comprises: an artificial vision system configured to make height measurements of the canned tuna portions ; and a control unit configured to dynamically adjust the height of the canned tuna portions by controlling the pressure and path of the pusher based on the height measurements of the canned tuna portions . an artificial vision system configured to make height measurements of the canned tuna portions ; and a control unit configured to dynamically adjust the height of the canned tuna portions by controlling the pressure and path of the pusher based on the height measurements of the canned tuna portions .
A method of forming a simulated divided light glass pane, comprising the steps of: scanning, with a 3D scanner, at least one pane of a divided light glass window to obtain surface characteristics data for the at least one pane; designing a single replication pane of a divided light glass window based on the surface characteristics data of one or more of the at least one pane; printing, with a 3D printer, at least one mold of the single replication pane; positioning a quantity of glass on the at least one mold; and heating the glass to a desired temperature to slump the glass over the at least one mold to form a simulated divided light glass pane. scanning, with a 3D scanner, at least one pane of a divided light glass window to obtain surface characteristics data for the at least one pane; designing a single replication pane of a divided light glass window based on the surface characteristics data of one or more of the at least one pane; printing, with a 3D printer, at least one mold of the single replication pane; positioning a quantity of glass on the at least one mold; and heating the glass to a desired temperature to slump the glass over the at least one mold to form a simulated divided light glass pane.
A solid electrolyte composition comprising: an inorganic solid electrolyte; and a dispersion medium (A), wherein the dispersion medium (A) includes a ketone compound (A1), and at least one dispersant (A2) selected from a ketone compound (A2-1) having a chemical structure different from the ketone compound (A1) or an alcohol compound (A2-2), and wherein the total carbon number of the ketone compound (A1) is 15 or less, the total carbon number of the ketone compound (A2-1) is 4 or more and 15 or less, the total carbon number of the alcohol compound (A2-2) is 4 or more and 15 or less, and the ketone compound (2A-1) is a compound having a different molecular weight from the ketone compound (A1), or the ketone compound (A2-1) is an isomer of the ketone compound (A1), wherein the isomer has the same molecular weight as the ketone compound (A1) but has a structure different from the ketone compound (A1). an inorganic solid electrolyte; and a dispersion medium (A), wherein the dispersion medium (A) includes a ketone compound (A1), and at least one dispersant (A2) selected from a ketone compound (A2-1) having a chemical structure different from the ketone compound (A1) or an alcohol compound (A2-2), and wherein the total carbon number of the ketone compound (A1) is 15 or less, the total carbon number of the ketone compound (A2-1) is 4 or more and 15 or less, the total carbon number of the alcohol compound (A2-2) is 4 or more and 15 or less, and the ketone compound (2A-1) is a compound having a different molecular weight from the ketone compound (A1), or the ketone compound (A2-1) is an isomer of the ketone compound (A1), wherein the isomer has the same molecular weight as the ketone compound (A1) but has a structure different from the ketone compound (A1).
Delivery for a sheet-processing machine comprising a sheet brake having axially movable braking stations , with transport systems for transporting sheets of a sheet format in the transport direction (T) via the sheet brake to a delivery pile , wherein at least one braking station has a plurality of carrier bodies with connection surfaces, so that a plurality of elements can be simultaneously assigned to the braking station via the connection surfaces, and wherein each connection surface of the carrier bodies has one or more pneumatic connections, characterized in that one or more non-required pneumatic connections of a carrier body of the braking station can be closed by a cover element , which is assigned to the connection surface in a pneumatically sealing manner, or by a guide element for a belt , which is assigned to the connection surface in a pneumatically sealing manner, and/or by a pneumatically sealing support belt .
An electrode comprising: an electrode current collector coated with an electrode active material ; an electrode tab protruding from the electrode current collector ; an insulating layer ; and an electrode lead , wherein the electrode tab includes: - a pair of first side surfaces opposite each other, corresponding to width direction (X-axis direction) surfaces, - a pair of second side surfaces opposite each other, corresponding to thickness direction (Y-axis direction) surfaces, and - a third side surface opposite the electrode current collector , characterized in that the insulating layer is coated on one surface of the pair of first side surface , and the electrode lead is welded on the other surface of the pair of first side surface , said other surface being free of insulating layer coated thereon. an electrode current collector coated with an electrode active material ; an electrode tab protruding from the electrode current collector ; an insulating layer ; and an electrode lead , - a pair of first side surfaces opposite each other, corresponding to width direction (X-axis direction) surfaces, - a pair of second side surfaces opposite each other, corresponding to thickness direction (Y-axis direction) surfaces, and - a third side surface opposite the electrode current collector , the insulating layer is coated on one surface of the pair of first side surface , and the electrode lead is welded on the other surface of the pair of first side surface , said other surface being free of insulating layer coated thereon.
A metering unit for the controlled supply of a substance inside an aquarium tank , comprising: • a containment box ; • a dosimetric pump which is actuated by an electric motor , both being associated with the containment box ; wherein the containment box has at least a first connection element and at least a second connection element which is suitable for being connected to a corresponding first connection element of an additional similar metering unit in such a manner that the metering unit can be connected in a modular manner to the additional similar metering unit, and characterised in that the dosimetric pump comprises a support and a head , wherein the support is configured for being connected to the containment box in different positions in such a manner that the head can rotate with respect to the containment box . • a containment box ; • a dosimetric pump which is actuated by an electric motor , both being associated with the containment box ; wherein the containment box has at least a first connection element and at least a second connection element which is suitable for being connected to a corresponding first connection element of an additional similar metering unit in such a manner that the metering unit can be connected in a modular manner to the additional similar metering unit, and characterised in that the dosimetric pump comprises a support and a head , wherein the support is configured for being connected to the containment box in different positions in such a manner that the head can rotate with respect to the containment box .
A suction nozzle for vacuuming hard floor surfaces comprising a nozzle body , which has on its underside a suction mouth formed as depression and a suction duct leading into the suction mouth for discharging a suction air flow flowing into the suction mouth , and sealing elements , which are arranged upstream of and downstream from the suction mouth in the working direction and which protrude at the underside of the nozzle body , wherein at least the sealing element arranged upstream of the suction mouth in the working direction has flow-through openings for absorbing dirt particles, wherein a shielding device for changing the free flow cross section of the flow-through openings , wherein the shielding device can be switched between a first functional position (I) for vacuuming smooth hard floor surfaces and a second functional position (II) for vacuuming uneven hard floor surfaces and/or tiled floors by means of a switching element arranged at the nozzle body , wherein the free total flow cross section of the flow-through openings in the second functional position (II) is less than 200 mm 2 , preferably less than 150 mm 2 , and is smaller than in the first functional position (I), characterized in that the flow-through openings of the sealing element arranged upstream of the suction mouth in the working direction have a free total flow cross section of between 20 mm 2 and 120 mm 2 , when the shielding device is in the second functional position (II) for vacuuming uneven hard floor surfaces and/or tiled floors.
An ultrasound transducer assembly , comprising: a transducer layer configured to emit ultrasound energy; one or more matching layers overlaying the transducer layer ; a thermally conductive layer overlaying the one or more matching layers ; a lens overlaying the thermally conductive layer ; a backing layer coupled to the transducer layer , characterized in that the thermally conductive layer extends on a first side of the backing layer to below a bottom plane of the transducer layer in the backing layer ; a first shield connected to the thermally conductive layer at a first connection point on the first side of the backing layer below the bottom plane of the transducer layer ; and a radio-frequency interference, RFI, shield connected to the first shield at a second connection point on the first side of the backing layer to transfer a thermal energy away from the lens . a transducer layer configured to emit ultrasound energy; one or more matching layers overlaying the transducer layer ; a thermally conductive layer overlaying the one or more matching layers ; a lens overlaying the thermally conductive layer ; a backing layer coupled to the transducer layer , characterized in that the thermally conductive layer extends on a first side of the backing layer to below a bottom plane of the transducer layer in the backing layer ; a first shield connected to the thermally conductive layer at a first connection point on the first side of the backing layer below the bottom plane of the transducer layer ; and a radio-frequency interference, RFI, shield connected to the first shield at a second connection point on the first side of the backing layer to transfer a thermal energy away from the lens .
A straddle-type electric vehicle comprising: a front wheel and a rear wheel ; a seat at least part of which is disposed forward of the rear wheel ; a foot rest portion which is provided rearward of the front wheel and forward of the rear wheel and which supports feet of an occupant who is seated on the seat from therebelow; a stand which is supported so as to swing between the front wheel and the rear wheel and which supports the vehicle in an upright erected state in a state in which the stand is rotated downwards by using a front portion as a fulcrum; a leg shield which is provided between the foot rest portion and the front wheel and which has a surface which extends in a up-and-down direction; a receptacle which is provided so as to face an opening portion which is provided in the leg shield ; and a body frame which supports the front wheel , the rear wheel , the seat , the stand , the leg shield and the receptacle , wherein the receptacle is disposed between a ground contact point of the front wheel in a state in which the stand is rotated downwards and the leg shield wherein the receptacle has a connecting port configured to receive a charging plug for charging the vehicle, characterized in that the connecting port opens to the left or top-left and is provided so as to transmit a force which the receptacle receives via the body frame when the charging plug is being fitted therein to the front wheel . a front wheel and a rear wheel ; a seat at least part of which is disposed forward of the rear wheel ; a foot rest portion which is provided rearward of the front wheel and forward of the rear wheel and which supports feet of an occupant who is seated on the seat from therebelow; a stand which is supported so as to swing between the front wheel and the rear wheel and which supports the vehicle in an upright erected state in a state in which the stand is rotated downwards by using a front portion as a fulcrum; a leg shield which is provided between the foot rest portion and the front wheel and which has a surface which extends in a up-and-down direction; a receptacle which is provided so as to face an opening portion which is provided in the leg shield ; and a body frame which supports the front wheel , the rear wheel , the seat , the stand , the leg shield and the receptacle , wherein the receptacle is disposed between a ground contact point of the front wheel in a state in which the stand is rotated downwards and the leg shield wherein the receptacle has a connecting port configured to receive a charging plug for charging the vehicle, characterized in that the connecting port opens to the left or top-left and is provided so as to transmit a force which the receptacle receives via the body frame when the charging plug is being fitted therein to the front wheel .
A locking assembly for locking adjacent, nested columns of a telescoping ladder to each other, and thereby restricting relative sliding motion between adjacent columns , each column connected to a respective rung , the locking assembly comprising: a locking button comprising a button rear surface , the button rear surface being generally planar, the locking button being positioned such that the button rear surface is generally parallel to and facing a rung front surface , the locking button being rotatable with respect to the rung front surface about a rotational axis , between a locked position and an unlocked position; a locking pin positioned within the rung having a locking pin axis extending centrally therethrough and slidable along the locking pin axis between an extended position and a retracted position, whereby when the locking button is in the locked position, the locking pin is in the extended position, and when the locking pin is in the unlocked position, the locking pin is in the retracted position, the locking pin axis being generally perpendicular to the rotational axis ; and a connector pin connecting the locking button to the locking pin such that rotation of the locking button about the rotational axis slides the locking pin about the locking pin axis , characterized in that the connector pin extends in a direction parallel to and offset from the rotational axis . a locking button comprising a button rear surface , the button rear surface being generally planar, the locking button being positioned such that the button rear surface is generally parallel to and facing a rung front surface , the locking button being rotatable with respect to the rung front surface about a rotational axis , between a locked position and an unlocked position; a locking pin positioned within the rung having a locking pin axis extending centrally therethrough and slidable along the locking pin axis between an extended position and a retracted position, whereby when the locking button is in the locked position, the locking pin is in the extended position, and when the locking pin is in the unlocked position, the locking pin is in the retracted position, the locking pin axis being generally perpendicular to the rotational axis ; and a connector pin connecting the locking button to the locking pin such that rotation of the locking button about the rotational axis slides the locking pin about the locking pin axis , characterized in that the connector pin extends in a direction parallel to and offset from the rotational axis .
A method in a Policy and Charging Rules Function, PCRF, node for handling Access Point Names, APNs, the method comprising: receiving , from a Core Network, CN, node , a request message comprising information indicating a first APN associated with a packet data connection, and wherein the request message is a request for a second APN being configured for a wireless device arranged to communicate via the packet data connection; selecting a configuration for the wireless device ; selecting the second APN adapted to the selected configuration from a plurality of candidate second APNs, wherein each candidate second APN in the plurality comprises different configurations for the same packet data connection; and transmitting a response message to the CN node , wherein the response message comprises information indicating the selected second APN, characterized in that the CN node is one of: a Mobility Management Entity, MME, a Serving General packet radio service Support Node, SGSN, a combined MME and SGSN node and a Trusted Wireless local area network Access Gateway, TWAG, that the request message is received and the response message is transmitted using a direct interface between the PCRF node and the CN node , that the selected second APN is adapted to the selected configuration of the wireless device for the packet data connection, and is functionality optimized for each packet data connection, and wherein the first APN has functions which will not be used by the wireless device . receiving , from a Core Network, CN, node , a request message comprising information indicating a first APN associated with a packet data connection, and wherein the request message is a request for a second APN being configured for a wireless device arranged to communicate via the packet data connection; selecting a configuration for the wireless device ; selecting the second APN adapted to the selected configuration from a plurality of candidate second APNs, wherein each candidate second APN in the plurality comprises different configurations for the same packet data connection; and transmitting a response message to the CN node , wherein the response message comprises information indicating the selected second APN,
A smokable material heating apparatus comprising a heater configured to heat smokeable material to volatilize at least one component of the smokeable material for inhalation, wherein the heater comprises a substrate and one or more heating elements arranged in or on the substrate so as to heat the substrate, wherein the heater has peripheral surfaces, and wherein the heater is arranged such that the peripheral surfaces of the heater principally comprise those of the substrate such that the smokable material is heated principally by heat emitted from the heated substrate; wherein the one or more heating elements are printed to the substrate; and wherein one or more temperature measurement circuits are printed onto, adjacent or underneath the one or more heating elements so that the temperature of the heater can be monitored and adjusted by a controller to obtain desired volatilizing or pre-volatilizing temperatures in the smokeable material. wherein the one or more heating elements are printed to the substrate; and wherein one or more temperature measurement circuits are printed onto, adjacent or underneath the one or more heating elements so that the temperature of the heater can be monitored and adjusted by a controller to obtain desired volatilizing or pre-volatilizing temperatures in the smokeable material.