mhurhangee/patent-ind-claim-en huggingface dataset:
A method comprising: receiving user traffic in a satellite communication system from terminals of different types through a common physical layer ; identifying a type associated with each terminal ; routing the user traffic to a multi-protocol stack based , at least in part, on the terminal type; and forwarding the user traffic from the multi-protocol stack to a core network corresponding to the terminal type, wherein the terminal type is determined based on utilization of a current generation protocol or a legacy protocol of at least one prior generation. receiving user traffic in a satellite communication system from terminals of different types through a common physical layer ; identifying a type associated with each terminal ; routing the user traffic to a multi-protocol stack based , at least in part, on the terminal type; and forwarding the user traffic from the multi-protocol stack to a core network corresponding to the terminal type, wherein the terminal type is determined based on utilization of a current generation protocol or a legacy protocol of at least one prior generation.
A panel repairing method comprising: providing primary ink (INK1), which is ejected from an ink ejection pin (PIN), to a defective portion (DPT) of a display panel (DP); bringing the ink ejection pin (PIN) into contact with the primary ink (INK1); moving the ink ejection pin (PIN) in a direction parallel to a plane of the display panel (DP) to spread the primary ink (INK1); temporarily curing the primary ink (INK1); providing secondary ink (INK2), which is ejected from the ink ejection pin (PIN), to the defective portion (DPT); and curing the primary ink (INK1) and the secondary ink (INK2). providing primary ink (INK1), which is ejected from an ink ejection pin (PIN), to a defective portion (DPT) of a display panel (DP); bringing the ink ejection pin (PIN) into contact with the primary ink (INK1); moving the ink ejection pin (PIN) in a direction parallel to a plane of the display panel (DP) to spread the primary ink (INK1); temporarily curing the primary ink (INK1); providing secondary ink (INK2), which is ejected from the ink ejection pin (PIN), to the defective portion (DPT); and curing the primary ink (INK1) and the secondary ink (INK2).
An oral hydration system that delivers fluid to a person in need of hydration at variable flow rates, the system comprising: a) a fluid reservoir , optionally comprising a lid ; b) a supply tube fluidly coupled at its distal end to the reservoir ; and c) a mouthpiece pump fluidly coupled to a proximal end of the supply tube , wherein the pump is molded as a single piece and reversibly deformable along its entire length, the pump comprising a first opening at its distal end for attachment to the supply tube , characterized in that the pump or supply tube further comprises a one-way distal valve and at a proximal end of the pump is the mouthpiece with a proximal bite valve that seals against leaking fluid until deformed by a user by biting or hand compression of the pump, and that the proximal bite valve of the mouthpiece sufficiently seals to prevent air induction when under a vacuum force during pump decompression. a) a fluid reservoir , optionally comprising a lid ; b) a supply tube fluidly coupled at its distal end to the reservoir ; and c) a mouthpiece pump fluidly coupled to a proximal end of the supply tube , wherein the pump is molded as a single piece and reversibly deformable along its entire length, the pump comprising a first opening at its distal end for attachment to the supply tube ,
A combination of a plate and a plate-holding apparatus for holding the plate such that the plate is movable along a guide so as to allow the plate to be attached to a plate-receiving metal frame of a sliding nozzle device while positioning the plate along the guide, wherein the plate-holding apparatus comprises: a plurality of holding portions having an engagement groove engageable with a to-be-held portion of the plate ; and a widening and narrowing means configured to selectively widen and narrow a distance between the plurality of holding portions , the plate-holding apparatus is configured to hold the plate in a state in which the to-be-held portion of the plate is engaged with the engagement groove , the engagement groove has a gap which allows the to-be-held portion of the plate to be moved in a longitudinal direction, a width direction and a thickness direction of the plate . a plurality of holding portions having an engagement groove engageable with a to-be-held portion of the plate ; and a widening and narrowing means configured to selectively widen and narrow a distance between the plurality of holding portions , the plate-holding apparatus is configured to hold the plate in a state in which the to-be-held portion of the plate is engaged with the engagement groove , the engagement groove has a gap which allows the to-be-held portion of the plate to be moved in a longitudinal direction, a width direction and a thickness direction of the plate .
A display panel (DP), comprising: a base substrate (BS); an auxiliary electrode on the base substrate; a first electrode spaced apart from the auxiliary electrode when viewed in a plan view; a first light emitting unit on the auxiliary electrode and the first electrode; a conductive thin film layer on the first light emitting unit; a second light emitting unit on the conductive thin film layer; a first contact hole (CNT1) through at least the first light emitting unit, the conductive thin film layer, and the second light emitting unit to expose the auxiliary electrode; an insulating layer including a first part disposed in the first contact hole; and a second electrode including a first electrode part and a second electrode part , the first electrode part being on the first part of the insulating layer and having at least a portion in the first contact hole, and the second electrode part overlapping the first electrode when viewed in a plan view, the second electrode part being on the second light emitting unit, wherein a first portion of the first part of the insulating layer is between the first electrode part and the conductive thin film layer to insulate the first electrode part from the conductive thin film layer. a base substrate (BS); an auxiliary electrode on the base substrate; a first electrode spaced apart from the auxiliary electrode when viewed in a plan view; a first light emitting unit on the auxiliary electrode and the first electrode; a conductive thin film layer on the first light emitting unit; a second light emitting unit on the conductive thin film layer; a first contact hole (CNT1) through at least the first light emitting unit, the conductive thin film layer, and the second light emitting unit to expose the auxiliary electrode; an insulating layer including a first part disposed in the first contact hole; and a second electrode including a first electrode part and a second electrode part , the first electrode part being on the first part of the insulating layer and having at least a portion in the first contact hole, and the second electrode part overlapping the first electrode when viewed in a plan view, the second electrode part being on the second light emitting unit, wherein a first portion of the first part of the insulating layer is between the first electrode part and the conductive thin film layer to insulate the first electrode part from the conductive thin film layer.
A method for controlling a vehicle , comprising: receiving a wireless signal from a mobile device ; analyzing at least one characteristic of the wireless signal to determine a current location of the mobile device ; unlocking the vehicle in response to a determination, based on the current location, that the mobile device is within an inner boundary adjacent to the vehicle , and that a first signal is received from a first input/output (I/O) component of the vehicle ; and locking the vehicle in response to a determination, based on the current location, that the mobile device is external to an outer boundary external to the inner boundary , the method further comprising: in response to the determination that the mobile device moves across the inner boundary toward the vehicle , turning on a display of the vehicle powered by a battery of the vehicle . receiving a wireless signal from a mobile device ; analyzing at least one characteristic of the wireless signal to determine a current location of the mobile device ; unlocking the vehicle in response to a determination, based on the current location, that the mobile device is within an inner boundary adjacent to the vehicle , and that a first signal is received from a first input/output (I/O) component of the vehicle ; and locking the vehicle in response to a determination, based on the current location, that the mobile device is external to an outer boundary external to the inner boundary , the method further comprising: in response to the determination that the mobile device moves across the inner boundary toward the vehicle , turning on a display of the vehicle powered by a battery of the vehicle .
A method employed by an electronic device for managing power used by an associated accessory device attached to the electronic device , comprising: applying a current to the accessory device ; in response to the applied current, identifying a resistance in the accessory device , wherein the resistance corresponds to a first resistance or a second resistance; characterized in that the method further comprises: determining whether the accessory device is connected to a power supply based on the resistance; and performing one of operations: providing a power to the accessory device if the accessory device is not connected to the power supply ; or receiving , a power from the accessory if the accessory device is connected to the power supply . applying a current to the accessory device ; in response to the applied current, identifying a resistance in the accessory device , wherein the resistance corresponds to a first resistance or a second resistance; characterized in that the method further comprises: determining whether the accessory device is connected to a power supply based on the resistance; and performing one of operations: providing a power to the accessory device if the accessory device is not connected to the power supply ; or receiving , a power from the accessory if the accessory device is connected to the power supply . determining whether the accessory device is connected to a power supply based on the resistance; and performing one of operations: providing a power to the accessory device if the accessory device is not connected to the power supply ; or receiving , a power from the accessory if the accessory device is connected to the power supply . providing a power to the accessory device if the accessory device is not connected to the power supply ; or receiving , a power from the accessory if the accessory device is connected to the power supply .
Use of a testing station for testing an automated picking system robotic device, the robotic device having a first set of wheels that is arranged to move the robotic device in a X direction and a second set of wheels that is arranged to move the robot device in a Y direction, the testing station comprising: a moving-bed for moving the wheels of a robotic device; the moving-bed comprising a moveable belt which is moved by a pair of rollers or a series of rollers arranged to be engageable with the wheels of the robotic device; a controller to vary the rotation of the rollers; and one or more adjustable retaining arms for positioning the robotic device on the moving bed, the use of the testing station comprising the steps of: i) moving the robotic device wheels in the X direction by engaging the moving bed with the first set of wheels; ii) moving the robotic device wheels in the Y direction by engaging the moving bed with the second set of wheels. i) moving the robotic device wheels in the X direction by engaging the moving bed with the first set of wheels; ii) moving the robotic device wheels in the Y direction by engaging the moving bed with the second set of wheels.
A method for reducing the content of residual ethyl acrylate and/or acrylonitrile monomer in a polymeric dispersion, the method comprising: contacting a stable aqueous dispersion of a polymer that contains a) polymerized units of acrylonitrile and/or ethyl acrylate and b) at least 5 ppm of ethyl acrylate and/or acrylonitrile monomers; with 0.01 wt% to 2 wt% of an ethyl acrylate/acrylonitrile scavenging compound based on the dry weight of the aqueous dispersion of the polymer, wherein the ethyl acrylate/acrylonitrile scavenging compound is selected from the group consisting of bisulfite salts, sulfite salts, and combinations thereof to form a polymeric dispersion that contains less than 1 ppm of ethyl acrylate and/or less than 1 ppm acrylonitrile; and wherein prior to, concurrent with, or subsequent to contacting the ethyl acrylate/acrylonitrile scavenging compound with the aqueous dispersion of the polymer, one or more redox pairs are contacted with the aqueous dispersion of the polymer.
Transmission system , in particular for a motor vehicle, comprising about an axis of rotation (O) at least: - an input hub (2; 102) which is arranged so as to be linked in rotation with a driving shaft, and - a dual wet clutch mechanism comprising: ∘ an input member (3; 103) that is linked in rotation with the input hub (2; 102) and is formed in particular by a disc carrier (40; 60; 140) for the purpose of transmitting the torque from the driving shaft; ∘ at least one first clutch (E1) and one second clutch (E2), each comprising a multi-disc assembly (50; 150; 70; 170) and a reaction member (30a; 30b; 130a; 130b), the multi-disc assembly coming to bear against a contact zone (32a; 32b; 132a; 132b) of the reaction member when the associated clutch is closed, characterized in that each reaction member (30a; 30b; 130a; 130b) comprises a junction portion (31a; 31b; 131a; 131b) on the input member, and in an axial direction along the axis of rotation (O), the contact zone (32a; 32b; 132a; 132b) associated with one of the clutches is closer to the junction portion of the reaction member associated with the other clutch than to the junction portion associated with the reaction member this clutch. - an input hub (2; 102) which is arranged so as to be linked in rotation with a driving shaft, and - a dual wet clutch mechanism comprising: ∘ an input member (3; 103) that is linked in rotation with the input hub (2; 102) and is formed in particular by a disc carrier (40; 60; 140) for the purpose of transmitting the torque from the driving shaft; ∘ at least one first clutch (E1) and one second clutch (E2), each comprising a multi-disc assembly (50; 150; 70; 170) and a reaction member (30a; 30b; 130a; 130b), the multi-disc assembly coming to bear against a contact zone (32a; 32b; 132a; 132b) of the reaction member when the associated clutch is closed, ∘ an input member (3; 103) that is linked in rotation with the input hub (2; 102) and is formed in particular by a disc carrier (40; 60; 140) for the purpose of transmitting the torque from the driving shaft; ∘ at least one first clutch (E1) and one second clutch (E2), each comprising a multi-disc assembly (50; 150; 70; 170) and a reaction member (30a; 30b; 130a; 130b), the multi-disc assembly coming to bear against a contact zone (32a; 32b; 132a; 132b) of the reaction member when the associated clutch is closed,
Cooling device for semiconductor switching elements , comprising - a first main wall for carrying the semiconductor switching elements , - a second main wall being opposite to the first main wall , - a cooling channel that is defined by the first main wall and the second main wall and allows a coolant to flow along the main walls in a main flow direction , - a first side wall and a second side wall each extending from the first main wall , wherein the main flow direction is directed from one of the side walls to the other side wall , and - at least one connection channel, which leads into the cooling channel through the second main wall , characterized in that at least one guiding device is arranged within the at least one connection channel and configured to direct the coolant towards an edge , formed by the first main wall and one of the side walls . - a first main wall for carrying the semiconductor switching elements , - a second main wall being opposite to the first main wall , - a cooling channel that is defined by the first main wall and the second main wall and allows a coolant to flow along the main walls in a main flow direction , - a first side wall and a second side wall each extending from the first main wall , wherein the main flow direction is directed from one of the side walls to the other side wall , and - at least one connection channel, which leads into the cooling channel through the second main wall ,
A cryoablation device defining a longitudinal axis and comprising: an elongate body having a distal portion and a proximal portion; an elongate shaft disposed within the elongate body , the elongate shaft having a distal portion and a proximal portion; a first balloon coupled to the distal portion of the elongate shaft; a second balloon disposed about the first balloon and coupled to the distal portion of the elongate shaft and the distal portion of the elongate body; and one or more splines disposed between the first balloon and second balloon, the one or more splines being in fluid communication with a first fluid supply , said first fluid supply including a coolant, wherein the or each spline defines a plurality of ports , wherein the or each spline 22 includes a plurality of sets of three ports , the three ports being located on the circumference of the spline at approximately 0°/360°, approximately 120°, and approximately 240° to create three rows of ports 80 being located on the circumference of the spline 22 at approximately 0°/360°, approximately 120°, and approximately 240° to cause the formation of a linear lesion in the tissue with which the second balloon is in contact, wherein the first balloon is in fluid communication with at least one of the first fluid supply and a second fluid supply , the first balloon being transitionable between an uninflated configuration and an inflated configuration and wherein the second fluid supply includes a coolant. an elongate body having a distal portion and a proximal portion; an elongate shaft disposed within the elongate body , the elongate shaft having a distal portion and a proximal portion; a first balloon coupled to the distal portion of the elongate shaft; a second balloon disposed about the first balloon and coupled to the distal portion of the elongate shaft and the distal portion of the elongate body; and one or more splines disposed between the first balloon and second balloon, the one or more splines being in fluid communication with a first fluid supply , said first fluid supply including a coolant, wherein the or each spline defines a plurality of ports , wherein the or each spline 22 includes a plurality of sets of three ports , the three ports being located on the circumference of the spline at approximately 0°/360°, approximately 120°, and approximately 240° to create three rows of ports 80 being located on the circumference of the spline 22 at approximately 0°/360°, approximately 120°, and approximately 240° to cause the formation of a linear lesion in the tissue with which the second balloon is in contact, wherein the first balloon is in fluid communication with at least one of the first fluid supply and a second fluid supply , the first balloon being transitionable between an uninflated configuration and an inflated configuration and wherein the second fluid supply includes a coolant.
A composition for forming an organic film, which comprises (A) a polymer having a repeating unit represented by the following general formula whose terminal group is a group represented by either of the following general formulae or , and (B) an organic solvent: wherein, W 1 represents a tetravalent organic group, and W 2 represents a divalent organic group: wherein, R 1 represents any of the groups represented by the following formula , and two or more of R 1 s may be used in combination. (A) a polymer having a repeating unit represented by the following general formula whose terminal group is a group represented by either of the following general formulae or , and (B) an organic solvent: wherein, W 1 represents a tetravalent organic group, and W 2 represents a divalent organic group: wherein, R 1 represents any of the groups represented by the following formula , and two or more of R 1 s may be used in combination.
A high-maneuverability variable-steering tractor comprising a front part which provides a front frame and a rear part which provides a rear frame , articulated to each other in a pivot , said front frame being associated with an engine and a front axle bearing two front wheels , steering with respect to the same, and said rear frame providing a rear axle bearing rear wheels , wherein at least a first double-acting hydraulic cylinder (21 or 22) is provided in correspondence with said front axle , which defines a control for said front wheels ; a hydraulic pump and a power steering connected to a steering wheel of the tractor also being provided, at least a second double-acting hydraulic cylinder (40 or 41) being provided between said front frame and said rear frame at said pivot for rotating the front frame with respect to the rear frame , an electronic control unit being provided, and also an oil-flow distribution hydraulic block coming from the pump being operatively connected to angle sensors of a steering angle of said front frame and said rear frame , and a selector being provided which can be actuated by the user for selecting an operating position, characterized in that both said at least one first hydraulic cylinder (21 or 22) and said at least one second hydraulic cylinder (40 or 41) can be simultaneously actuated, as they are arranged in parallel so that it is possible to act on the front steering, on the central steering or on both in order to have the type of steering deemed necessary and selected by the user himself, wherein said steering wheel is connected to said power steering which in turn directly controls said at least one first hydraulic cylinder (21 or 22) for controlling the rotation of said two front steering wheels , said at least one second hydraulic cylinder (40 or 41) being connected to said hydraulic oil-flow distribution block for the parallel actuation of the rear frame with respect to the front frame , said two angle sensors being connected to said electronic control unit which actuates said at least one second hydraulic cylinder (40 or 41) in proportional mode by means of said hydraulic oil-flow distribution block coming from the pump , said selector providing a first operating mode (RS) for actuating the front steering only, a second operating mode (DS) for simultaneously actuating the front and central steering and a third neutral mode (N) for each passage between a first and a second operating mode and vice versa.