mhurhangee/patent-ind-claim-en huggingface dataset:
An extrusion structure comprising: a central body extending along a longitudinal axis; a first arm body secured to the central body and extending along the longitudinal axis; a second arm body secured to the central body and extending along the longitudinal axis; a first head body secured to the first arm body and extending along the longitudinal axis; and a second head body secured to the second arm body along the longitudinal axis; the first and second head bodies projecting one towards the other and being spaced apart by a gap, the first head body comprising a first internal face facing the central body and a first external face opposite to the first internal face, the second head body comprising a second internal face facing the central body and a second external face opposite to the second internal face, the first external face comprising a first planar face section extending towards the second head body , a first sloping face section extending from the first planar face section towards the central body and a first protruding face section extending from the first sloping face section , the second external face comprising a second planar face section extending towards the first head body , a second sloping face section extending from the second planar face section towards the central body and a second protruding face section extending from the second sloping face section . a central body extending along a longitudinal axis; a first arm body secured to the central body and extending along the longitudinal axis; a second arm body secured to the central body and extending along the longitudinal axis; a first head body secured to the first arm body and extending along the longitudinal axis; and a second head body secured to the second arm body along the longitudinal axis;
A telescopic seatpost for mounting a bicycle saddle, comprising - a support unit which can be fixed to or in a frame of a bicycle, and - a telescopic unit moveably guided within a predetermined telescopic range relative to the support unit , wherein the telescopic range extends from a minimum longitudinal extent of the seatpost to a maximum longitudinal extent of the seatpost , - a coupling device arranged beween the telescopic unit and the support unit , wherein a part of the coupling device , that is associated with the support unit , is fixedly connected to the support unit and wherein the telescopic unit can be coupled to the support unit by way of the coupling device , - a blocking device for releasably blocking the guided telescopic movement of the telescopic unit relative to the support unit , the coupling device has an adjustment mechanism , by way of which the maximum longitudinal extent of the seatpost is adjustable, and transmission of an axial force acting on the telescopic unit to the support unit is effected by way of the coupling device , wherein the adjustment mechanism of the coupling device has an adjustment part associated with the telescopic unit with a profiled notching and a coupling part associated with the support unit and having a corresponding profiled notching for positively locking connection of the telescopic unit to the support unit , wherein the adjustment part is mounted rotatably in or to the telescopic unit and the telescopic unit can be coupled to the support unit by a rotary movement of the adjustment part relative to the coupling part , characterized in that the adjustment part is mounted rotatably in an inner region of the tubular telescopic unit and is arranged coaxially with the telescopic unit . - a support unit which can be fixed to or in a frame of a bicycle, and - a telescopic unit moveably guided within a predetermined telescopic range relative to the support unit , wherein the telescopic range extends from a minimum longitudinal extent of the seatpost to a maximum longitudinal extent of the seatpost , - a coupling device arranged beween the telescopic unit and the support unit , wherein a part of the coupling device , that is associated with the support unit , is fixedly connected to the support unit and wherein the telescopic unit can be coupled to the support unit by way of the coupling device , - a blocking device for releasably blocking the guided telescopic movement of the telescopic unit relative to the support unit ,
A process for forming a liquid filled reservoir with a fluid conduit , the fluid conduit having a frangible seal to prevent egress of fluid from the reservoir and through the conduit , the process comprising the steps of: (a) Forming a reservoir body; (b) Filling the reservoir body with a liquid; (c) Positioning a base component on the reservoir body and using a set of first tools to heat seal the base component to the reservoir body, so as to create a fluid tight seal around the reservoir body, apart from the fluid conduit which remains unsealed; (d) Positioning a separate set of second tools to heat seal across the conduit , wherein the heat applied by the second tool creates a frangible seal across the conduit . (a) Forming a reservoir body; (b) Filling the reservoir body with a liquid; (c) Positioning a base component on the reservoir body and using a set of first tools to heat seal the base component to the reservoir body, so as to create a fluid tight seal around the reservoir body, apart from the fluid conduit which remains unsealed; (d) Positioning a separate set of second tools to heat seal across the conduit , wherein the heat applied by the second tool creates a frangible seal across the conduit .
A fluid delivery system for controlled delivery of a fluid to a recipient, the fluid delivery system comprising: a fluid delivery unit for pressurizing and enabling delivery of the fluid to the recipient , the fluid being acquired from a source of the fluid via outlet thereof; a controllable crack pressure valve having an inlet, an outlet and a movable element, the inlet being adapted to receive the fluid pressurized by the fluid delivery unit and the movable element being adapted to transmit from the outlet the fluid received from the inlet when the fluid at the inlet reaches a pressure at least equal to a crack pressure threshold of the controllable crack pressure valve ; a fluid path element for receiving the fluid from the outlet of the controllable crack pressure valve and conveying the fluid to any remaining system components for ultimate delivery to the recipient ; and a control unit to control delivery of the fluid wherein the control unit controls the crack pressure threshold of the controllable crack pressure valve ; wherein the control unit further controls the fluid delivery unit . a fluid delivery unit for pressurizing and enabling delivery of the fluid to the recipient , the fluid being acquired from a source of the fluid via outlet thereof; a controllable crack pressure valve having an inlet, an outlet and a movable element, the inlet being adapted to receive the fluid pressurized by the fluid delivery unit and the movable element being adapted to transmit from the outlet the fluid received from the inlet when the fluid at the inlet reaches a pressure at least equal to a crack pressure threshold of the controllable crack pressure valve ; a fluid path element for receiving the fluid from the outlet of the controllable crack pressure valve and conveying the fluid to any remaining system components for ultimate delivery to the recipient ; and a control unit to control delivery of the fluid wherein the control unit controls the crack pressure threshold of the controllable crack pressure valve ; wherein the control unit further controls the fluid delivery unit .
A method of identifying a welding asset , being characterised by the following: receiving, at a welding asset tracking server , a selection signal representative of a selection of a particular welding asset ; and sending, via a welding asset tracking network, to the particular welding asset , via communication circuitry of the welding asset tracking server , a command for the particular welding asset to emit a perceptible output through an interface of the particular welding asset ; wherein the welding asset tracking network comprises at least one welding asset retaining a gateway in communication with the welding asset tracking server . receiving, at a welding asset tracking server , a selection signal representative of a selection of a particular welding asset ; and sending, via a welding asset tracking network, to the particular welding asset , via communication circuitry of the welding asset tracking server , a command for the particular welding asset to emit a perceptible output through an interface of the particular welding asset ; wherein the welding asset tracking network comprises at least one welding asset retaining a gateway in communication with the welding asset tracking server .
A battery module , comprising: at least one battery unit , a carrying structure and at least one insulating sheet , wherein the carrying structure includes a frame and at least one structurally enhancing portion connected to each other, and the frame mounts the at least one battery unit , wherein the insulating sheet is installed in the carrying structure to cover the at least one battery unit , and wherein the at least one structurally enhancing portion is extended outward of the battery module from an outer surface of the at least one insulating sheet and onto the outer surface of the at least one insulating sheet . at least one battery unit , a carrying structure and at least one insulating sheet , wherein the carrying structure includes a frame and at least one structurally enhancing portion connected to each other, and the frame mounts the at least one battery unit , wherein the insulating sheet is installed in the carrying structure to cover the at least one battery unit , and wherein the at least one structurally enhancing portion is extended outward of the battery module from an outer surface of the at least one insulating sheet and onto the outer surface of the at least one insulating sheet .
System , preferably formed as a saddle-stitcher, wherein the system has a transport chain which is roof-shaped in the upper region, along which one or more printed products preferably formed by folded sheets are transportable astride, are collected and optionally stapled in an intermediate stapling station, wherein, in the transport direction of the printed product , after the optionally operating stapling station along the further course of the transport chain there is arranged a stop which is adjustable according to the format of the printed product, wherein the stop, in operative connection with mutually interdependently operating means , brings about timed and format-stabilized discharge of the printed product such that the format-stabilized printed product is subsequently preferably deliverable to a cutting apparatus , and wherein the adjustable stop has a stop plane which is directed towards the transport direction of the transport path and which exerts a coordinated stopping and alignment function against the front edge of the printed product consisting of one or more folded sheets as it is discharged.
An aerosol precursor composition mixing system, comprising: a source container configured to contain an aerosol precursor composition and defining a source container outlet , a source container outlet valve being coupled to the source container outlet and including an extension at least partially extending out of the source container ; and a mixing container defining a mixing container inlet and a mixing container outlet , a mixing container inlet valve being coupled to the mixing container inlet and a mixing container outlet valve being coupled to the mixing container outlet , the mixing container inlet valve defining a receptacle at least partially recessed within the mixing container , the receptacle containing a spring configured to bias the mixing container inlet valve to a closed configuration, the source container outlet valve and the mixing container inlet valve being configured to engage one another and open during engagement, the extension of the source container being configured to extend into the receptacle to compress the spring to an open configuration during engagement of the source container outlet valve and the mixing container inlet valve to allow transfer of at least a portion of the aerosol precursor composition from the source container to the mixing container , the mixing container outlet valve being configured to open during engagement with an aerosol delivery device . a source container configured to contain an aerosol precursor composition and defining a source container outlet , a source container outlet valve being coupled to the source container outlet and including an extension at least partially extending out of the source container ; and a mixing container defining a mixing container inlet and a mixing container outlet , a mixing container inlet valve being coupled to the mixing container inlet and a mixing container outlet valve being coupled to the mixing container outlet , the mixing container inlet valve defining a receptacle at least partially recessed within the mixing container , the receptacle containing a spring configured to bias the mixing container inlet valve to a closed configuration, the source container outlet valve and the mixing container inlet valve being configured to engage one another and open during engagement, the extension of the source container being configured to extend into the receptacle to compress the spring to an open configuration during engagement of the source container outlet valve and the mixing container inlet valve to allow transfer of at least a portion of the aerosol precursor composition from the source container to the mixing container , the mixing container outlet valve being configured to open during engagement with an aerosol delivery device .
A method, comprising: introducing a liquid sample comprising multiple particles to a microfluidic network disposed between an inner surface of a first substrate and an inner surface of a second substrate of a microfluidic device , at least one of the substrates being flexible and wherein the microfluidic network includes an inlet and, in communication therewith, a number N channels each having a respective reservoir , wherein each reservoir includes a reagent material comprising an optical label, wherein N is at least 1, forming a mixture comprising at least a portion of the liquid sample and an optical label by sequentially reducing a distance between the inner surfaces of the first and second substrates at multiple positions within the microfluidic network , wherein the liquid sample within the microfluidic network enters each of channels and reservoirs mobilizing the reagent materials within each reservoir to form a mixture, forming multiple complexes, each complex comprising one of the multiple particles and at least one of the optical labels, wherein the particles combine within each mixture of the microfluidic device with the optical label to form complexes, and optically detecting a signal indicative of an amount of complexes present within a subset of the mixture, wherein the subset is present in a detection zone of the microfluidic device , wherein the particles are cells. introducing a liquid sample comprising multiple particles to a microfluidic network disposed between an inner surface of a first substrate and an inner surface of a second substrate of a microfluidic device , at least one of the substrates being flexible and wherein the microfluidic network includes an inlet and, in communication therewith, a number N channels each having a respective reservoir , wherein each reservoir includes a reagent material comprising an optical label, wherein N is at least 1, forming a mixture comprising at least a portion of the liquid sample and an optical label by sequentially reducing a distance between the inner surfaces of the first and second substrates at multiple positions within the microfluidic network , wherein the liquid sample within the microfluidic network enters each of channels and reservoirs mobilizing the reagent materials within each reservoir to form a mixture, forming multiple complexes, each complex comprising one of the multiple particles and at least one of the optical labels, wherein the particles combine within each mixture of the microfluidic device with the optical label to form complexes, and optically detecting a signal indicative of an amount of complexes present within a subset of the mixture, wherein the subset is present in a detection zone of the microfluidic device ,
An apparatus for cooling, the apparatus comprising: at least one cooling element (23, 24a-d, 26); at least one enclosure comprising a cavity (C), the cavity (C) operable for receiving at least a portion of cooling gas from the at least one cooling element (23, 24a-d, 26), wherein the at least one enclosure is operable to maintain a predetermined pressure differential between an inside surface and an outside surface of a molten film tube , the at least one enclosure comprising at least one port; the apparatus being characterised in that the at least one enclosure further comprises a fan in the at least one port, the fan operable for moving a portion of cooling gas from the cavity (C) through the at least one port to a surrounding atmosphere to maintain the predetermined pressure differential; and a variable controller operable to control the fan to maintain the predetermined pressure differential. at least one cooling element (23, 24a-d, 26); at least one enclosure comprising a cavity (C), the cavity (C) operable for receiving at least a portion of cooling gas from the at least one cooling element (23, 24a-d, 26), wherein the at least one enclosure is operable to maintain a predetermined pressure differential between an inside surface and an outside surface of a molten film tube , the at least one enclosure comprising at least one port; the apparatus being characterised in that the at least one enclosure further comprises a fan in the at least one port, the fan operable for moving a portion of cooling gas from the cavity (C) through the at least one port to a surrounding atmosphere to maintain the predetermined pressure differential; and a variable controller operable to control the fan to maintain the predetermined pressure differential.
An air conditioner comprising: a suction body having an air suction hole formed therein; a heat exchanger in which air sucked into the air suction hole is heat-exchanged; and a pair of blow discharge units through which the air heat-exchanged in the heat exchanger is passed and discharged, wherein each of the pair of blow discharge units includes a cross flow fan being disposed vertically long; and a fan motor having a vertical rotational shaft for rotating the cross flow fan , wherein each of the pair of blow discharge units further includes: a discharge body in which an air inflow hole and an air discharge hole are formed to be spaced apart from each other, and a discharge passage (D) is formed between the air inflow hole and the air discharge hole , wherein the cross flow fan is positioned in the discharge passage (D); and a rotation mechanism configured to rotate the discharge body about a vertical center axis, characterized in that the suction body is positioned at a rear portion of the air conditioner, and the heat exchanger is positioned between the air suction hole and the pair of blow the pair of blow discharge units such that a rear surface of the heat exchanger is opposite to the suction body and a front surface of the heat exchanger is opposite to the pair of blow discharge units . a suction body having an air suction hole formed therein; a heat exchanger in which air sucked into the air suction hole is heat-exchanged; and a pair of blow discharge units through which the air heat-exchanged in the heat exchanger is passed and discharged, wherein each of the pair of blow discharge units includes a cross flow fan being disposed vertically long; and a fan motor having a vertical rotational shaft for rotating the cross flow fan , wherein each of the pair of blow discharge units further includes: a discharge body in which an air inflow hole and an air discharge hole are formed to be spaced apart from each other, and a discharge passage (D) is formed between the air inflow hole and the air discharge hole , wherein the cross flow fan is positioned in the discharge passage (D); and a rotation mechanism configured to rotate the discharge body about a vertical center axis, a discharge body in which an air inflow hole and an air discharge hole are formed to be spaced apart from each other, and a discharge passage (D) is formed between the air inflow hole and the air discharge hole , wherein the cross flow fan is positioned in the discharge passage (D); and a rotation mechanism configured to rotate the discharge body about a vertical center axis, characterized in that the suction body is positioned at a rear portion of the air conditioner, and the heat exchanger is positioned between the air suction hole and the pair of blow the pair of blow discharge units such that a rear surface of the heat exchanger is opposite to the suction body and a front surface of the heat exchanger is opposite to the pair of blow discharge units .
A method executed by a device (112, 112-1 - 112-3, 130, 130-1 - 130-4), comprising: - in a first subset of a sequence of transmission intervals : communicating, on a radio link of a cellular network and according to a resource mapping , pilot signals (310-318) having a non-zero first transmit power , - in a second subset of the sequence of transmission intervals : communicating, on the radio link and according to the resource mapping , the pilot signals (310-318) having a non-zero second transmit power which is larger than the first transmit power , - receiving, from an access node (112, 112-1 -112-3) of the cellular network , a control message indicative of a persistent scheduling of the transmission intervals of the second subset , wherein the first subset and the second subset are interleaved in time domain, wherein the transmission intervals of the second subset are reoccurring at a given periodicity indicated by the control message . - in a first subset of a sequence of transmission intervals : communicating, on a radio link of a cellular network and according to a resource mapping , pilot signals (310-318) having a non-zero first transmit power , - in a second subset of the sequence of transmission intervals : communicating, on the radio link and according to the resource mapping , the pilot signals (310-318) having a non-zero second transmit power which is larger than the first transmit power , - receiving, from an access node (112, 112-1 -112-3) of the cellular network , a control message indicative of a persistent scheduling of the transmission intervals of the second subset ,