mhurhangee/patent-ind-claim-en huggingface dataset:
A membrane biofilm reactor comprising a module in an open tank , the module comprising: a) at least one header ; and, b) a plurality of generally independent cords for supporting a biofilm, each cord comprising a plurality of yarns , wherein at least one of the yarns of each cord comprises hollow fiber gas transfer membranes , the cords being potted in the header , wherein the plurality of yarns are configured to provide a core extending along the length of each cord generally parallel with a longitudinal axis of the cord and two spiral yarns wrapped around the core forming two wraps , one in each direction, the core comprising an untwisted multifilament reinforcing yarn and an untwisted multifilament gas transfer membrane yarn , each wrap comprising an untwisted multifilament reinforcing yarn , and wherein, c) the header has a cavity and a port open to the cavity; and, d) the cords extend from the header, the outer surfaces of the open ends of the gas transfer membranes are sealed to the header, and the lumens of the gas transfer membranes are in communication with the port through the cavity. a) at least one header ; and, b) a plurality of generally independent cords for supporting a biofilm, each cord comprising a plurality of yarns , wherein at least one of the yarns of each cord comprises hollow fiber gas transfer membranes , the cords being potted in the header , wherein the plurality of yarns are configured to provide a core extending along the length of each cord generally parallel with a longitudinal axis of the cord and two spiral yarns wrapped around the core forming two wraps , one in each direction, the core comprising an untwisted multifilament reinforcing yarn and an untwisted multifilament gas transfer membrane yarn , each wrap comprising an untwisted multifilament reinforcing yarn , and wherein, c) the header has a cavity and a port open to the cavity; and, d) the cords extend from the header, the outer surfaces of the open ends of the gas transfer membranes are sealed to the header, and the lumens of the gas transfer membranes are in communication with the port through the cavity.
Aircraft having: a fuselage ; and a warning device ; wherein the warning device has a sound-generating element which is designed to generate a whistling sound when the aircraft is in an uncontrolled dive in the direction of the surface of the earth, and there is a flow of fluid against the sound-generating element; wherein the warning device is arranged at least partially on the fuselage of the aircraft, wherein the warning device has a blocking apparatus , in order to prevent the flow of fluid from flowing against the sound-generating element in order to generate a whistling sound, wherein the blocking apparatus has a shutter and a securing element , wherein the securing element is embodied in such a way that the shutter closes the sound-generating element by means of the securing element if the aircraft is in controlled flight. a fuselage ; and a warning device ; wherein the warning device has a sound-generating element which is designed to generate a whistling sound when the aircraft is in an uncontrolled dive in the direction of the surface of the earth, and there is a flow of fluid against the sound-generating element; wherein the warning device is arranged at least partially on the fuselage of the aircraft, wherein the warning device has a blocking apparatus , in order to prevent the flow of fluid from flowing against the sound-generating element in order to generate a whistling sound, wherein the blocking apparatus has a shutter and a securing element , wherein the securing element is embodied in such a way that the shutter closes the sound-generating element by means of the securing element if the aircraft is in controlled flight.
A catheter assembly , comprising: a proximal portion , including: a bifurcated hub , a pair of polymer-coated cannulas partially disposed in and extending from the bifurcated hub , and a pair of extension tubes disposed in and extending from the bifurcated hub , wherein the pair of cannulas and the pair of extension tubes form a proximal pair of lumens extending through the proximal portion of the catheter assembly ; a distal portion , including a catheter tube having a distal pair of lumens extending through the distal portion of the catheter assembly , wherein the catheter tube is configured to fit over the pair of cannulas to extend the proximal and distal pairs of lumens through an entirety of the catheter assembly as an extended pair of lumens; and a connection mechanism to connect the catheter tube to the pair of cannulas , thereby providing a fluid-tight connection between the catheter tube and the pair of cannulas , wherein the connection mechanism is a collarless connection mechanism including a hub-based securement feature selected from one or more circumferential protrusions including rings or barbs, a plurality of radial protrusions including pillars, spikes, or barbs, and a combination thereof, characterised in that the hub-based securement feature is configured to provide compression of the catheter tube . a proximal portion , including: a bifurcated hub , a pair of polymer-coated cannulas partially disposed in and extending from the bifurcated hub , and a pair of extension tubes disposed in and extending from the bifurcated hub , wherein the pair of cannulas and the pair of extension tubes form a proximal pair of lumens extending through the proximal portion of the catheter assembly ; a bifurcated hub , a pair of polymer-coated cannulas partially disposed in and extending from the bifurcated hub , and a pair of extension tubes disposed in and extending from the bifurcated hub , wherein the pair of cannulas and the pair of extension tubes form a proximal pair of lumens extending through the proximal portion of the catheter assembly ; a distal portion , including a catheter tube having a distal pair of lumens extending through the distal portion of the catheter assembly , wherein the catheter tube is configured to fit over the pair of cannulas to extend the proximal and distal pairs of lumens through an entirety of the catheter assembly as an extended pair of lumens; and a connection mechanism to connect the catheter tube to the pair of cannulas , thereby providing a fluid-tight connection between the catheter tube and the pair of cannulas , wherein the connection mechanism is a collarless connection mechanism including a hub-based securement feature selected from one or more circumferential protrusions including rings or barbs, a plurality of radial protrusions including pillars, spikes, or barbs, and a combination thereof, characterised in that the hub-based securement feature is configured to provide compression of the catheter tube .
A stator vane angle system for a gas turbine engine, comprising: an engine case ; and a plurality of stator vanes disposed at an interior of the engine case, each stator vane rotatable about a stator vane axis ; and a synchronization ring disposed at an exterior of the engine case, the synchronization ring operably connected to each stator vane of the plurality of stator vanes such that movement of the synchronization ring urges rotation of each stator vane of the plurality of stator vanes about their respective stator vane axes; and characterized by a plurality of impingement openings extending through the engine case from the interior of the engine case to the exterior of the engine case, the plurality of impingement openings configured to direct flowpath gases from the interior of the engine case to impinge on the synchronization ring to reduce a thermal mismatch between the engine case and the synchronization ring. an engine case ; and a plurality of stator vanes disposed at an interior of the engine case, each stator vane rotatable about a stator vane axis ; and a synchronization ring disposed at an exterior of the engine case, the synchronization ring operably connected to each stator vane of the plurality of stator vanes such that movement of the synchronization ring urges rotation of each stator vane of the plurality of stator vanes about their respective stator vane axes; and characterized by a plurality of impingement openings extending through the engine case from the interior of the engine case to the exterior of the engine case, the plurality of impingement openings configured to direct flowpath gases from the interior of the engine case to impinge on the synchronization ring to reduce a thermal mismatch between the engine case and the synchronization ring.
A compound represented by the following Formula 1 or a pharmaceutically acceptable salt thereof: wherein, in the above formula, R 1 is hydrogen, linear or branched C 1-6 alkyl, or halogen; R 2 is linear or branched C 1 - 6 alkyl; and R 3 to R 7 are each independently hydrogen, halogen, linear or branched C 1 - 6 alkyl, linear or branched C 1-6 haloalkyl, C 1-6 alkoxy, C 1-6 haloalkoxy, (C 1-6 alkyl)amino(C 1-6 alkoxy), or di(C 1-6 alkyl)amino(C 1-6 alkoxy). R 1 is hydrogen, linear or branched C 1-6 alkyl, or halogen; R 2 is linear or branched C 1 - 6 alkyl; and R 3 to R 7 are each independently hydrogen, halogen, linear or branched C 1 - 6 alkyl, linear or branched C 1-6 haloalkyl, C 1-6 alkoxy, C 1-6 haloalkoxy, (C 1-6 alkyl)amino(C 1-6 alkoxy), or di(C 1-6 alkyl)amino(C 1-6 alkoxy).
A solenoid comprising: a housing ; a wire coil; arranged within the housing; characterized by further comprising an armature tube including a closed end , an axially opposed open end , an inner tube surface and a plurality of dimples extending radially inward from the inner surface and arranged circumferentially around the inner tube surface; and an armature slidably arranged within the armature tube, wherein the armature is centered within the armature tube by engagement with the plurality of dimples. a housing ; a wire coil; arranged within the housing; characterized by further comprising an armature tube including a closed end , an axially opposed open end , an inner tube surface and a plurality of dimples extending radially inward from the inner surface and arranged circumferentially around the inner tube surface; and an armature slidably arranged within the armature tube, wherein the armature is centered within the armature tube by engagement with the plurality of dimples.
A method of determining an actual gradient impulse response function, wherein a main magnetic field is generated in a sample region of an MR apparatus by means of a main magnet and wherein a magnetic resonance (MR) imaging or spectroscopy sequence comprising a first sequence and a second sequence is carried out according to which superimposed time dependent gradient fields and radiofrequency fields in a first RF band are generated in the sample region according to said first MR sequence for forming images or spectra, the gradient fields being generated by gradient forming means of the MR apparatus operated according to a gradient forming sequence part of said first MR sequence, the MR apparatus further comprising at least one magnetic field probe, each one of said magnetic field probes being located at a pre-determined position and comprising a magnetic resonance (MR) active substance, means for pulsed MR excitation of said substance and means for receiving a probe MR signal generated by said substance, the method comprising the steps of: - operating said at least one magnetic field probe according to said second sequence, whereby a time dependent probe signal is repeatedly acquired from each magnetic field probe during a probe acquisition time window, thus providing at least one time dependent probe signal; - obtaining said actual gradient impulse response function by calculating an impulse response function; characterized in that - the method is carried out during execution of said magnetic resonance (MR) imaging or spectroscopy sequence; - said pulsed MR excitation and said probe MR signal is in a second RF band that does not overlap said first RF band; and - said impulse response function is calculated from said at least one time dependent probe signal and from said gradient forming sequence part. - operating said at least one magnetic field probe according to said second sequence, whereby a time dependent probe signal is repeatedly acquired from each magnetic field probe during a probe acquisition time window, thus providing at least one time dependent probe signal; - obtaining said actual gradient impulse response function by calculating an impulse response function; characterized in that - the method is carried out during execution of said magnetic resonance (MR) imaging or spectroscopy sequence; - said pulsed MR excitation and said probe MR signal is in a second RF band that does not overlap said first RF band; and - said impulse response function is calculated from said at least one time dependent probe signal and from said gradient forming sequence part.
A switchable viewing assembly (130; 230; 330) comprising: a handle (140; 240; 340); a device chamber (150; 250; 350) coupled to the handle (140; 240; 340), configured to hold a computing device (102; 202; 302), wherein the device chamber (150; 250; 350) includes a view panel (252; 352) through which a display (114; 214; 314) of the computing device (102; 202; 302) is viewable; a viewport assembly (170; 270; 370) including a blinder assembly (274; 374) and lenses (282; 382) for viewing stereoscopic content in a virtual reality configuration, wherein in the virtual reality configuration, the lenses (282; 382) of the viewport assembly (170; 270; 370) are aligned with the view panel (252; 352) of the device chamber (150; 250; 350); and a hinge assembly (160; 260; 360) configured to pivotably couple the device chamber (150; 250; 350) to the viewport assembly (170; 270; 370), wherein the hinge assembly (160; 260 ; 360) is operable to adjust the switchable viewing assembly (130; 230; 330) between the virtual reality configuration and an augmented reality configuration by pivoting the viewport assembly (170; 270; 370) into a downward position near the handle (140; 240; 340), the display (114; 214; 314) of the computing device (102; 202; 302) held in the device chamber (150; 250; 350) being viewable through the viewport assembly (170; 270; 370) in the virtual reality configuration and the display (114; 214; 314) being viewable directly through the view panel (252; 352) of the device chamber (150; 250; 350) without the viewport assembly (170; 270; 370) in an augmented reality configuration. a handle (140; 240; 340); a device chamber (150; 250; 350) coupled to the handle (140; 240; 340), configured to hold a computing device (102; 202; 302), wherein the device chamber (150; 250; 350) includes a view panel (252; 352) through which a display (114; 214; 314) of the computing device (102; 202; 302) is viewable; a viewport assembly (170; 270; 370) including a blinder assembly (274; 374) and lenses (282; 382) for viewing stereoscopic content in a virtual reality configuration, wherein in the virtual reality configuration, the lenses (282; 382) of the viewport assembly (170; 270; 370) are aligned with the view panel (252; 352) of the device chamber (150; 250; 350); and a hinge assembly (160; 260; 360) configured to pivotably couple the device chamber (150; 250; 350) to the viewport assembly (170; 270; 370), wherein the hinge assembly (160; 260 ; 360) is operable to adjust the switchable viewing assembly (130; 230; 330) between the virtual reality configuration and an augmented reality configuration by pivoting the viewport assembly (170; 270; 370) into a downward position near the handle (140; 240; 340), the display (114; 214; 314) of the computing device (102; 202; 302) held in the device chamber (150; 250; 350) being viewable through the viewport assembly (170; 270; 370) in the virtual reality configuration and the display (114; 214; 314) being viewable directly through the view panel (252; 352) of the device chamber (150; 250; 350) without the viewport assembly (170; 270; 370) in an augmented reality configuration.
A method for solvent vapor smoothing of a surface of a plastic product, the method comprising the steps of: - placing the plastic product to be smoothed in a closed chamber comprising heated walls (112-116) and a heated evaporator for solvent; - introducing a solvent to the evaporator ; - allowing the solvent vapors to condense on the outer surface of the product; and - heating at least one wall (112-116) of the chamber , collecting solvent vapors from the chamber and condensing the collected solvent vapors outside the chamber characterized by : - before introducing solvent to the evaporator , heating at least one wall (112-116) of the chamber to a first temperature which is higher than the expected dew point temperature of the solvent and heating the evaporator to a second temperature which is higher than the expected boiling temperature of the solvent; - after allowing the solvent vapors to condense on the outer surface of the product, heating at least one wall (112-116) of the chamber to a third temperature which is higher than the first temperature. - placing the plastic product to be smoothed in a closed chamber comprising heated walls (112-116) and a heated evaporator for solvent; - introducing a solvent to the evaporator ; - allowing the solvent vapors to condense on the outer surface of the product; and - heating at least one wall (112-116) of the chamber , collecting solvent vapors from the chamber and condensing the collected solvent vapors outside the chamber - before introducing solvent to the evaporator , heating at least one wall (112-116) of the chamber to a first temperature which is higher than the expected dew point temperature of the solvent and heating the evaporator to a second temperature which is higher than the expected boiling temperature of the solvent; - after allowing the solvent vapors to condense on the outer surface of the product, heating at least one wall (112-116) of the chamber to a third temperature which is higher than the first temperature.
A process of producing an organic electroluminescence element comprising an organic layer between an anode and a cathode, said process comprising a filtration step of filtering a solution containing an organic electroluminescence element material and a solvent, wherein the organic electroluminescence element material is a luminescent layer material, a time-elapsing step of leaving the solution after the filtration step to pass 8 hours or more to obtain an organic electroluminescence element composition through the time-elapsing step, and a step of forming the organic layer between the anode and the cathode of the organic electroluminescence element by wet film formation with the organic electroluminescence element composition obtained through the time-elapsing step. a filtration step of filtering a solution containing an organic electroluminescence element material and a solvent, wherein the organic electroluminescence element material is a luminescent layer material, a time-elapsing step of leaving the solution after the filtration step to pass 8 hours or more to obtain an organic electroluminescence element composition through the time-elapsing step, and a step of forming the organic layer between the anode and the cathode of the organic electroluminescence element by wet film formation with the organic electroluminescence element composition obtained through the time-elapsing step.
A method for transmitting a physical uplink shared channel, PUSCH, repetition by a user equipment, UE, in a wireless communication system, the method comprising: receiving a radio resource control, RRC, signal comprising configuration information related to a slot configuration, wherein the slot configuration is related to symbols of the slot, and each of the symbols is configured as one of an uplink symbol, a flexible symbol, and a downlink symbol; receiving a physical downlink control channel, PDCCH for scheduling at least one PUSCH repetition on a symbol set; determining one or more invalid symbols for the at least one PUSCH repetition among the symbol set; and transmitting the at least one PUSCH repetition on one or more valid symbols remaining after excluding the one or more invalid symbols among the symbol set, wherein the one or more invalid symbols include a symbol indicated as a downlink symbol by the configuration information, and when a first PUSCH repetition of the at least one PUSCH repetition overlaps with a PUSCH scheduled by a downlink control information, DCI, and the PUSCH has the same HARQ process number, HPN, as the first PUSCH repetition, a transmission of the first PUSCH repetition is terminated. receiving a radio resource control, RRC, signal comprising configuration information related to a slot configuration, wherein the slot configuration is related to symbols of the slot, and each of the symbols is configured as one of an uplink symbol, a flexible symbol, and a downlink symbol; receiving a physical downlink control channel, PDCCH for scheduling at least one PUSCH repetition on a symbol set; determining one or more invalid symbols for the at least one PUSCH repetition among the symbol set; and transmitting the at least one PUSCH repetition on one or more valid symbols remaining after excluding the one or more invalid symbols among the symbol set, wherein the one or more invalid symbols include a symbol indicated as a downlink symbol by the configuration information, and when a first PUSCH repetition of the at least one PUSCH repetition overlaps with a PUSCH scheduled by a downlink control information, DCI, and the PUSCH has the same HARQ process number, HPN, as the first PUSCH repetition, a transmission of the first PUSCH repetition is terminated.
A method for delivering a streaming media asset to a client device, comprising: receiving over a communication network a request from a client device to play a media asset in accordance with a streaming media technique, wherein the media asset is encrypted; prior to fully authorizing the client device to play the media asset, providing the client device with access to a first cryptographic key that decrypts a subset of the media asset so that the client device is able to render the subset of the media asset before completion of the authorization, the subset of the media asset being less than all of the media asset; and subsequent to successfully fully authorizing the client device to play the media asset, providing the client with access to at least one additional cryptographic key that decrypts a remainder of the media asset, wherein the subset of the media received before authorization is complete is delayed before rendering, and wherein a sufficient amount of time should have elapsed to allow the remainder of the media asset to be rendered in a seamless manner with the subset of the media asset. receiving over a communication network a request from a client device to play a media asset in accordance with a streaming media technique, wherein the media asset is encrypted; prior to fully authorizing the client device to play the media asset, providing the client device with access to a first cryptographic key that decrypts a subset of the media asset so that the client device is able to render the subset of the media asset before completion of the authorization, the subset of the media asset being less than all of the media asset; and subsequent to successfully fully authorizing the client device to play the media asset, providing the client with access to at least one additional cryptographic key that decrypts a remainder of the media asset, wherein the subset of the media received before authorization is complete is delayed before rendering, and wherein a sufficient amount of time should have elapsed to allow the remainder of the media asset to be rendered in a seamless manner with the subset of the media asset.