mhurhangee/patent-ind-claim-en huggingface dataset:
A laminated heater pipe for an aerosol generating device for transferring heat to an aerosol-forming article, the heater pipe comprising: a body formed of metal and having a shape of a hollow pipe for accommodating the aerosol-forming article; a first insulating layer formed on an outer surface of the body ; an exothermic layer and a second insulating layer formed on the exothermic layer , characterized in that an electrode layer is further printed on the first insulating layer , the exothermic layer is a thin film formed on the electrode layer and the first insulating layer by applying a paste composition including at least one of platinum-based ruthenium, palladium and/or silver and then sintering. a body formed of metal and having a shape of a hollow pipe for accommodating the aerosol-forming article; a first insulating layer formed on an outer surface of the body ; an exothermic layer and a second insulating layer formed on the exothermic layer , characterized in that an electrode layer is further printed on the first insulating layer , the exothermic layer is a thin film formed on the electrode layer and the first insulating layer by applying a paste composition including at least one of platinum-based ruthenium, palladium and/or silver and then sintering.
A transfer system for removing sleeve-shaped workpieces from a first conveyor and for pushing the sleeve-shaped workpieces onto a second conveyor , having a linear drive which comprises a drive housing and a coupling rod , which is accommodated in a linearly movable manner on the drive housing , for providing a linear movement along an axis of movement , wherein a gear unit is arranged at an end region of the coupling rod remote from the drive housing, said gear unit comprising a swivel body which is mounted so as to be pivotable about the axis of movement and on which a first workpiece gripper and a second workpiece gripper are arranged so as to be rotatable about a first axis of rotation , and wherein the gear unit comprises an adjuster , which is designed for initiating an actuating movement for setting a distance between a first gripping region of the first workpiece gripper , which is arranged at a distance from the axis of movement in the radial direction, and a second gripping region of the second workpiece gripper , which is arranged at a distance from the axis of movement in the radial direction, and having a swivel drive , which comprises a swivel drive housing coupled to the drive housing and a swivel shaft mounted on the swivel drive housing so as to be swivellably movable, the swivel shaft being designed for initiating a swivelling movement on the swivel body and for actuating the adjuster for initiating a forced swivelling movement connected to the swivelling movement on the first workpiece gripper .
A cable management device comprising : a first cable management arm ; a second cable management arm movable relative to the first cable management arm ; a first member comprising a first wall and a second wall and a side wall 40 connected between the first wall 38a and the second wall 38b, the first member being pivoted with respect to the first cable management arm ; a first extension member and a channel (C1) defined by the first member , the first extension member being pivoted between the first cable management arm and the first member ; a first channel (C1) defined by the first wall ,the second wall and the side wall of the first member ; a first connecting member comprising a first feature ; wherein the first channel (C1) is configured to accommodate the first connecting member ; wherein the first member further comprises a corresponding feature that cooperates with the first feature to allow the first connecting member to be displaced within a limited range of the first channel (C1) of the first member . a first cable management arm ; a second cable management arm movable relative to the first cable management arm ; a first member comprising a first wall and a second wall and a side wall 40 connected between the first wall 38a and the second wall 38b, the first member being pivoted with respect to the first cable management arm ; a first extension member and a channel (C1) defined by the first member , the first extension member being pivoted between the first cable management arm and the first member ; a first channel (C1) defined by the first wall ,the second wall and the side wall of the first member ; a first connecting member comprising a first feature ; wherein the first channel (C1) is configured to accommodate the first connecting member ; wherein the first member further comprises a corresponding feature that cooperates with the first feature to allow the first connecting member to be displaced within a limited range of the first channel (C1) of the first member .
High-voltage circuit breaker system with a short-circuiting function that results in an opening movement , closing movement and another opening movement of a contact system , comprising a circuit breaker with a contact system and a drive system that is connected mechanically to the contact system , wherein the drive system comprises a drive unit , and the drive system, in addition to the drive unit , has a driveshaft that is designed as a crankshaft that is connected to a moving contact of the contact system via a push rod , and wherein the cycle of opening movement , closing movement and another opening movement of the contact system results from a unidirectional rotational movement of the crankshaft , wherein the crankshaft has at least three cranks, characterized in that a second crank is deflected rotationally in a different direction than a first crank.
An apparatus for a turbine engine, comprising: a fuel nozzle comprising a nozzle passage and a nozzle orifice ; the nozzle passage extending longitudinally along a centerline within the fuel nozzle to the nozzle orifice ; an air tube including an air passage , the fuel nozzle projecting into the air passage ; and a combustor wall at least partially forming a combustion chamber , the air tube connected to the combustor wall and projecting into the combustion chamber , wherein the nozzle passage has a solid polygonal cross-sectional geometry at the nozzle orifice and the fuel nozzle is configured to direct fuel out of the nozzle passage through the nozzle orifice into the air passage , wherein the fuel nozzle is configured to direct at least a portion of the fuel against a surface of the air tube , wherein the air tube is a fuel vaporizer and wherein the fuel vaporizer at least partially vaporizes the fuel impinging against its surface . a fuel nozzle comprising a nozzle passage and a nozzle orifice ; the nozzle passage extending longitudinally along a centerline within the fuel nozzle to the nozzle orifice ; an air tube including an air passage , the fuel nozzle projecting into the air passage ; and a combustor wall at least partially forming a combustion chamber , the air tube connected to the combustor wall and projecting into the combustion chamber , wherein the nozzle passage has a solid polygonal cross-sectional geometry at the nozzle orifice and the fuel nozzle is configured to direct fuel out of the nozzle passage through the nozzle orifice into the air passage , wherein the fuel nozzle is configured to direct at least a portion of the fuel against a surface of the air tube , wherein the air tube is a fuel vaporizer and wherein the fuel vaporizer at least partially vaporizes the fuel impinging against its surface .
A wireless train control system to control a wireless-control compliant train following a wireless-control noncompliant train , the wireless train control system comprising a ground control device for controlling the wireless-control compliant train , wherein the ground control device is configured: to set a stop limit point of the wireless-control compliant train by a track circuit in which a tail end position of the wireless-control noncompliant train is present, and by using a track-circuit state signal (TR) indicating that the track circuit is turned on or turned off and a time-element-added track-circuit state signal (TR-X) indicating turn-off at a timing delayed by a set time after the track-circuit state signal (TR) has indicated turn-off, the track circuit being turned off due to presence of a train, when the track-circuit state signal (TR) indicates turn-off and the time-element-added track-circuit state signal (TR-X) indicates turn-on, to determine that turn-off indicated by the track-circuit state signal (TR) is caused by the wireless-control compliant train that is a train itself being present, and not to update the stop limit point. to set a stop limit point of the wireless-control compliant train by a track circuit in which a tail end position of the wireless-control noncompliant train is present, and by using a track-circuit state signal (TR) indicating that the track circuit is turned on or turned off and a time-element-added track-circuit state signal (TR-X) indicating turn-off at a timing delayed by a set time after the track-circuit state signal (TR) has indicated turn-off, the track circuit being turned off due to presence of a train, when the track-circuit state signal (TR) indicates turn-off and the time-element-added track-circuit state signal (TR-X) indicates turn-on, to determine that turn-off indicated by the track-circuit state signal (TR) is caused by the wireless-control compliant train that is a train itself being present, and not to update the stop limit point.
Method for coating a planar workpiece consisting at least in portions of wood, wood materials, composite materials or a combination thereof, comprising the steps of: pre-treating a narrow side of the planar workpiece in order to produce a narrow-side surface layer, in particular using a strip of edge material (K) or a paste-like mass, bringing about a relative movement between a workpiece (W) and an application device , which application device is designed to apply a curable substance so as to form a three-dimensional structure, applying the curable substance and thereby forming a three-dimensional structure at least in portions in the region of the narrow-side surface layer, characterised in that the curable substance is additionally applied to the main side of the workpiece (W) and the application device is guided from a main side of the workpiece to the narrow side of the workpiece (W) or vice versa, wherein the application device continuously carries out application during the movement. pre-treating a narrow side of the planar workpiece in order to produce a narrow-side surface layer, in particular using a strip of edge material (K) or a paste-like mass, bringing about a relative movement between a workpiece (W) and an application device , which application device is designed to apply a curable substance so as to form a three-dimensional structure, applying the curable substance and thereby forming a three-dimensional structure at least in portions in the region of the narrow-side surface layer, characterised in that the curable substance is additionally applied to the main side of the workpiece (W) and the application device is guided from a main side of the workpiece to the narrow side of the workpiece (W) or vice versa, wherein the application device continuously carries out application during the movement.
A system comprising: a broadband extended source ; a diffraction grating positioned to receive a broadband of light from the extended source and output an angular separation of the frequencies of the broadband of light; an output slit able to receive one of different narrow bands of light containing a subset of the frequencies output by the diffraction grating ; wherein each narrow band of light is determined by a different rotational position of a rotatable component relative to the output slit ; characterized by a line-scan scanning laser ophthalmoscopy, SLO, system, wherein the output slit is configured to pass the narrow band of light to the line-scan scanning laser ophthalmoscopy, SLO, system. a broadband extended source ; a diffraction grating positioned to receive a broadband of light from the extended source and output an angular separation of the frequencies of the broadband of light; an output slit able to receive one of different narrow bands of light containing a subset of the frequencies output by the diffraction grating ; wherein each narrow band of light is determined by a different rotational position of a rotatable component relative to the output slit ; characterized by a line-scan scanning laser ophthalmoscopy, SLO, system, wherein the output slit is configured to pass the narrow band of light to the line-scan scanning laser ophthalmoscopy, SLO, system.
A system for heating an inside wall of a pipe , or a vessel, comprising: control circuitry , a movable mechanical device configured to be positioned at least partially within the pipe , or the vessel, wherein the movable mechanical device is configured to be moved using the control circuitry ; and a heating device coupled to the movable mechanical device and configured to be positioned at least partially within the pipe , or the vessel, and to heat the inside wall of the pipe , or the vessel, wherein the movable mechanical device includes multiple wheels rotatable to move the movable mechanical device through the pipe or within the vessel, characterized in that the heating device is an induction heating device comprising an induction coil located on the movable mechanical device for preheating the inside wall of the pipe , or the vessel prior to a welding operation being performed on the outside wall of the pipe , or the vessel, thereby not physically interfering with welding performed on the outside wall of the pipe, one or more temperature detecting devices positioned by the movable mechanical device to detect a temperature provided by the heating device , the control circuitry monitoring temperatures detected by the one or more temperature detecting devices positioned by the movable mechanical device and controlling the heating device to a desired temperature based on the detected temperatures. control circuitry , a movable mechanical device configured to be positioned at least partially within the pipe , or the vessel, wherein the movable mechanical device is configured to be moved using the control circuitry ; and a heating device coupled to the movable mechanical device and configured to be positioned at least partially within the pipe , or the vessel, and to heat the inside wall of the pipe , or the vessel, wherein the movable mechanical device includes multiple wheels rotatable to move the movable mechanical device through the pipe or within the vessel, characterized in that the heating device is an induction heating device comprising an induction coil located on the movable mechanical device for preheating the inside wall of the pipe , or the vessel prior to a welding operation being performed on the outside wall of the pipe , or the vessel, thereby not physically interfering with welding performed on the outside wall of the pipe, one or more temperature detecting devices positioned by the movable mechanical device to detect a temperature provided by the heating device , the control circuitry monitoring temperatures detected by the one or more temperature detecting devices positioned by the movable mechanical device and controlling the heating device to a desired temperature based on the detected temperatures.
An inhalation device comprising a compressor , an aerosol generator and a pressure relief valve , wherein the compressor is configured to provide a compressed gas for the aerosol generator and the pressure relief valve is configured to limit a pressure in the inhalation device , the pressure relief valve comprising a hose section and an indentation in a hose connection nozzle , and being so configured that said hose seals the indentation below a limiting pressure in the interior of the hose and expands above the limiting pressure in the interior of the hose such that the indentation is opened to the surroundings in order that gas can escape from the hose into the surroundings via the indentation .
A system for monitoring and controlling the pH of a drilling fluid, the system comprising: a drilling fluid heater ; a first sensor configured to sense a first pH-value and an associated first temperature of the drilling fluid prior to being heated by the drilling fluid heater ; a second sensor configured to sense a second pH-value and an associated second temperature of the drilling fluid subsequent to being heated by the drilling fluid heater ; and a controller comprising a memory having computer readable instructions and a processing device for executing the computer readable instructions, the computer readable instructions comprising: receiving the first pH-value and first temperature from the first sensor ; receiving the second pH-value and second temperature from the second sensor ; and determining an amount of additive to add by means of an additive system to the drilling fluid to maintain a desired pH-value at the second temperature; wherein the controller is configured to adjust the drilling fluid heater to heat the drilling fluid to the expected temperature downhole. a drilling fluid heater ; a first sensor configured to sense a first pH-value and an associated first temperature of the drilling fluid prior to being heated by the drilling fluid heater ; a second sensor configured to sense a second pH-value and an associated second temperature of the drilling fluid subsequent to being heated by the drilling fluid heater ; and a controller comprising a memory having computer readable instructions and a processing device for executing the computer readable instructions, the computer readable instructions comprising: receiving the first pH-value and first temperature from the first sensor ; receiving the second pH-value and second temperature from the second sensor ; and determining an amount of additive to add by means of an additive system to the drilling fluid to maintain a desired pH-value at the second temperature; receiving the first pH-value and first temperature from the first sensor ; receiving the second pH-value and second temperature from the second sensor ; and determining an amount of additive to add by means of an additive system to the drilling fluid to maintain a desired pH-value at the second temperature; wherein the controller is configured to adjust the drilling fluid heater to heat the drilling fluid to the expected temperature downhole.
A dividing wall distillation column comprising: a first section having a tray that is a liquid barrier for collecting a first liquid; a second section disposed below the first section , the second section comprising two portions separated from each other by a dividing wall , wherein the liquid barrier of the first section is configured to block the first liquid from flowing from the first section into either of the two portions of the second section ; and, a third section separated from the second section by a solid vapor and liquid barrier configured to block a flow of vapor from the third section to the second section and block a flow of liquid from the second section to the third section ; a first vapor conduit providing vapor flow from the third section to a first portion of the second section ; a second vapor conduit providing vapor flow from the third section to a second portion of the second section ; and at least one liquid conduit for providing liquid from the second section to the third section ; a first control valve disposed in the first vapor conduit ; and, a second control valve disposed in the second vapor conduit ; wherein the wall extends from the liquid barrier to the vapor and liquid barrier to provide the two portions ; wherein the first and second control valves are configured to operate independently of each other. a first section having a tray that is a liquid barrier for collecting a first liquid; a second section disposed below the first section , the second section comprising two portions separated from each other by a dividing wall , wherein the liquid barrier of the first section is configured to block the first liquid from flowing from the first section into either of the two portions of the second section ; and, a third section separated from the second section by a solid vapor and liquid barrier configured to block a flow of vapor from the third section to the second section and block a flow of liquid from the second section to the third section ; a first vapor conduit providing vapor flow from the third section to a first portion of the second section ; a second vapor conduit providing vapor flow from the third section to a second portion of the second section ; and at least one liquid conduit for providing liquid from the second section to the third section ; a first control valve disposed in the first vapor conduit ; and, a second control valve disposed in the second vapor conduit ; wherein the wall extends from the liquid barrier to the vapor and liquid barrier to provide the two portions ; wherein the first and second control valves are configured to operate independently of each other.
A composition comprising at least one bacterial strain of a Lactobacillus species, at least one bacterial strain of a Bifidobacterium species and an acceptable carrier for use in alleviating or suppressing the symptoms caused by withdrawal or partial withdrawal from the use of tobacco or of nicotine, wherein said composition comprises: (a) at least one L. rhamnosus R0011 (LHS) strain and at least one B. longum R0175 (LHS) strain; or (b) at least one L. rhamnosus R0011 (LHS) strain and at least one B. bifidum R0071 (LHS) strain. (a) at least one L. rhamnosus R0011 (LHS) strain and at least one B. longum R0175 (LHS) strain; or (b) at least one L. rhamnosus R0011 (LHS) strain and at least one B. bifidum R0071 (LHS) strain.
A system for delivering a transgene to visceral adipose tissue comprising a hybrid serotype Rec2 engineered adeno-associated virus (AAV) vector comprising two expression cassettes; wherein the first cassette comprises a regulatory element and a transgene operatively linked to a promoter; and wherein the second cassette comprises a tissue specific promoter operatively linked to a RNA silencing element that targets the regulatory element in the first expression cassette.
A reproduction terminal configured to be worn on the body of a user comprising: a reproducing unit configured to reproduce distributed information received from an information processing server over a network such that the distributed information can be perceived by the user; a sensor unit configured to detect body action of the user; and characterised by a control unit configured to process operation regarding provision of a response to the distributed information over the network on a basis of the body action detected at the sensor unit ; wherein the reproducing unit is configured to control the reproduction of the distributed information on a basis of whether the reproduction terminal is worn and the sensor unit is configured to detect whether the reproduction terminal is worn. a reproducing unit configured to reproduce distributed information received from an information processing server over a network such that the distributed information can be perceived by the user; a sensor unit configured to detect body action of the user; and characterised by a control unit configured to process operation regarding provision of a response to the distributed information over the network on a basis of the body action detected at the sensor unit ; wherein the reproducing unit is configured to control the reproduction of the distributed information on a basis of whether the reproduction terminal is worn and the sensor unit is configured to detect whether the reproduction terminal is worn.