mhurhangee/patent-ind-claim-en huggingface dataset:
An air core reactor comprising: a winding package positioned to extend along a central axis from a first reactor end to a second reactor end that is opposite the first reactor end ; a spider arm that extends in a direction radially away from the central axis to a spider end, the spider arm located at the first reactor end and coupled to the winding package ; a mounting plate coupled to the spider arm , the mounting plate having a height that extends between a first plate edge and a second plate edge , the mounting plate including an outward plate portion having a ramped surface that extends along a width of the mounting plate from a plate location between the first plate edge and the second plate edge to the second plate edge , the ramped surface defining an oblique angle relative to a plane orthogonal to the height and the width of the mounting plate ; and a filament roving wound 360 degrees about the central axis to provide circumferential support to the winding package , the ramped surface of the support plate surrounded by the filament roving . a winding package positioned to extend along a central axis from a first reactor end to a second reactor end that is opposite the first reactor end ; a spider arm that extends in a direction radially away from the central axis to a spider end, the spider arm located at the first reactor end and coupled to the winding package ; a mounting plate coupled to the spider arm , the mounting plate having a height that extends between a first plate edge and a second plate edge , the mounting plate including an outward plate portion having a ramped surface that extends along a width of the mounting plate from a plate location between the first plate edge and the second plate edge to the second plate edge , the ramped surface defining an oblique angle relative to a plane orthogonal to the height and the width of the mounting plate ; and a filament roving wound 360 degrees about the central axis to provide circumferential support to the winding package , the ramped surface of the support plate surrounded by the filament roving .
A telescopic mast comprising: a tubular main body having a power signal line therein; one or more tubular sections coupled to the tubular main body , to be drawn out or drawn in; one or more coupling members provided at top portions of the tubular main body and the tubular sections to fix or release the coupling between the tubular main body and the tubular sections when a draw-in or draw-out operation of the tubular sections is performed; and a power supply coupling member connected to the power signal line embedded in the tubular main body to supply power, wherein the tubular main body includes a first frame made of a composite material wound to have a first diameter (R1) in a length direction, and a second frame made of a composite material wound to have a second diameter (R2) in a length direction on the first frame , wherein the power signal line is embedded to be parallel in the length direction between the first frame and the second frame , characterized in that the power signal line is embedded in and disposed in the inside that forms the thickness of the tubular main body such that the power signal line may be prevented from being damaged by an external environment. a tubular main body having a power signal line therein; one or more tubular sections coupled to the tubular main body , to be drawn out or drawn in; one or more coupling members provided at top portions of the tubular main body and the tubular sections to fix or release the coupling between the tubular main body and the tubular sections when a draw-in or draw-out operation of the tubular sections is performed; and a power supply coupling member connected to the power signal line embedded in the tubular main body to supply power, wherein the tubular main body includes a first frame made of a composite material wound to have a first diameter (R1) in a length direction, and a second frame made of a composite material wound to have a second diameter (R2) in a length direction on the first frame , wherein the power signal line is embedded to be parallel in the length direction between the first frame and the second frame , characterized in that the power signal line is embedded in and disposed in the inside that forms the thickness of the tubular main body such that the power signal line may be prevented from being damaged by an external environment.
Adapter , for electrically connecting a lighting device to an electrical track having mains phases (L1, L2, L3), the adapter comprising at least: - a housing , - at least one spring-loaded connector (6.1) linked to the housing , and - a cover configured to partially cover the housing , the cover having at least one opening (8.1), wherein the cover is displaceable relative to the housing so as to be placed selectively in at least one of: - a position in which the at least one spring-loaded connector (6.1) extends at least partially through the at least one opening (8.1), - a position in which the cover covers the at least one spring-loaded connector (6.1). - a housing , - at least one spring-loaded connector (6.1) linked to the housing , and - a cover configured to partially cover the housing , the cover having at least one opening (8.1), - a position in which the at least one spring-loaded connector (6.1) extends at least partially through the at least one opening (8.1), - a position in which the cover covers the at least one spring-loaded connector (6.1).
A medical device for use in a heart having a native aortic heart valve and a vessel extending from the native aortic heart valve , the medical device comprising: a balloon-expandable conduit for supplementing or replacing the aorta arch or thoracic aorta so as to repair defects therein; characterized in that the medical device further comprises a prosthetic valve coupled to an end of the balloon-expandable conduit , wherein the prosthetic valve comprises a self-expandable material configured to expand in a radially outward direction to frictionally engage at least a portion of the native aortic heart valve and inhibit axial movement of the prosthetic valve and the balloon-expandable conduit relative to the native aortic heart valve . a balloon-expandable conduit for supplementing or replacing the aorta arch or thoracic aorta so as to repair defects therein; characterized in that the medical device further comprises a prosthetic valve coupled to an end of the balloon-expandable conduit , wherein the prosthetic valve comprises a self-expandable material configured to expand in a radially outward direction to frictionally engage at least a portion of the native aortic heart valve and inhibit axial movement of the prosthetic valve and the balloon-expandable conduit relative to the native aortic heart valve .
A system for implanting a heart valve, comprising: a radially self-expandable tubular body having an inflow end and an outflow end, an outer circumferential groove open to the radial outside of the tubular body , and a plurality of projections (50; 55) extending from a side surface of the tubular body toward the inflow end, each of the projections (50; 55) having a first end connected to the tubular body and a second end forming a free end (60; 65) unattached to the tubular body and overlapping with the groove ; a valve disposed within and attached to the tubular body ; an elongate outer member ; characterised in that the system also has a fabric configured to form a pouch between the tubular body and the projections (50; 55); and the elongate outer member is configured to be moved into the pouch and guide heart tissue into the pouch such that the heart tissue is between the tubular body and the elongate outer member . a radially self-expandable tubular body having an inflow end and an outflow end, an outer circumferential groove open to the radial outside of the tubular body , and a plurality of projections (50; 55) extending from a side surface of the tubular body toward the inflow end, each of the projections (50; 55) having a first end connected to the tubular body and a second end forming a free end (60; 65) unattached to the tubular body and overlapping with the groove ; a valve disposed within and attached to the tubular body ; an elongate outer member ; characterised in that the system also has a fabric configured to form a pouch between the tubular body and the projections (50; 55); and the elongate outer member is configured to be moved into the pouch and guide heart tissue into the pouch such that the heart tissue is between the tubular body and the elongate outer member .
A system for shearing biological materials in a sample well of a microplate, comprising: a number of transducer elements , characterised in that : each transducer element is constructed to receive a conical sample well of a microplate at least partially through the transducer element and to deliver ultrasound energy into the sample well at sufficient acoustic pressures to cause inertial cavitation in a biological sample, wherein: each transducer element is cylindrical, or each transducer element is disk-shaped with a hole through a central portion thereof and includes a waveguide on top of the disk to direct ultrasound energy from the transducer into a sample well of the microplate. each transducer element is cylindrical, or each transducer element is disk-shaped with a hole through a central portion thereof and includes a waveguide on top of the disk to direct ultrasound energy from the transducer into a sample well of the microplate.
Lighting device for a motor vehicle, wherein a first structural component of the lighting device is connected to a second structural component of the lighting device , wherein the connection between the first and the second structural component is formed by a rotary lock, wherein the second structural component comprises at least two coupling elements which are deflectable in a z-direction and which, in a final assembly position, at least partially engage behind, in particular overlap, the first structural component in the z-direction, and the first structural component achieves this engagement, in particular overlap, by means of a rotary movement in an x-y plane relative to the second structural component , characterized in that the second structural component comprises at least one positioning element in the form of a latching element, wherein the positioning element is deflectable outwards in the x-y plane and wherein the positioning element specifies and secures the position of the second structural component relative to the first structural component by interacting with a positioning element of the first structural component in the final assembly position, and wherein the second structural component comprises at least one edge surface portion extending in the x-y plane and at least one edge cutout set back from the edge surface portion counter to the z direction, and wherein the first structural component comprises at least one surface portion extending in the x-y plane, which comes into contact with the edge surface portion of the second structural component , and wherein the first structural component extends beyond the surface portion counter to the z direction on a side facing the second structural component .
Process for the preparation of a polyethylene powder comprising at least one additive, comprising: - preparing a solution comprising at least one additive, operating at a temperature ranging from 25°C to 50°C, preferably ranging from 30°C to 40°C, at a rotation speed ranging from 1 rpm to100 rpm, preferably ranging from 20 rpm to 80 rpm, for a time ranging from 10 minutes to 50 minutes, preferably ranging from 15 minutes to 45 minutes; - adding said solution to at least one polyethylene powder obtained through gas-phase (co)polymerization, and maintaining the whole under stirring, at a rotation speed ranging from 10 rpm to 100 rpm, preferably ranging from 30 rpm to 70 rpm, at a temperature ranging from 25°C to 50°C, preferably ranging from 30°C to 40°C, for a time ranging from 10 minutes to 60 minutes, preferably ranging from 15 minutes to 50 minutes. - preparing a solution comprising at least one additive, operating at a temperature ranging from 25°C to 50°C, preferably ranging from 30°C to 40°C, at a rotation speed ranging from 1 rpm to100 rpm, preferably ranging from 20 rpm to 80 rpm, for a time ranging from 10 minutes to 50 minutes, preferably ranging from 15 minutes to 45 minutes; - adding said solution to at least one polyethylene powder obtained through gas-phase (co)polymerization, and maintaining the whole under stirring, at a rotation speed ranging from 10 rpm to 100 rpm, preferably ranging from 30 rpm to 70 rpm, at a temperature ranging from 25°C to 50°C, preferably ranging from 30°C to 40°C, for a time ranging from 10 minutes to 60 minutes, preferably ranging from 15 minutes to 50 minutes.
Emergency vehicle, in particular fire engine, having an on-board electrical system for supplying electricity to electrical consumers on board the emergency vehicle and having a mixing device for the production of extinguishing agent for fire fighting by admixing at least one additive to extinguishing water , wherein the mixing device has an extinguishing water pump , which can draw in extinguishing water from an extinguishing water source via at least one suction line and supply at least one pressure outlet via at least one pressure line, and wherein the mixing device has an additive pump , which can draw in additive from an additive source via at least one additive suction line and supply it to an admixing point via at least one additive pressure line , where additive can be added to the extinguishing water at a presettable or preset proportioning rate, wherein the additive pump can be driven by means of an electric additive pump drive , which can be controlled via an actuator, wherein a flow measuring device arranged upstream of the admixing point in the direction of flow is connected into the pressure line to measure the actual flow rate of the extinguishing water , and wherein the mixing device has a control/regulation device coupled to the actuator for determining the required proportioning rate based on the measured actual flow rate, wherein the mixing device is connected to the on-board electrical system of the emergency vehicle and the electric additive pump drive is supplied with voltage via a voltage source of the on-board electrical system, characterized in that the actuator is designed as a frequency converter for varying a speed of the electric additive pump drive .
Method for manufacturing a plastic container, wherein the plastic container comprises a container wall and at least one inserted element is attached to the container wall , wherein the inserted element has an attachment surface with holding geometries projecting from the attachment surface , comprising the steps of heating the container wall at least in an attachment region, pressing the attachment surface of the inserted element against the heated attachment region of the container wall , wherein the holding geometries intrude into the container wall without fully penetrating the container wall , with the result that the free ends of the holding geometries come to lie in the interior of the container wall , wherein the plastic of the container wall comes to lie between the holding geometries in a way such that there is a form fit between the holding geometries of the inserted element and the plastic of the container wall , wherein the holding geometries are designed such that heads of the holding geometries are in each case connected to the attachment surface via feet of the holding geometries having a smaller cross section than the heads of the holding geometries , to be specific are designed in the shape of mushrooms, wherein the holding geometries extend linearly, in a direction normal to the mushroom-shaped cross section, wherein a plurality of linear holding geometries are arranged in parallel side-by-side. heating the container wall at least in an attachment region, pressing the attachment surface of the inserted element against the heated attachment region of the container wall , wherein the holding geometries intrude into the container wall without fully penetrating the container wall , with the result that the free ends of the holding geometries come to lie in the interior of the container wall , wherein the plastic of the container wall comes to lie between the holding geometries in a way such that there is a form fit between the holding geometries of the inserted element and the plastic of the container wall , wherein the holding geometries are designed such that heads of the holding geometries are in each case connected to the attachment surface via feet of the holding geometries having a smaller cross section than the heads of the holding geometries , to be specific are designed in the shape of mushrooms, wherein the holding geometries extend linearly, in a direction normal to the mushroom-shaped cross section, wherein a plurality of linear holding geometries are arranged in parallel side-by-side.
Method for registering a user (U) in a medical software application used in a local communication network of a hospital environment, the method comprising: - providing a registration code to a user (U) from an external communication entity via a public communication network , the registration code containing information relating to a license key and information relating to at least one user credential associated with the user (U), - entering, by the user (U), the registration code and at least one user credential associated with the user (U) into the software application used in the local communication network of the hospital environment, - processing, by the software application , the registration code and the at least one user credential entered by the user (U), and - creating a user account for the user (U) in the software application based on the information relating to the at least one user credential associated with the user (U) contained in the registration code . - providing a registration code to a user (U) from an external communication entity via a public communication network , the registration code containing information relating to a license key and information relating to at least one user credential associated with the user (U), - entering, by the user (U), the registration code and at least one user credential associated with the user (U) into the software application used in the local communication network of the hospital environment, - processing, by the software application , the registration code and the at least one user credential entered by the user (U), and - creating a user account for the user (U) in the software application based on the information relating to the at least one user credential associated with the user (U) contained in the registration code .
A method for sterilizing a product , comprising: - providing a first air flow (22A, 22B; 122) to the product to reduce a temperature of the product , said first air flow (22A, 22B; 122) being at a temperature range of -100°C to -80°C, and - providing a second air flow (24A, 24B; 124) to the product after the first air flow (22A, 22B; 122) to heat and thermally shock the product to sterilize any microorganisms on the product , said second air flow (24A, 24B; 124) being at a temperature range of 50°C to 100°C, characterized by filtering an atmosphere resulting from the first air flow (22A, 22B; 122) and from the second air flow (24A, 24B; 124) for removing pathogens and particulate matter from said atmosphere. - providing a first air flow (22A, 22B; 122) to the product to reduce a temperature of the product , said first air flow (22A, 22B; 122) being at a temperature range of -100°C to -80°C, and - providing a second air flow (24A, 24B; 124) to the product after the first air flow (22A, 22B; 122) to heat and thermally shock the product to sterilize any microorganisms on the product , said second air flow (24A, 24B; 124) being at a temperature range of 50°C to 100°C, characterized by filtering an atmosphere resulting from the first air flow (22A, 22B; 122) and from the second air flow (24A, 24B; 124) for removing pathogens and particulate matter from said atmosphere.
A down the hole drilling assembly having a top end arranged for coupling to a drill string and a bottom cutting end , the drilling assembly comprising: a drill tube adapter positioned at the top end of the assembly; an elongate casing ; a drill bit at least partially accommodated within the bottom end of the casing ; a fluid powered piston arranged moveably inside the casing which is capable of shuttling axially back and forth; a top working chamber at the top end side of the piston ; a bottom working chamber at the bottom end side of the piston ; a top sub comprising a retaining shoulder , a plurality of splines , at least one exhaust passage which is engaged to the casing , wherein the at least one exhaust passage is connected to the top chamber via at least one top vent passage ; at least one flushing port at the bottom end of the casing which is connected to the at least one bottom vent passage arranged to vent the bottom chamber ; an exhaust system at the top end of the casing comprising an exhaust cover and at least one exhaust port arranged to vent the top chamber via the at least one exhaust passage , characterized in that: the exhaust system is moveable with respect to the drill string and the top sub comprises an exhaust valve which is capable of opening and closing the connection between the at least one exhaust passage and the at least one exhaust port . a drill tube adapter positioned at the top end of the assembly; an elongate casing ; a drill bit at least partially accommodated within the bottom end of the casing ; a fluid powered piston arranged moveably inside the casing which is capable of shuttling axially back and forth; a top working chamber at the top end side of the piston ; a bottom working chamber at the bottom end side of the piston ; a top sub comprising a retaining shoulder , a plurality of splines , at least one exhaust passage which is engaged to the casing , wherein the at least one exhaust passage is connected to the top chamber via at least one top vent passage ; at least one flushing port at the bottom end of the casing which is connected to the at least one bottom vent passage arranged to vent the bottom chamber ; an exhaust system at the top end of the casing comprising an exhaust cover and at least one exhaust port arranged to vent the top chamber via the at least one exhaust passage , characterized in that: the exhaust system is moveable with respect to the drill string and the top sub comprises an exhaust valve which is capable of opening and closing the connection between the at least one exhaust passage and the at least one exhaust port .
Expansion vessel for containing and dispensing a liquid through the compression of a gas, comprising a main body , a membrane , a mouth for the entry of the liquid and a valve for the inlet of the gas, characterized in that said main body is made of at least partially transparent plastic material.