mhurhangee/ep-ind-claims huggingface dataset:
Athermal spray gun apparatus comprising: an electrode body housing an electrode; a thermal spray gun body having a thermal spray gun nozzle, a fore end and an aft end, the thermal spray gun body removably attached to the electrode body at the aft end, wherein the thermal spray gun body is electrically insulated from an electrode housed within the electrode body, the thermal spray gun body holding the thermal spray gun nozzle, wherein the thermal spray gun nozzle comprises an inner face comprising a fore end and an aft end, wherein a cross-sectional area of the fore end of the thermal spray gun nozzle is greater than a cross-sectional area of the aft end of the thermal spray gun nozzle; and a removable nozzle insert, the removable nozzle insert in circumferential contact with the inner face of the thermal spray gun nozzle and configured to transfer heat thereto, the removable nozzle insert including an axial passage configured to communicate a plasma discharge from within the thermal spray gun body through the axial passage; wherein the electrode body is configured to generate an electrical arc directly between the electrode and the thermal spray gun nozzle, for converting a gas feedstock into the plasma discharge. an electrode body housing an electrode; a thermal spray gun body having a thermal spray gun nozzle, a fore end and an aft end, the thermal spray gun body removably attached to the electrode body at the aft end, wherein the thermal spray gun body is electrically insulated from an electrode housed within the electrode body, the thermal spray gun body holding the thermal spray gun nozzle, wherein the thermal spray gun nozzle comprises an inner face comprising a fore end and an aft end, wherein a cross-sectional area of the fore end of the thermal spray gun nozzle is greater than a cross-sectional area of the aft end of the thermal spray gun nozzle; and a removable nozzle insert, the removable nozzle insert in circumferential contact with the inner face of the thermal spray gun nozzle and configured to transfer heat thereto, the removable nozzle insert including an axial passage configured to communicate a plasma discharge from within the thermal spray gun body through the axial passage; wherein the electrode body is configured to generate an electrical arc directly between the electrode and the thermal spray gun nozzle, for converting a gas feedstock into the plasma discharge.
A passive tensioning system for composite material dispensed by a composite placement machine in which material on a spool mounted on a spool shaft is pulled off over a dancer roll and applied to a surface, the passive tensioning system comprising: - the spool shaft; - a drag brake on the spool shaft; - a drag brake control for the drag brake; - the dancer roll mounted on a linear slide having a spring force; characterized by - a control for varying the force for the linear slide; - a pneumatic cylinder coupled to the linear slide for adjusting the dancer roll spring force by varying a pressure in the pneumatic cylinder such that the dancer roll acts like an adjustable spring; and, - a control system for continually varying the drag brake control and the slide control to control the tension of the composite material based on the instantaneous operating characteristics of the composite placement machine; wherein the dancer roll is capable of being pushed to the top of the linear slide before dispensing of composite material occurs, whereby the dancer roll has a maximum range of travel on the linear slide as composite material is paid out; and, wherein the pressure in the pneumatic cylinder is capable of being changed in order to compensate for a gravity vector force change seen by the dancer roll due to repositioning the dancer roll relative to gravity, whereby the passive tensioning system is able to operate in all orientations. - the spool shaft; - a drag brake on the spool shaft; - a drag brake control for the drag brake; - the dancer roll mounted on a linear slide having a spring force; characterized by - a control for varying the force for the linear slide; - a pneumatic cylinder coupled to the linear slide for adjusting the dancer roll spring force by varying a pressure in the pneumatic cylinder such that the dancer roll acts like an adjustable spring; and, - a control system for continually varying the drag brake control and the slide control to control the tension of the composite material based on the instantaneous operating characteristics of the composite placement machine; wherein the dancer roll is capable of being pushed to the top of the linear slide before dispensing of composite material occurs, whereby the dancer roll has a maximum range of travel on the linear slide as composite material is paid out; and, wherein the pressure in the pneumatic cylinder is capable of being changed in order to compensate for a gravity vector force change seen by the dancer roll due to repositioning the dancer roll relative to gravity, whereby the passive tensioning system is able to operate in all orientations. wherein the dancer roll is capable of being pushed to the top of the linear slide before dispensing of composite material occurs, whereby the dancer roll has a maximum range of travel on the linear slide as composite material is paid out; and, wherein the pressure in the pneumatic cylinder is capable of being changed in order to compensate for a gravity vector force change seen by the dancer roll due to repositioning the dancer roll relative to gravity, whereby the passive tensioning system is able to operate in all orientations.
Process for conferring to a bi-oriented or cast multilayer coextruded film a surface wettability greater than or equal to 38 mN/m, preferably equal to or greater than 45 mN/m, durable for a period longer than 6 months, preferably for a period of at least 10 months, said film containing at least one inner layer of polypropylene and two opposing outer layers (2', 2"), identical to or different one from the other, comprising at least one olefin(s)-based polymer, a free surface of at least one of said outer layers (2', 2") being intended for printing, metallizing, lamination or other coatings, said process comprising the step of subjecting, in a chamber with positive pressure, i.e. with a pressure of 100-200 Pascal higher than the atmospheric pressure, said free surface of at least one of the opposite outer layers of said film to the contact with a non-thermal plasma flow with positive pressure with respect to the atmospheric pressure, said plasma being generated essentially by an inert carrier gas selected from argon, helium, nitrogen or mixtures thereof. at least one inner layer of polypropylene and two opposing outer layers (2', 2"), identical to or different one from the other, comprising at least one olefin(s)-based polymer, a free surface of at least one of said outer layers (2', 2") being intended for printing, metallizing, lamination or other coatings, said process comprising the step of subjecting, in a chamber with positive pressure, i.e. with a pressure of 100-200 Pascal higher than the atmospheric pressure, said free surface of at least one of the opposite outer layers of said film to the contact with a non-thermal plasma flow with positive pressure with respect to the atmospheric pressure, said plasma being generated essentially by an inert carrier gas selected from argon, helium, nitrogen or mixtures thereof.
Method for producing a cutting strand segment of a cutting strand of a power-tool parting device, said cutting strand segment comprising at least one cutter carrier element and at least one cutting element, characterized in that, in a first step, the cutting strand segment is punched out of a band material as a single blank, wherein, in a further step, the cutting element is integrally formed on the cutter carrier element in an at least partially set manner relative to an outer surface of the cutter carrier element by embossing, wherein, in at least one step, a transverse securing element is integrally formed on the cutter carrier element by embossing.
An indoor unit of an air conditioner comprising: a main body; a heat exchanger disposed in the main body; an air blower device including an air blower fan installed behind the heat exchanger and adapted to blow air and a driving motor adapted to drive the air blower fan; a control unit configured to control electrical components disposed in the main body; a side wall located between the control unit and the heat exchanger; a motor fixing part adapted to fix the driving motor, and a water collector adapted to collect condensed water formed within the main body, the side wall comprises a side surface part downwardly extended; and a protruding part inclined downwardly toward the water collector, characterized in that the motor fixing part is connected with the side surface part and connected with the protruding part for guiding condensed water to the water collector. a main body; a heat exchanger disposed in the main body; an air blower device including an air blower fan installed behind the heat exchanger and adapted to blow air and a driving motor adapted to drive the air blower fan; a control unit configured to control electrical components disposed in the main body; a side wall located between the control unit and the heat exchanger; a motor fixing part adapted to fix the driving motor, and a water collector adapted to collect condensed water formed within the main body, the side wall comprises a side surface part downwardly extended; and a protruding part inclined downwardly toward the water collector, characterized in that the motor fixing part is connected with the side surface part and connected with the protruding part for guiding condensed water to the water collector.
A decorated and surface structured wall or floor panel comprising- a substrate of a plastic composite material, - a primer layer disposed on a surface of the substrate, - a decorative layer disposed on the primer layer, - a layer of a radiation-curable paint disposed on the decorative layer, - a structured plastic film (150, 152) disposed on the layer of a radiation-curable paint, and- a topcoat layer disposed on the structured plastic film, wherein the primer layer comprises a radiation-curable urethane and/or urethane acrylate, and wherein the decorative layer comprises at least one radiation-curable ink composition, and wherein the lacquer applied to the decorative layer to form a layer of a radiation-curable lacquer comprises an acrylate, a diacrylate, a methacrylate, a urethane, urethane acrylate, or mixtures thereof, and wherein the topcoat layer disposed on the structured plastic film is formed from a radiation curable coating composition. - a primer layer disposed on a surface of the substrate, - a decorative layer disposed on the primer layer, - a layer of a radiation-curable paint disposed on the decorative layer, - a structured plastic film (150, 152) disposed on the layer of a radiation-curable paint, and-
A method of fidelity benchmarking quantum hardware, the method comprising: randomly sampling a subset of quantum gates from a given universal family of available quantum gates, said available quantum gates forming a part of the quantum hardware, wherein the subset of quantum gates defines a quantum circuit; repeatedly applying, by the quantum hardware, the quantum circuit to a quantum system forming a part of the quantum hardware and performing measurements, by measurement devices, on the quantum system to determine output information of the quantum system, wherein the quantum hardware comprises the measurement devices and the quantum system comprises a plurality of qubits, and wherein the output information comprises a sequence of bit-strings measured in a computational basis; simulating, using a classical computer, an application of the quantum circuit to the quantum system to determine expected statistics of the quantum system, wherein determining the expected statistics comprises determining a set of probabilities that correspond to the probability of obtaining each possible bit string for the quantum circuit; and estimating, using the classical computer, a fidelity of the quantum circuit by fitting the determined output information to the calculated expected statistics of the quantum system. randomly sampling a subset of quantum gates from a given universal family of available quantum gates, said available quantum gates forming a part of the quantum hardware, wherein the subset of quantum gates defines a quantum circuit; repeatedly applying, by the quantum hardware, the quantum circuit to a quantum system forming a part of the quantum hardware and performing measurements, by measurement devices, on the quantum system to determine output information of the quantum system, wherein the quantum hardware comprises the measurement devices and the quantum system comprises a plurality of qubits, and wherein the output information comprises a sequence of bit-strings measured in a computational basis; simulating, using a classical computer, an application of the quantum circuit to the quantum system to determine expected statistics of the quantum system, wherein determining the expected statistics comprises determining a set of probabilities that correspond to the probability of obtaining each possible bit string for the quantum circuit; and estimating, using the classical computer, a fidelity of the quantum circuit by fitting the determined output information to the calculated expected statistics of the quantum system.
A soldered heat exchanger, in particular a condenser for motor vehicles, with at least one manifold and a flange which is secured to the manifold and is intended for receiving connecting tubes (6, 7), it being possible for the flange to be fixed and soldered on the manifold by at least one holder (15, 16), wherein the at least one holder (15, 16) is secured to the manifold, in particular caulked, and has a laterally protruding holding arm (15a, 16a), characterised in that the flange has at least one holding attachment (13, 14) with a holding and guiding groove (13a, 14a), which receives the holding arm (15, 16) and the flange has two holding attachments (13, 14) and is connected to the manifold by means of two holders (15, 16) arranged parallel to one another.
A hydraulic tension spring (10, 100), comprising at least one cylinder (20, 120) having a sealed portion (24, 122) defining a liquid containment space (26, 120a), for each of the at least one cylinders, a piston (40, 140) comprising a piston rod (42, 142), the piston rod comprising a compressing portion having a smaller diameter than the cylinder and extending axially through a hydraulic seal (31, 132) into the liquid containment space, and an external portion accessible from outside the liquid containment space, one of the cylinder and the piston being fixed relative to a frame and the other of the cylinder and the piston being movable axially relative to the frame, a guide (14, 108) for maintaining the movable one of the cylinder and the piston oriented axially relative to the frame, a tensioning member (50, 160) bearing against the movable one of the at least one cylinder and the piston, for compressing the at least one cylinder relative to the piston, and a piston rod cap (16, 150) positioned so as to apply force axially to the external portion of the piston rod, such that applying a tensioning force to the tensioning member draws the piston rod cap toward the piston, whereby when the frame is fixed in place and tension is applied to the tensioning member, the compressing portion of the piston rod intrudes further into the liquid containment space, compressing the hydraulic fluid and loading the spring. a piston (40, 140) comprising a piston rod (42, 142), the piston rod comprising a compressing portion having a smaller diameter than the cylinder and extending axially through a hydraulic seal (31, 132) into the liquid containment space, and an external portion accessible from outside the liquid containment space, one of the cylinder and the piston being fixed relative to a frame and the other of the cylinder and the piston being movable axially relative to the frame, a guide (14, 108) for maintaining the movable one of the cylinder and the piston oriented axially relative to the frame, a compressing portion having a smaller diameter than the cylinder and extending axially through a hydraulic seal (31, 132) into the liquid containment space, and an external portion accessible from outside the liquid containment space, one of the cylinder and the piston being fixed relative to a frame and the other of the cylinder and the piston being movable axially relative to the frame, a guide (14, 108) for maintaining the movable one of the cylinder and the piston oriented axially relative to the frame, a tensioning member (50, 160) bearing against the movable one of the at least one cylinder and the piston, for compressing the at least one cylinder relative to the piston, and a piston rod cap (16, 150) positioned so as to apply force axially to the external portion of the piston rod, such that applying a tensioning force to the tensioning member draws the piston rod cap toward the piston, whereby when the frame is fixed in place and tension is applied to the tensioning member, the compressing portion of the piston rod intrudes further into the liquid containment space, compressing the hydraulic fluid and loading the spring.
A turboengine comprising a rotor and an assembly of at least two members, wherein one of the members (10; 20) supports the other member (20; 10), the assembly defining an axial direction (x) as a rotor axis of the turboengine, a radial direction (r), and a circumferential direction, an inner member of said at least two members being received radially inside an outer member of said at least two members, the inner member being a rotor cover of the turboengine and the outer member being a housing of the turboengine, wherein the inner member and the outer member are attached to each other by a support arrangement, the support arrangement comprising at least one floating support assembly, wherein the floating support assembly provides a displaceable coupling between an inner member support point provided at the inner member and an outer member support point provided at the outer member, wherein the floating support assembly is arranged and configured to provide for a guided relative displacement between the inner member support point and the outer member support point along a displacement path, and wherein the displacement path of the relative displacement is inclined with respect to the axial direction (x) as well as to the radial direction (r) at a nonzero angle (Θ), such that a relative displacement of the support points in the radial direction results in an interrelated relative displacement of the support points in the axial direction and vice versa characterized in that at least one floating support assembly is provided as an assembly of a female suspension element provided on one of the inner and outer members and a mating male suspension element provided on the other one of the inner and outer members, wherein the male suspension element is received within the female suspension element in a sliding displacement relationship, wherein the sliding displacement is a guided displacement along a displacement path which is inclined with respect to the axial direction (x) as well as to the radial direction (r) at a nonzero angle (Θ).
A handheld vacuum cleaner, comprising: a dust cup assembly comprising a cup casing arranged vertically, an airflow generation device, and a cyclone separation device, the airflow generation device and the cyclone separation device being arranged in the cup casing, the airflow generation device being arranged above the cyclone separation device and located at a downstream side of the cyclone separation device, and an air vent being formed in a top of the cup casing; a suction nozzle assembly mounted to the cup casing and defining a suction channel; a handle assembly mounted to the cup casing and used to be held; characterised in that an inner side of the air vent is provided with an air guide surface to adjust a blowing direction of the air vent, and an included angle α between an extension line of the air guide surface and a connection line between a central point of the air vent and a central point of a dust cup is projected onto a horizontal plane and satisfies: 10° ≤ α ≤ 90°. a dust cup assembly comprising a cup casing arranged vertically, an airflow generation device, and a cyclone separation device, the airflow generation device and the cyclone separation device being arranged in the cup casing, the airflow generation device being arranged above the cyclone separation device and located at a downstream side of the cyclone separation device, and an air vent being formed in a top of the cup casing; a suction nozzle assembly mounted to the cup casing and defining a suction channel; a handle assembly mounted to the cup casing and used to be held; characterised in that an inner side of the air vent is provided with an air guide surface to adjust a blowing direction of the air vent, and an included angle α between an extension line of the air guide surface and a connection line between a central point of the air vent and a central point of a dust cup is projected onto a horizontal plane and satisfies: 10° ≤ α ≤ 90°.
A casing comprising a first substrate support portion and a second substrate support portion in an inside of the casing, wherein the first substrate support portion has a first support portion that can support, at a first substrate support position in the casing, a first substrate (70, 71) having a supported portion at a predetermined location, and wherein the second substrate support portion has a second support portion that can support, at the first substrate support position, a second substrate (76, 77) having a supported portion at a predetermined location different from the predetermined location of the first substrate, wherein the first substrate support portion has a third support portion that can support the first substrate (70, 71) at a second substrate support position, and wherein the second substrate support portion has a fourth support portion that can support the second substrate (76, 77) at the second substrate support position, characterized in that the first substrate (70, 71) is attached with a bracket (72, 73) that can switch a position to be supported, between the first substrate support position and the second substrate support position by reversing the bracket (72, 73). wherein the first substrate support portion has a first support portion that can support, at a first substrate support position in the casing, a first substrate (70, 71) having a supported portion at a predetermined location, and wherein the second substrate support portion has a second support portion that can support, at the first substrate support position, a second substrate (76, 77) having a supported portion at a predetermined location different from the predetermined location of the first substrate, wherein the first substrate support portion has a third support portion that can support the first substrate (70, 71) at a second substrate support position, and wherein the second substrate support portion has a fourth support portion that can support the second substrate (76, 77) at the second substrate support position, characterized in that the first substrate (70, 71) is attached with a bracket (72, 73) that can switch a position to be supported, between the first substrate support position and the second substrate support position by reversing the bracket (72, 73).