mhurhangee/ep-ind-claims huggingface dataset:
Method for assembling a media conduit (1, 1a, 1b) with internal heating elements (2, 3), characterized in that - the heating elements (2, 3) are drawn into the media conduit (1, 1a), - the media conduit (1, 1a, 1b) is mounted on a conduit connector (4, 5), - at least one sealing element for sealing the heating elements (2, 3) in relation to the conduit connector (4, 5) is pushed onto said heating elements and mounted on the conduit connector (4, 5), - in the case where equally long heating elements (2, 3) are provided, the latter are positioned at the end (10, 11) of the media conduit (1, 1a, 1b) in such a way that in each instance one of the heating elements (2, 3) projects further out of the media conduit than the at least one other, or one of the heating elements (2, 3) is cut to a greater length (l 21, l 21 ', l 31 ' l 31 ') than the other (s), - in each instance only one of the heating elements (2, 3) is at least partially wound or arranged around a conduit connector (4, 5), and - the heating elements (2, 3) are left open or are electrically connected to one another and/or to PTC thermistors (7,8) and/or to a bridge element and/or filling element or are switched parallel therewith. - the heating elements (2, 3) are drawn into the media conduit (1, 1a), - the media conduit (1, 1a, 1b) is mounted on a conduit connector (4, 5), - at least one sealing element for sealing the heating elements (2, 3) in relation to the conduit connector (4, 5) is pushed onto said heating elements and mounted on the conduit connector (4, 5), - in the case where equally long heating elements (2, 3) are provided, the latter are positioned at the end (10, 11) of the media conduit (1, 1a, 1b) in such a way that in each instance one of the heating elements (2, 3) projects further out of the media conduit than the at least one other, or one of the heating elements (2, 3) is cut to a greater length (l 21, l 21 ', l 31 ' l 31 ') than the other (s), - in each instance only one of the heating elements (2, 3) is at least partially wound or arranged around a conduit connector (4, 5), and - the heating elements (2, 3) are left open or are electrically connected to one another and/or to PTC thermistors (7,8) and/or to a bridge element and/or filling element or are switched parallel therewith.
A turbine, comprising: a rotor shaft having a plurality of rotating blades mounted on the rotor shaft; a bearing assembly rotatably supporting the rotor shaft; a casing forming a passage of a fluid and to comprise a space in which the rotating blades are disposed so that thermal energy of the fluid is converted into mechanical energy by rotation; a foundation fixedly supporting the bearing assembly; and a packing device (140, 140') installed on the rotor shaft for sealing between the casing 130 and the rotor shaft 111 and supported by the foundation, characterised in that the casing comprises a connection unit (160, 160', 160") extended toward the packing device (140, 140') and fixed to the casing so that a relative location of the connection unit (160, 160', 160") is changed with respect to the packing device (140, 140'). a rotor shaft having a plurality of rotating blades mounted on the rotor shaft; a bearing assembly rotatably supporting the rotor shaft; a casing forming a passage of a fluid and to comprise a space in which the rotating blades are disposed so that thermal energy of the fluid is converted into mechanical energy by rotation; a foundation fixedly supporting the bearing assembly; and a packing device (140, 140') installed on the rotor shaft for sealing between the casing 130 and the rotor shaft 111 and supported by the foundation, characterised in that the casing comprises a connection unit (160, 160', 160") extended toward the packing device (140, 140') and fixed to the casing so that a relative location of the connection unit (160, 160', 160") is changed with respect to the packing device (140, 140').
A smart reading device (100, 100') of a water meter, comprising: a fixing component (110, 110') adapted for being fixed onto the water meter; a casing disposed on the fixing component (110, 110'); an image capturing component disposed in the casing, wherein the image capturing component is adapted for capturing a numerical display area of the water meter so as to obtain a water consumption image (IM1, IM2); an image analyzing component adapted to analyze the water consumption image (IM1, IM2) to obtain a water consumption value; a transmitting component adapted for transmitting the water consumption value or the water consumption image (IM1, IM2) to a relay device; characterized by: a recording component disposed in the casing, wherein the recording component is adapted for recording and obtaining a sound signal; and a sound analyzing component adapted to determine a water leakage state according to the sound signal. a fixing component (110, 110') adapted for being fixed onto the water meter; a casing disposed on the fixing component (110, 110'); an image capturing component disposed in the casing, wherein the image capturing component is adapted for capturing a numerical display area of the water meter so as to obtain a water consumption image (IM1, IM2); an image analyzing component adapted to analyze the water consumption image (IM1, IM2) to obtain a water consumption value; a transmitting component adapted for transmitting the water consumption value or the water consumption image (IM1, IM2) to a relay device; characterized by: a recording component disposed in the casing, wherein the recording component is adapted for recording and obtaining a sound signal; and a sound analyzing component adapted to determine a water leakage state according to the sound signal. a recording component disposed in the casing, wherein the recording component is adapted for recording and obtaining a sound signal; and a sound analyzing component adapted to determine a water leakage state according to the sound signal.
A polynucleotide that encodes a polypeptide capable of binding human complement component 5, said polypeptide comprising the amino acid sequence: - -QSX 42 X 43 LLX 46 EAKKLX 52 X 53 X 54 Q wherein, independently of each other, is a C5 binding motif comprising the amino acid sequence: EX 9 X 10 X 11 A X 13 X 14 EIDX 18 LPNLX 23 X 24 X 25 QWX 28 AFIX 32 X 33 LX 35; wherein, independently of each other, X 9 is selected from H, Q, S, T and V; X 10 is selected from I, L, M and V; X 11 is selected from A, D, E, H, K, L, N, Q, R, S, T and Y; X 13 is selected from N and W; X 14 is selected from A, D, E, H, N, Q, R, S and T; X 18 is selected from A, E, G, H, K, L, Q, R, S, T and Y; X 23 is selected from N and T; X 24 is selected from I, L and V; X 25 is selected from A, D, E, H, K, N, Q, R, S and T; X 28 is selected from I, L and V; X 32 is selected from D, E, G, H, N, S and T; X 33 is selected from K and S; X 35 is selected from A, D, E, H, N, Q, S, T and Y is selected from DDPS and RQPE; X 42 is selected from A and S; X 43 is selected from N and E; X 46 is selected from A, S and C; X 52 is selected from E, N and S; X 53 is selected from D, E and S, provided that X 53 is not D when X 52 is N; and X 54 is selected from A and S. wherein, independently of each other, is a C5 binding motif comprising the amino acid sequence: EX 9 X 10 X 11 A X 13 X 14 EIDX 18 LPNLX 23 X 24 X 25 QWX 28 AFIX 32 X 33 LX 35; wherein, independently of each other, X 9 is selected from H, Q, S, T and V; X 10 is selected from I, L, M and V; X 11 is selected from A, D, E, H, K, L, N, Q, R, S, T and Y; X 13 is selected from N and W; X 14 is selected from A, D, E, H, N, Q, R, S and T; X 18 is selected from A, E, G, H, K, L, Q, R, S, T and Y; X 23 is selected from N and T; X 24 is selected from I, L and V; X 25 is selected from A, D, E, H, K, N, Q, R, S and T; X 28 is selected from I, L and V; X 32 is selected from D, E, G, H, N, S and T; X 33 is selected from K and S; X 35 is selected from A, D, E, H, N, Q, S, T and Y is selected from DDPS and RQPE; X 42 is selected from A and S; X 43 is selected from N and E; X 46 is selected from A, S and C; X 52 is selected from E, N and S; X 53 is selected from D, E and S, provided that X 53 is not D when X 52 is N; and X 54 is selected from A and S. wherein, independently of each other, X 9 is selected from H, Q, S, T and V; X 10 is selected from I, L, M and V; X 11 is selected from A, D, E, H, K, L, N, Q, R, S, T and Y; X 13 is selected from N and W; X 14 is selected from A, D, E, H, N, Q, R, S and T; X 18 is selected from A, E, G, H, K, L, Q, R, S, T and Y; X 23 is selected from N and T; X 24 is selected from I, L and V; X 25 is selected from A, D, E, H, K, N, Q, R, S and T; X 28 is selected from I, L and V; X 32 is selected from D, E, G, H, N, S and T; X 33 is selected from K and S; X 35 is selected from A, D, E, H, N, Q, S, T and Y is selected from DDPS and RQPE; X 42 is selected from A and S; X 43 is selected from N and E; X 46 is selected from A, S and C; X 52 is selected from E, N and S; X 53 is selected from D, E and S, provided that X 53 is not D when X 52 is N; and X 54 is selected from A and S.
An exhaust nozzle for a gas turbine engine, the exhaust nozzle comprising a frame extending along a longitudinal axis and the exhaust nozzle comprising: a convergent petal pivotably attached at a convergent pivot point to the frame and extending axially downstream and radially inward from the frame; a follower roller fixed to the convergent petal on a radially outer side of the convergent petal; and a cam defining a working surface configured to engage the follower roller to react a force from the convergent petal; wherein the cam is movable along a travel in an axial direction to actuate radial movement of the follower roller to pivot the convergent petal, whereby the cam defines a convex working surface in which a radius of curvature of the cam is located radially outward of the cam, with respect to the longitudinal axis such that a contact angle between the follower roller and the cam varies along the travel to thereby vary an axial component of the force reacted by the cam. a convergent petal pivotably attached at a convergent pivot point to the frame and extending axially downstream and radially inward from the frame; a follower roller fixed to the convergent petal on a radially outer side of the convergent petal; and a cam defining a working surface configured to engage the follower roller to react a force from the convergent petal; wherein the cam is movable along a travel in an axial direction to actuate radial movement of the follower roller to pivot the convergent petal, whereby the cam defines a convex working surface in which a radius of curvature of the cam is located radially outward of the cam, with respect to the longitudinal axis such that a contact angle between the follower roller and the cam varies along the travel to thereby vary an axial component of the force reacted by the cam.
Refrigerant compressor, comprising a hermetically sealed housing and a drive unit having a piston/cylinder unit for cyclical compression of a refrigerant and an electric motor for drive of the piston/cylinder unit; wherein the drive unit is disposed in the interior of the housing and is attached to at least one mounting region of the housing, preferably at the housing bottom, with mounting action, by means of at least one spring element (1, 22); wherein a first mounting element and a second mounting element are provided; wherein one of the two mounting elements (5, 7) is connected with the drive unit and the other one of the two mounting elements (7, 5) is connected with the mounting region; and wherein the first mounting element and/or the second mounting element is/are surrounded by the at least one spring element (1, 22); characterized in that the first mounting element is configured in sleeve shape and has an inner wall, and the second mounting element has a bolt-shaped section, wherein the bolt-shaped section is accommodated, at least in sections, in the first mounting element, thereby forming an overlap region, in which overlap region a gap is formed between the bolt-shaped section of the second mounting element and the inner wall of the first mounting element, and wherein the inner wall of the first mounting element and/or the bolt-shaped section is/are provided with a viscoelastic layer, at least in sections.
A voltage division device, comprising - a core region with a capacitor arrangement arranged in the core region and an electrical resistor arranged in the core region, - a first electrode of the capacitor arrangement with a coupling member for the connection with a live element, - a second electrode of the capacitor arrangement with a grounding member for the connection with a grounding element, - and wherein the first electrode and the second electrode are connected in an electrically conductive manner via the electrical resistor, wherein the core region comprises a dielectric which comprises a siloxane-based polymer or consists of a siloxane-based polymer, characterised in that the maximum water absorption capacity of the polymer at a temperature of 20 °C is 30 ‰ of the dead weight of the polymer mass. - a core region with a capacitor arrangement arranged in the core region and an electrical resistor arranged in the core region, - a first electrode of the capacitor arrangement with a coupling member for the connection with a live element, - a second electrode of the capacitor arrangement with a grounding member for the connection with a grounding element, - and wherein the first electrode and the second electrode are connected in an electrically conductive manner via the electrical resistor,
A tissue interface module for use with an applicator in a microwaved-based tissue modification system, comprising: an applicator chamber, said applicator chamber being positioned on a proximal side of said tissue interface module and being configured to be coupled to an applicator having a vacuum port; a tissue acquisition chamber, said tissue acquisition chamber being positioned on a distal side of said tissue interface module; a central opening between the applicator chamber to the tissue acquisition chamber; an intermediate sealing member surrounding at least a portion of the central opening and adapted to provide a seal between the tissue interface module and the applicator and to prevent air flow through the central opening; a vacuum path within the tissue interface module, said vacuum path extending from a proximal side of the intermediate sealing member to a distal side of the intermediate sealing member and bypassing the intermediate sealing member and the central opening, the vacuum path comprising a filter and a vacuum trap; wherein the filter is configured to permit air to pass and to prevent liquid from passing; and wherein the vacuum path is adapted to facilitate the flow of air from the tissue acquisition chamber through the vacuum trap, from the vacuum trap through the filter, and from the filter into the applicator chamber, when the applicator chamber is coupled to the vacuum port of the applicator. an applicator chamber, said applicator chamber being positioned on a proximal side of said tissue interface module and being configured to be coupled to an applicator having a vacuum port; a tissue acquisition chamber, said tissue acquisition chamber being positioned on a distal side of said tissue interface module; a central opening between the applicator chamber to the tissue acquisition chamber; an intermediate sealing member surrounding at least a portion of the central opening and adapted to provide a seal between the tissue interface module and the applicator and to prevent air flow through the central opening; a vacuum path within the tissue interface module, said vacuum path extending from a proximal side of the intermediate sealing member to a distal side of the intermediate sealing member and bypassing the intermediate sealing member and the central opening, the vacuum path comprising a filter and a vacuum trap; wherein the filter is configured to permit air to pass and to prevent liquid from passing; and wherein the vacuum path is adapted to facilitate the flow of air from the tissue acquisition chamber through the vacuum trap, from the vacuum trap through the filter, and from the filter into the applicator chamber, when the applicator chamber is coupled to the vacuum port of the applicator.
An electrodynamic apparatus comprising: a first arm extending in a first direction; a second arm supported by the first arm; a linear actuator that is provided in the first arm or the second arm and moves the second arm along the first direction with respect to the first arm; a support extending in a second direction that is different from the first direction and supporting the first arm; and a rotating mechanism that rotates the support about an axis of rotation parallel to the second direction, wherein the first arm includes a power transmission antenna, the second arm includes a power reception antenna, the power transmission antenna supplies electric power to the power reception antenna wirelessly, the power reception antenna supplies the supplied electric power to a load electrically connected to the power reception antenna, and a control circuit that is adapted to control the linear actuator and the rotating mechanism, wherein in rotating the support, the control circuit is adapted to control the linear actuator to move the center of gravity of the second arm to the axis of rotation first, and then to control the rotating mechanism to rotate the support a first arm extending in a first direction; a second arm supported by the first arm; a linear actuator that is provided in the first arm or the second arm and moves the second arm along the first direction with respect to the first arm; a support extending in a second direction that is different from the first direction and supporting the first arm; and a rotating mechanism that rotates the support about an axis of rotation parallel to the second direction, wherein the first arm includes a power transmission antenna, the second arm includes a power reception antenna, the power transmission antenna supplies electric power to the power reception antenna wirelessly, the power reception antenna supplies the supplied electric power to a load electrically connected to the power reception antenna, and a control circuit that is adapted to control the linear actuator and the rotating mechanism, wherein in rotating the support, the control circuit is adapted to control the linear actuator to move the center of gravity of the second arm to the axis of rotation first, and then to control the rotating mechanism to rotate the support
A method comprising: selecting a user mode application for scheduling by a scheduler; allocating a ring buffer and a compute process control block for the application, the compute process control block storing information identifying a location of the ring buffer for the application; dispatching commands, in a user mode, directly to an accelerated processing device from the ring buffer, the dispatching including an accelerated processing device APD accessing the compute process control block, obtaining the location of the ring buffer for the application, and accessing commands in the ring buffer using the location information from the compute process control block without transitioning to a kernel mode, wherein the APD is a cooperating collection of at least one of hardware and software that performs functions and computations associated with accelerating graphics processing tasks, data parallel tasks, or nested data parallel tasks in an accelerated manner compared to conventional central processing units CPUs, conventional graphics processing units GPUs, software or combinations of at least two of conventional CPUs, conventional GPUs and software. selecting a user mode application for scheduling by a scheduler; allocating a ring buffer and a compute process control block for the application, the compute process control block storing information identifying a location of the ring buffer for the application; dispatching commands, in a user mode, directly to an accelerated processing device from the ring buffer, the dispatching including an accelerated processing device APD accessing the compute process control block, obtaining the location of the ring buffer for the application, and accessing commands in the ring buffer using the location information from the compute process control block without transitioning to a kernel mode, wherein the APD is a cooperating collection of at least one of hardware and software that performs functions and computations associated with accelerating graphics processing tasks, data parallel tasks, or nested data parallel tasks in an accelerated manner compared to conventional central processing units CPUs, conventional graphics processing units GPUs, software or combinations of at least two of conventional CPUs, conventional GPUs and software.
Portable heat source, particularly in the form of a cooking plate and/or a warming plate and/or an oven, having a heating core containing at least one phase change material in a housing, wherein the heating core is surrounded at least partially by a thermal insulation, and wherein the phase change material comprises a metallic phase change material, characterised in that the phase change material has a phase change temperature of at least 500°C.
A sleeve member comprising: - a hollow portion adapted to embrace a drill, - a bolt- or screw-fitting unit on a first end of said sleeve member, and - attachment means on a second end of said sleeve member, for releasably engaging said sleeve member to said drill or to a motor unit; said sleeve member being characterized in that it comprises a built-in mechanism for torque limitation. - a hollow portion adapted to embrace a drill, - a bolt- or screw-fitting unit on a first end of said sleeve member, and - attachment means on a second end of said sleeve member, for releasably engaging said sleeve member to said drill or to a motor unit;
Electromotive furniture drive for adjusting movable furniture parts (5, 6) of an item of functional furniture, having a control unit, at least one adjustment drive (7, 8) with an electric motor, and at least one analysis circuit with an input (11, 12) which is connectable in an electrically conductive manner together with a sensor attached to the item of functional furniture and forms a proximity and/or touch detector, wherein at least two proximity and/or touch detectors are each formed by a sensor or a group of sensors with the at least one analysis circuit, which can be associated with different movable furniture parts (5, 6) of the item of functional furniture, wherein an analysis circuit that has at least two inputs (11, 12) is present, wherein each of the inputs (11, 12) is coupled to a sensor or a group of sensors, characterized in that the analysis circuit has a multiplexer, via which the at least two inputs (11, 12) are sequentially connectable to a detector circuit of the analysis circuit.
A composite structure having a surface, which surface has at least a portion made of a surface resin composition comprising one or more polyamides having an excess of amine end groups such that the ratio of the amine end groups to the acid end groups is at least 1.5:1.0, and comprising a fibrous material selected from non-woven structures, textiles, fibrous battings and combinations thereof, said fibrous material being impregnated with a matrix resin composition comprising one or more polyamides, wherein the one or more polyamides are independently selected from the group consisting of semi-aromatic polyamide resins and a mixture thereof with fully aliphatic polyamide resins.