mhurhangee/ep-ind-claims huggingface dataset:
A fan casing cooler for a fan casing having a peripheral wall, the fan casing cooler comprising: a body with a first surface for confronting the peripheral wall, a second surface opposite the first surface, and at least one thermally sensitive portion; and at least one conduit provided in the body configured to carry a flow of fluid proximal to the second surface and suitable for transferring heat from the fluid to air flowing through the fan casing; wherein the at least one thermally sensitive portion is arranged such that in use, and in response to a change in a thermal condition, at least a portion of the fan casing cooler is passively positioned away from the peripheral wall of the fan casing, characterized in that the thermally sensitive portion comprises a portion of the body forming the first surface. a body with a first surface for confronting the peripheral wall, a second surface opposite the first surface, and at least one thermally sensitive portion; and at least one conduit provided in the body configured to carry a flow of fluid proximal to the second surface and suitable for transferring heat from the fluid to air flowing through the fan casing; wherein the at least one thermally sensitive portion is arranged such that in use, and in response to a change in a thermal condition, at least a portion of the fan casing cooler is passively positioned away from the peripheral wall of the fan casing, characterized in that the thermally sensitive portion comprises a portion of the body forming the first surface.
A tension adjustment hoop for tensioning a resonant skin with a ring on a musical instrument (6, 25), the tension adjustment hoop being formed by a ring with a centre axis and with retention means arranged to interact with coupling means on the musical instrument (6, 25) for retention of the tension adjustment hoop, the tension adjustment hoop having an opposing top side and bottom side, characterised in that the tension adjustment hoop comprises an inner fluid channel, provided with a pressure adjustment connection in hydraulic connection with the fluid channel, and a plurality of pistons, each in hydraulic connection with the fluid channel, each with a free end opposite the fluid channel, each abutting the ring of the resonant skin, and each, under the influence of the pressure in the fluid channel, being displaceable in a direction parallel to the centre axis of the tension adjustment hoop between a first extreme position (Fig. 4A), where the free end is level with the bottom side, and a second extreme position (Fig. 4B), where the free end is outside the bottom side.
1. A catheter device comprising: - a self-deployable pump head, - a drive shaft and - a magnet unit (23.1) of a magnetic coupling, wherein - the pump head is arranged at a distal end of the catheter device, - the pump head has a self-deployable pump housing (3.1), - a self-deployable rotor (3.2) is accommodated in the pump housing (3.1), - the drive shaft extends from a proximal end of the catheter device to the distal end of the catheter device, - the drive shaft, for driving the rotor (3.2), is connected to the rotor (3.2) at the distal end of the catheter device and is connected to the magnet unit (23.1) of the magnet coupling at the proximal end of the catheter device, - the magnet unit (23.1), for driving the rotor (3.2), can be coupled to a further magnet unit (23.2) of the magnetic coupling, wherein the further magnet unit (23.2) of the magnetic coupling is connected to a motor, - the magnet unit (23.1) is mounted in a coupling housing and is spatially separated from the further magnet unit (23.2) by a wall, and - the torque which can be transmitted via the magnetic clutch is limited to a set value via the two magnetic units (23.1, 23.2) of the magnetic clutch, a torque which can be applied to the further magnet unit (23.2) of the magnetic coupling via the motor during operation of the catheter device is greater than the torque which can be transmitted without contact via the magnetic coupling. - a self-deployable pump head, - a drive shaft and - a magnet unit (23.1) of a magnetic coupling, - the pump head is arranged at a distal end of the catheter device, - the pump head has a self-deployable pump housing (3.1), - a self-deployable rotor (3.2) is accommodated in the pump housing (3.1), - the drive shaft extends from a proximal end of the catheter device to the distal end of the catheter device, - the drive shaft, for driving the rotor (3.2), is connected to the rotor (3.2) at the distal end of the catheter device and is connected to the magnet unit (23.1) of the magnet coupling at the proximal end of the catheter device, - the magnet unit (23.1), for driving the rotor (3.2), can be coupled to a further magnet unit (23.2) of the magnetic coupling, wherein the further magnet unit (23.2) of the magnetic coupling is connected to a motor, - the magnet unit (23.1) is mounted in a coupling housing and is spatially separated from the further magnet unit (23.2) by a wall, and - the torque which can be transmitted via the magnetic clutch is limited to a set value via the two magnetic units (23.1, 23.2) of the magnetic clutch, a torque which can be applied to the further magnet unit (23.2) of the magnetic coupling via the motor during operation of the catheter device is greater than the torque which can be transmitted without contact via the magnetic coupling.
An inerting system for an aircraft comprising: - at least one air-cycle air processing system; and - at least one air separation module with at least one air inlet, a first air outlet and a second air outlet, wherein the air separation module is adapted for splitting an input air flow into a first air flow and a second air flow, wherein the air separation module is realized as an inert gas generation system; wherein the first air flow is enriched with oxygen in comparison with the input air flow and discharged at the first air outlet; wherein the second air flow being enriched with nitrogen in comparison with the input air flow and discharged at the second air outlet; wherein the air inlet is connectable to one or more air extraction points; characterized in that at least one of the air extraction points is provided in a high pressure section of the at least one air processing system at an outlet of an intermediate superheater, such that the pressure level at the at least one air inlet is so high, that the first air flow is routable into a pressurized passenger cabin to be air-conditioned without use of a further compressor. - at least one air-cycle air processing system; and - at least one air separation module with at least one air inlet, a first air outlet and a second air outlet, wherein the air separation module is adapted for splitting an input air flow into a first air flow and a second air flow, wherein the air separation module is realized as an inert gas generation system;
A needle steering apparatus comprising: a needle having an asymmetric tip, the asymmetric tip defined by a beveled cut across a cylindrical cross section of the needle, the needle having a needle axis which is the axis along the needle; and an inserter for disposing the needle axially in a direction of an axis of rotation, which is the needle axis, at an insertion speed; characterised by a rotary drive for continuously rotating the needle about the needle axis, the rotary drive responsive to control logic adapted to rotate the needle at a time-varying angular velocity based on a needle angular position (θ) about the needle axis, wherein the time-varying angular velocity is independent of the insertion speed and wherein the control logic enables underactuated control of both curvature and direction of a needle path from the rotary drive. a needle having an asymmetric tip, the asymmetric tip defined by a beveled cut across a cylindrical cross section of the needle, the needle having a needle axis which is the axis along the needle; and an inserter for disposing the needle axially in a direction of an axis of rotation, which is the needle axis, at an insertion speed; characterised by a rotary drive for continuously rotating the needle about the needle axis, the rotary drive responsive to control logic adapted to rotate the needle at a time-varying angular velocity based on a needle angular position (θ) about the needle axis, wherein the time-varying angular velocity is independent of the insertion speed and wherein the control logic enables underactuated control of both curvature and direction of a needle path from the rotary drive.
A method for treating a pyropheophytin-containing plant oil, comprising contacting the oil with an enzyme which is capable of hydrolysing pyropheophytin, wherein the enzyme has a pheophytinase to pyropheophytinase activity ratio of less than 80, wherein the enzyme comprises a polypeptide sequence having at least 75% sequence identity to any one of SEQ ID NOs:21, 23 or 25 over the full length of the sequence.
A mixed reality space image providing system comprising a server and a plurality of clients (150, 110, 120, 130, 140) connected to the server, wherein at least one of the plurality of clients has a function to provide a mixed reality space image in which a computer graphics image is superimposed on a real space image as viewed from a point of view of the user, wherein the server includes data storage means configured to store data, and calculation means configured to read/write data out/into the data storage means in response to a request from any one of the clients and to generate a three-dimensional model and a movement simulation of the three-dimensional model, wherein the three-dimensional model corresponds to a mechanical design comprising a plurality of components from which a mechanism can be assembled, wherein the client having the function to provide a mixed reality space image further includes measurement means configured to measure a position of a finger of the user and to determine whether the measured position is located at or about to reach a predetermined position, wherein the server is configured to cause the calculation means to generate data representative of a movement simulation of a component of a three-dimensional model generated based on a design by a first client by reflecting design data generated by a second client in the three-dimensional model when the measured position is about to reach the predetermined position and to send the generated data of the movement simulation to the first client when the measured position reaches the predetermined position, wherein the first client is configured to receive the data of the movement simulation sent from the server and to display such a movement simulation which is configured to move in conjunction with the design data generated by the second client, and wherein the client having the function to provide a mixed reality space image is configured to superimpose the three-dimensional models generated by the server and the movement simulation that is configured to move in conjunction with the design data generated by the second client on a real space image.
An investment casting molding composition comprising: a ceramic composition comprising: silica; and cristobalite in an amount greater than 2.5% and less than 10% by weight of the molding composition; a cycloaliphatic epoxy binder composition, said cycloaliphatic epoxy binder composition present in said molding composition in an amount up to 30% by weight of said molding composition; a silicone composition comprising a siloxane resin, said silicone composition present in said molding composition in an amount up to 30% by weight of said molding composition; and a solvent composition configured to dissolve said cycloaliphatic epoxy binder composition and said silicone composition. a ceramic composition comprising: silica; and cristobalite in an amount greater than 2.5% and less than 10% by weight of the molding composition; silica; and cristobalite in an amount greater than 2.5% and less than 10% by weight of the molding composition; a cycloaliphatic epoxy binder composition, said cycloaliphatic epoxy binder composition present in said molding composition in an amount up to 30% by weight of said molding composition; a silicone composition comprising a siloxane resin, said silicone composition present in said molding composition in an amount up to 30% by weight of said molding composition; and a solvent composition configured to dissolve said cycloaliphatic epoxy binder composition and said silicone composition.
A solid squirrel-cage rotor for an induction machine comprising: - a cylindrical solid rotor body including a number of axially extending slots arranged in the rotor body; - electrically conductive bars arranged in the slots in a close fit; and - electrically conductive members at the axial ends of the rotor body short-circuiting the electrically conductive bars, thus forming the squirrel-cage structure of the rotor, characterized in: - an electrically conductive shielding layer arranged on the cylindrical surface of the rotor body and on any exposed portions of the electrically conductive bars to shield the rotor body and the electrically conductive bars from any harmonic electric fields present outside the rotor, wherein - the resistivity of the electrically conductive shielding layer material is less than 10 x 10 -8 Ωm, preferably less than 2 x 10 -8 Ωm, at 20 °C. - a cylindrical solid rotor body including a number of axially extending slots arranged in the rotor body; - electrically conductive bars arranged in the slots in a close fit; and - electrically conductive members at the axial ends of the rotor body short-circuiting the electrically conductive bars, thus forming the squirrel-cage structure of the rotor, characterized in: - an electrically conductive shielding layer arranged on the cylindrical surface of the rotor body and on any exposed portions of the electrically conductive bars to shield the rotor body and the electrically conductive bars from any harmonic electric fields present outside the rotor, wherein - the resistivity of the electrically conductive shielding layer material is less than 10 x 10 -8 Ωm, preferably less than 2 x 10 -8 Ωm, at 20 °C. - an electrically conductive shielding layer arranged on the cylindrical surface of the rotor body and on any exposed portions of the electrically conductive bars to shield the rotor body and the electrically conductive bars from any harmonic electric fields present outside the rotor, wherein - the resistivity of the electrically conductive shielding layer material is less than 10 x 10 -8 Ωm, preferably less than 2 x 10 -8 Ωm, at 20 °C.
A method performed by a device, comprising: modulating user data into modulated user data elements; determining conjugate data elements, wherein each conjugate data element is a conjugate or opposite conjugate of a respective one of the modulated user data elements; and transmitting, over a time domain, a front pilot sequence immediately followed by a user data sequence comprising the modulated user data elements interleaved with the conjugate data elements, and a rear pilot sequence immediately following the user data sequence, wherein the front pilot sequence and the rear pilot sequence are predetermined collections of data elements. modulating user data into modulated user data elements; determining conjugate data elements, wherein each conjugate data element is a conjugate or opposite conjugate of a respective one of the modulated user data elements; and transmitting, over a time domain, a front pilot sequence immediately followed by a user data sequence comprising the modulated user data elements interleaved with the conjugate data elements, and a rear pilot sequence immediately following the user data sequence, wherein the front pilot sequence and the rear pilot sequence are predetermined collections of data elements.
A method for controlling an air conditioner, wherein the air conditioner comprises an outdoor unit having a compressor, an outdoor heat exchanger and a supercooler and an indoor unit having an indoor heat exchanger, the method comprising: during normal cooling operation, tracking a cycle change from a discharge superheat degree at the discharge side of the compressor of the air conditioner, wherein the normal cooling operation refers to a state where a cooling operation is performed by means of superheating degree control, detecting refrigerant leak from the cycle change based on the discharge superheating degree, wherein the cycle change is a change on a Pressure Enthalpy, P-H, diagram, wherein in the P-H diagram, the cycle obtained at a normal refrigerant amount and the cycle obtained during refrigerant leak is different, wherein the discharge superheating degree at the normal refrigerant amount and the discharge superheating degree during the refrigerant leak is different, determining whether or not a self-supercooling degree of the outdoor heat exchanger attains a reference value when refrigerant leak is detected; wherein the self-supercooling degree of the outdoor heat exchanger is a difference between a temperature of refrigerant discharged from the compressor and a temperature of refrigerant at the outlet of the outdoor heat exchanger; increasing a target superheating degree of the indoor heat exchanger of the air conditioner when the self-supercooling degree does not attain the reference value; and detecting refrigerant leak again; and representing the result of the detecting refrigerant leak. during normal cooling operation, tracking a cycle change from a discharge superheat degree at the discharge side of the compressor of the air conditioner, wherein the normal cooling operation refers to a state where a cooling operation is performed by means of superheating degree control, detecting refrigerant leak from the cycle change based on the discharge superheating degree, wherein the cycle change is a change on a Pressure Enthalpy, P-H, diagram, wherein in the P-H diagram, the cycle obtained at a normal refrigerant amount and the cycle obtained during refrigerant leak is different, wherein the discharge superheating degree at the normal refrigerant amount and the discharge superheating degree during the refrigerant leak is different, determining whether or not a self-supercooling degree of the outdoor heat exchanger attains a reference value when refrigerant leak is detected; wherein the self-supercooling degree of the outdoor heat exchanger is a difference between a temperature of refrigerant discharged from the compressor and a temperature of refrigerant at the outlet of the outdoor heat exchanger; increasing a target superheating degree of the indoor heat exchanger of the air conditioner when the self-supercooling degree does not attain the reference value; and detecting refrigerant leak again; and representing the result of the detecting refrigerant leak.
Timepiece (80, 80/1) having a dial train and having a dial provided with at least one display window (76, 77, 78), wherein the display window (76, 77, 78) has provided beneath it a rotatable setting disc which has various information regions (46, 47, 48, 49, 50, 51, 52, 53, 54) which can be seen alternately through the display window (76, 77, 78) by virtue of the setting disc being rotated, and wherein a Maltese cross is provided, characterized in that the Maltese cross is in operative connection with the setting disc via a setting member which can be rotated eccentrically in relation to the axis of rotation (8, 107) of the setting member, and in that the Maltese cross can be rotated by steps of 90° in each case by at least one setting pin (32, 90, 91), which revolves in proportion with the hour hand, this resulting in rotation of the setting disc by way of the setting member through a predetermined angle of rotation corresponding to the circumferential intervals between the information regions (46 to 54).
A manometric catheter probe, comprising: a flexible printed circuit; at least one pressure sensor assembly, disposed along the flexible printed circuit and coupled therewith, the at least one pressure sensor assembly including: a body including a central cavity configured to receive at least a portion of the flexible printed circuit; an annular recess around the body; a microelectromechanical systems (MEMS) sensor configured to be disposed in the annular recess; an electrical connector configured to electrically couple the MEMS sensor and the flexible printed circuit; and a first flexible sleeve configured to be disposed over the body in a manner forming a cavity between the first flexible sleeve and the annular recess for containing a fluid, the fluid configured to communicate pressure to the MEMS sensor;; and a second sleeve configured to be disposed over the at least one pressure sensor assembly. a flexible printed circuit; at least one pressure sensor assembly, disposed along the flexible printed circuit and coupled therewith, the at least one pressure sensor assembly including: a body including a central cavity configured to receive at least a portion of the flexible printed circuit; an annular recess around the body; a microelectromechanical systems (MEMS) sensor configured to be disposed in the annular recess; an electrical connector configured to electrically couple the MEMS sensor and the flexible printed circuit; and a first flexible sleeve configured to be disposed over the body in a manner forming a cavity between the first flexible sleeve and the annular recess for containing a fluid, the fluid configured to communicate pressure to the MEMS sensor;; and a second sleeve configured to be disposed over the at least one pressure sensor assembly. a body including a central cavity configured to receive at least a portion of the flexible printed circuit; an annular recess around the body; a microelectromechanical systems (MEMS) sensor configured to be disposed in the annular recess; an electrical connector configured to electrically couple the MEMS sensor and the flexible printed circuit; and a first flexible sleeve configured to be disposed over the body in a manner forming a cavity between the first flexible sleeve and the annular recess for containing a fluid, the fluid configured to communicate pressure to the MEMS sensor;; and a second sleeve configured to be disposed over the at least one pressure sensor assembly.
A cylinder head gasket that is sandwiched between joining surfaces of a cylinder head and a cylinder block, and seals a joining part between the cylinder head and the cylinder block, the cylinder head gasket comprising: a composite member that is formed of a metal substrate and a rubber layer provided to both surfaces or one surface of the substrate, and a bead that is formed on a sealing unit of the cylinder head gasket, wherein the substrate is formed of a nickel-free stainless steel having a content of C that is 0 to 0.15 mass%, a content of Si that is 0 to 0.5 mass%, a content of Mn that is 0 to 2.0 mass%, a content of Cr that is 11.5 to 13.0 mass%, a content of N that is 0 to 0.5 mass%, a content of P that is 0 to 0.040 mass%, a content of S that is 0 to 0.030 mass%, the balance Fe, and inevitable impurities, wherein the stainless steel forming the substrate has a 0.2% proof stress of 1,300 to 1,500 MPa, and the elongation of the stainless steel forming the substrate is 2 to 6% both measured in accordance with JIS Z 2241. a composite member that is formed of a metal substrate and a rubber layer provided to both surfaces or one surface of the substrate, and a bead that is formed on a sealing unit of the cylinder head gasket, wherein the substrate is formed of a nickel-free stainless steel having a content of C that is 0 to 0.15 mass%, a content of Si that is 0 to 0.5 mass%, a content of Mn that is 0 to 2.0 mass%, a content of Cr that is 11.5 to 13.0 mass%, a content of N that is 0 to 0.5 mass%, a content of P that is 0 to 0.040 mass%, a content of S that is 0 to 0.030 mass%, the balance Fe, and inevitable impurities, wherein the stainless steel forming the substrate has a 0.2% proof stress of 1,300 to 1,500 MPa, and the elongation of the stainless steel forming the substrate is 2 to 6% both measured in accordance with JIS Z 2241.