mhurhangee/ep-ind-claims huggingface dataset:
A gyroscopic roll stabilizer for a boat, the gyroscopic stabilizer comprising: an enclosure mounted to a gimbal for rotation about a gimbal axis and configured to maintain a below-ambient pressure; a flywheel assembly including a flywheel and flywheel shaft; the flywheel assembly rotatably mounted inside the enclosure for rotation about a flywheel axis; a motor operative to rotate the flywheel assembly and disposed inside the enclosure; a motor cooling circuit configured to transfer heat away from the motor; the motor cooling circuit having a closed fluid pathway for recirculating cooling fluid therein; characterized in that: the fluid pathway includes a fluid channel jointly defined by the motor and the enclosure and having the cooling fluid therein; wherein the gyroscopic roll stabilizer is configured to transfer heat away from the motor to the cooling fluid; wherein the enclosure comprises an integrally formed boss for mounting the motor; wherein an inner face of the boss, facing the motor, comprises a groove; and wherein the groove defines at least a portion of the fluid channel. an enclosure mounted to a gimbal for rotation about a gimbal axis and configured to maintain a below-ambient pressure; a flywheel assembly including a flywheel and flywheel shaft; the flywheel assembly rotatably mounted inside the enclosure for rotation about a flywheel axis; a motor operative to rotate the flywheel assembly and disposed inside the enclosure; a motor cooling circuit configured to transfer heat away from the motor; the motor cooling circuit having a closed fluid pathway for recirculating cooling fluid therein; characterized in that: the fluid pathway includes a fluid channel jointly defined by the motor and the enclosure and having the cooling fluid therein; wherein the gyroscopic roll stabilizer is configured to transfer heat away from the motor to the cooling fluid; wherein the enclosure comprises an integrally formed boss for mounting the motor; wherein an inner face of the boss, facing the motor, comprises a groove; and wherein the groove defines at least a portion of the fluid channel. the fluid pathway includes a fluid channel jointly defined by the motor and the enclosure and having the cooling fluid therein; wherein the gyroscopic roll stabilizer is configured to transfer heat away from the motor to the cooling fluid; wherein the enclosure comprises an integrally formed boss for mounting the motor; wherein an inner face of the boss, facing the motor, comprises a groove; and wherein the groove defines at least a portion of the fluid channel.
A strut for application between an outer ring and an inner ring in a gas turbine structure, wherein an end portion of the strut has a diverging shape so that an internal space is formed in the end portion for receiving at least part of an engine mount wherein cross sections of the strut taken at different distances from a strut end all comprise a shape of an aerodynamic air foil including a rounded front edge and a relatively sharp rear edge connected by curved strut faces (41, 42) characterised in that said end portion of the strut includes a smooth strut area where edge portions (52,54) of a cross section of the strut in a plane in the radial direction have a curvature radius greater than: the length of the strut multiplied by 0.15.
Circuit breaker for a gas insulated switchgear in the medium and high voltage range, comprising a housing, at least four flanges (13, 14, 16, 17) for mounting switchgear devices, a first interrupting chamber with a first electrical connection point configured to connect the first interrupting chamber to a first of said switchgear devices, a second interrupting chamber with a second electrical connection point (38, 52) configured to connect the second interrupting chamber to a second of said switchgear devices, characterized in that it comprises a common point conductor connecting the first interrupting chamber simultaneously to said first electrical connection point and to a third electrical connection point, said third electrical connection point being configured to connect via said common point conductor the first interrupting chamber to a third of said switchgear devices, and in that it comprises a fourth connection point (34, 56) configured to connect the first interrupting chamber or the second interrupting chamber to a fourth of said switchgear devices.
Device for manufacturing a three-dimensional object by solidifying building material, layer-by-layer, at the positions corresponding to the cross-section of the object to be manufactured in a respective layer, comprising a process chamber, in which the object is to be built layer-by-layer by selectively solidifying layers of a building material in a build area, a gas supply device, and a recirculating air filter device, wherein the device comprises a pressure maintaining device configured to maintain the pressure in the process chamber substantially constant. a process chamber, in which the object is to be built layer-by-layer by selectively solidifying layers of a building material in a build area, a gas supply device, and a recirculating air filter device, wherein the device comprises a pressure maintaining device configured to maintain the pressure in the process chamber substantially constant.
A method of manufacturing a silicone ring via compression molding comprising: forming a first outer-band half of a silicone ring and a second outer-band half of a silicone ring with a first compression mold containing a base plate and a top plate press; placing the first outer-band half of the silicone ring in a second compression mold; placing a spacer-insert mold over the second compression mold; placing a silicone rubber through a cavity in the spacer-insert mold and onto a cavity platform on the second mold; placing the second outer-band half of the rings in a third mold; placing the third mold over the spacer-insert mold; inserting the second mold, the spacer-insert mold, and the third mold into a compression chamber, wherein the silicone rubber is compression molded and vulcanized to form an inner-band, and the first and second outer-band halves form a complete silicone ring, and a symmetrical inner-band is formed in between the first and second outer-band halves. forming a first outer-band half of a silicone ring and a second outer-band half of a silicone ring with a first compression mold containing a base plate and a top plate press; placing the first outer-band half of the silicone ring in a second compression mold; placing a spacer-insert mold over the second compression mold; placing a silicone rubber through a cavity in the spacer-insert mold and onto a cavity platform on the second mold; placing the second outer-band half of the rings in a third mold; placing the third mold over the spacer-insert mold; inserting the second mold, the spacer-insert mold, and the third mold into a compression chamber, wherein the silicone rubber is compression molded and vulcanized to form an inner-band, and the first and second outer-band halves form a complete silicone ring, and a symmetrical inner-band is formed in between the first and second outer-band halves.
A method for producing a coated metal wire comprising a steel core and a coating layer made of a metal alloy material including at least one first metal component and at least one second metal component, said first and second metal component of the coating layer being selected from the group consisting of copper, zinc, manganese, cobalt, tin, molybdenum, iron, nickel, aluminum the method comprising the steps of: a. conveying said steel core along a predetermined path in a substantially continuous manner, said predetermined path being positioned in proximity of at least one cathode (1, 2) made of said metal alloy material having a first composition; and b. sputtering said at least one cathode (1, 2) onto said steel core being conveyed along said predetermined path to obtain said coating layer; wherein at least one portion of said predetermined path lies outside of a volume defined by a generatrix substantially perpendicular to a contour line of said at least one cathode (1, 2), so that the coating layer formed when said steel core is conveyed in correspondence of said at least one portion of said predetermined path has a second composition different from the first composition and wherein said sputtering step is carried out by means of a magnetron sputtering technique involving a ionic bombardment of said at least one cathode (1,2); wherein said at least one portion of path lying outside of said volume protrudes from at least one edge of said at least one cathode (1,2) of a predetermined length, and the ratio between said length of the portion of path protruding from at least one edge of said at least one cathode (1,2) and the distance (d) between said at least one cathode (1,2) and the steel core is comprised between 1.5 and 3.2. a. conveying said steel core along a predetermined path in a substantially continuous manner, said predetermined path being positioned in proximity of at least one cathode (1, 2) made of said metal alloy material having a first composition; and b. sputtering said at least one cathode (1, 2) onto said steel core being conveyed along said predetermined path to obtain said coating layer;
Wind turbine lightning stroke diagnostic apparatus for a wind turbine having conductive blades, the apparatus comprising: a lightning protection system input for receiving measured current data associated with a current conducted by the lightning protection system (5,6) following a lightning stroke; an air pressure sensor for detecting an increase in air pressure; a mount for mounting the air pressure sensor within an internal cavity of a conductive wind turbine blade assembly; and a sensor monitor comprising a processor for analysing the measured current data and an output from the air pressure sensor, characterised in that the processor is configured to identify a lightning stroke as a bypass lightning stroke when an increase in the measured current coincides with a transient increase in air pressure associated with a lightning generated shockwave within the internal cavity by the air pressure sensor. a lightning protection system input for receiving measured current data associated with a current conducted by the lightning protection system (5,6) following a lightning stroke; an air pressure sensor for detecting an increase in air pressure; a mount for mounting the air pressure sensor within an internal cavity of a conductive wind turbine blade assembly; and a sensor monitor comprising a processor for analysing the measured current data and an output from the air pressure sensor, characterised in that the processor is configured to identify a lightning stroke as a bypass lightning stroke when an increase in the measured current coincides with a transient increase in air pressure associated with a lightning generated shockwave within the internal cavity by the air pressure sensor.
Locking device for a fluid line comprising an engagement connection and a locking element which can be inserted in the latter from the outside, wherein the engagement connection and the locking element have engagement elements which are complementary to one another for forming a bayonet connection, wherein - the locking element comprises at least two bayonet wings and on the engagement connection at least two complementary designed undercuts are provided, - on at least one bayonet wing an outwardly projecting fixing element is formed which when the bayonet connection is closed engages in a recess formed on an associated undercut, or vice versa so that with increasing internal pressure the locking element can be loosened with increasing difficulty, characterised in that - the at least one fixing element has a locking contour, in particular a locking nose, whereas in the recess an associated counter locking contour is provided, - by means of the locking contour the locking element is prevented from loosening axially. - the locking element comprises at least two bayonet wings and on the engagement connection at least two complementary designed undercuts are provided, - on at least one bayonet wing an outwardly projecting fixing element is formed which when the bayonet connection is closed engages in a recess formed on an associated undercut, or vice versa so that with increasing internal pressure the locking element can be loosened with increasing difficulty, - the at least one fixing element has a locking contour, in particular a locking nose, whereas in the recess an associated counter locking contour is provided, - by means of the locking contour the locking element is prevented from loosening axially.
A method of monitoring a solenoid of a directional control valve in a subsea hydrocarbon production control system, the directional control valve being associated with a subsea control module of a subsea well and the solenoid having a coil and an armature for actuating the valve, the method comprising: applying a voltage across the coil for moving the armature; and sensing an actuation current through the coil to produce an indication of if and when the armature is moved, wherein both the voltage is applied by and the current is sensed by means in a subsea electronics module of the subsea control module, said indication being sent to a topside installation, characterised in that: the subsea electronics module samples the actuation current and stores a sampled and digitised actuation current profile of the directional control valve in the memory of a local processing core where the data is assessed for armature movement and from where the data is retrieved and sent to the topside installation for operator display and scrutineering.
A control circuit (110, 200) for an optical module including an optical receiving unit and an optical transmitting unit, the control circuit (110, 200) comprising: a first memory for storing a plurality of configuration parameters of the optical module at predefined locations within the first memory; a second memory for storing a plurality of variables at dynamically allocated locations of the second memory, the plurality of variables including variables corresponding to a current operation status of the optical module; an analog-to-digital converter configured to receive an analog signal corresponding to the current operation status of the optical module, and to convert the analog signal to a digital value to be stored as the variable corresponding to the current operation status of the optical module in the dynamically allocated location of the second memory; and an interface configured to communicate with a host to receive an access request including an access address from the host, characterized in further comprising: an access control unit configured to control the access of the host, wherein when the access address is within a first range, the access control unit maps the access address to the predefined location within the first memory to allow the host to directly access the predefined location of the first memory, and when the access address is within a second range different from the first range, the access control unit allows the host to access the variable corresponding to the access address so as to access the value of the variable stored in the dynamically allocated location within the second memory. a first memory for storing a plurality of configuration parameters of the optical module at predefined locations within the first memory; a second memory for storing a plurality of variables at dynamically allocated locations of the second memory, the plurality of variables including variables corresponding to a current operation status of the optical module; an analog-to-digital converter configured to receive an analog signal corresponding to the current operation status of the optical module, and to convert the analog signal to a digital value to be stored as the variable corresponding to the current operation status of the optical module in the dynamically allocated location of the second memory; and an interface configured to communicate with a host to receive an access request including an access address from the host, characterized in further comprising: an access control unit configured to control the access of the host, wherein when the access address is within a first range, the access control unit maps the access address to the predefined location within the first memory to allow the host to directly access the predefined location of the first memory, and when the access address is within a second range different from the first range, the access control unit allows the host to access the variable corresponding to the access address so as to access the value of the variable stored in the dynamically allocated location within the second memory.
A wireless charging device comprising a housing, an induction coil, a ferrite, a printed circuit board, PCB, and a fan; wherein the housing comprises a first surface, a second surface and a bottom surface, the second surface connects the first surface and the bottom surface, a protrusion is disposed on the first surface; the induction coil is attached to the ferrite, the ferrite is disposed closer to the first surface than the bottom surface, and the ferrite, the PCB, and the fan are accommodated inside the housing; a first air guiding opening and a second air guiding opening are disposed on the housing, the second air guiding opening is located on the second surface and closer to the bottom surface than the first surface; at least a portion of the first surface surrounded by the protrusion has a groove, and the first air guiding opening is located in the groove; the protrusion is configured to support a to-be-charged device and allow a gap to be formed between the first surface and the to-be-charged device placed on the wireless charging device, and the fan is configured to extract air from the first air guiding opening and exhaust the air from the second air guiding opening, wherein the gap allows air drawn by the fan to flow underneath the to-be-charged device to cool the to-be-charged device. the housing comprises a first surface, a second surface and a bottom surface, the second surface connects the first surface and the bottom surface, a protrusion is disposed on the first surface; the induction coil is attached to the ferrite, the ferrite is disposed closer to the first surface than the bottom surface, and the ferrite, the PCB, and the fan are accommodated inside the housing; a first air guiding opening and a second air guiding opening are disposed on the housing, the second air guiding opening is located on the second surface and closer to the bottom surface than the first surface; at least a portion of the first surface surrounded by the protrusion has a groove, and the first air guiding opening is located in the groove; the protrusion is configured to support a to-be-charged device and allow a gap to be formed between the first surface and the to-be-charged device placed on the wireless charging device, and the fan is configured to extract air from the first air guiding opening and exhaust the air from the second air guiding opening, wherein the gap allows air drawn by the fan to flow underneath the to-be-charged device to cool the to-be-charged device.
An antimicrobial composition comprising: at least one garlic extract; and at least one bioflavonoid and optionally an organic acid for use in treating or preventing a Staphylococcus aureus or Candida tropicalis infection, wherein the garlic extract is selected from allicin and ajoene, wherein the bioflavonoid is selected from one or more of the group consisting of naringenin, naringin, quercetin and rhoifolin, and wherein the organic acid is a carboxylic acid. at least one garlic extract; and at least one bioflavonoid and optionally an organic acid for use in treating or preventing a Staphylococcus aureus or Candida tropicalis infection, wherein the garlic extract is selected from allicin and ajoene, wherein the bioflavonoid is selected from one or more of the group consisting of naringenin, naringin, quercetin and rhoifolin, and wherein the organic acid is a carboxylic acid.
A method for an inter-service-provider-IP-backbone comprising a name resolving system and a proxy, the proxy connecting multiple operator networks, wherein a query for a receiving operator (201, 301) is sent by a transmitting party in a source operator network to the name resolving system in order to send data relating to an SIP service from the source operator network to a subscriber of the receiving operator (201, 301), characterized in that in the method, the source for the query is determined by the name resolving system, whereby depending on the source, a response is returned with an address either of the proxy or of a border gateway of the receiving operator network.
A needle magnetizing arrangement comprising: a controller adapted to generate a first magnetic field for magnetizing a needle; and a magnetic field sensor adapted to generate a signal based on a second magnetic field (F R) of the needle, a processor electrically coupled to the magnetic field sensor and adapted to receive the signal, characterized in that the arrangement is integrally formed with or removably coupled to a medical injection device. a controller adapted to generate a first magnetic field for magnetizing a needle; and a magnetic field sensor adapted to generate a signal based on a second magnetic field (F R) of the needle,
A lightweight bumper beam, comprising an elongated U-shaped monoblock cross member provided at respective end with an attachment portion for attachment to a body in white of a vehicle, whereby each attachment portion is provided with two elongated reinforcing means (11, 12) extending between an inner top surface of the elongated U-shaped monoblock cross member and a bracket of said attachment portion, said two elongated reinforcing means (11, 12) being arranged at a distance relative to each other so as to form a space therebetween, said distance being smallest at an intermediate portion of said two elongated reinforcing means (11, 12), characetized in that that each of said elongated reinforcing means (11, 12) is provided with a depression, and that said depression extends over at least 60% of the length of each elongated reinforcing means (11, 12).