mhurhangee/ep-ind-claims huggingface dataset:
Halogen-free nitrogenous water-insoluble compounds, consisting of an oligomer or a polymer of a 1, 3, 5-triazine derivative, and having the general formula: wherein R 1 is a divalent radical of piperazine of the formula or a divalent radical of the type n is an integer from 8 to 20, extremes included, m is an integer from 2 to 6, extremes included, and X 1 and X are identical and have the meaning morpholino, piperidino or piperazino. n is an integer from 8 to 20, extremes included, m is an integer from 2 to 6, extremes included, and X 1 and X are identical and have the meaning morpholino, piperidino or piperazino.
Device for electrically heating a heat transfer liquid, comprising at least one casing defining an internal volume in which at least one circulation chamber for the heat transfer liquid and at least one printed circuit board bearing at least one electric and/or electronic component are received, the circulation chamber for the heat transfer liquid being delimited by at least one external wall, the circulation chamber for the heat transfer liquid accommodating at least one electric heating element (154, 155) electrically connected to the at least one electric and/or electronic component borne by the printed circuit board, the printed circuit board comprising at least one cutout positioned facing the circulation chamber for the heat transfer liquid, characterized in that the circulation chamber at least partially extends through the cutout.
Method for the combined additive manufacture and shaping of metal shaped bodies, wherein - the shaped body is produced by melting at least one metal material and depositing the material in a molten phase (4.1) in layers according to geometry description data; - the deposited material (4.1) is shaped by means of a shaping tool, comprising at least two rollers which are moved up to the shaped body, according to the geometry description data, characterised in that - the deposited material (4.1) is shaped after it has solidified on the underlying layer (1.2), wherein the rollers of the shaping tool are moved immediately after the depositing and solidification of the deposited material (4.1) up to a position to be shaped onto the shaped body; - the shaping is performed in that at least one roller pair, which consists respectively of two of the rollers, is guided laterally along the most recently deposited layer (1.1) and at least one of the underlying layers (1.2), wherein the layers (1.1, 1.2) are arranged between the two rollers of the roller pair exerting pressure with a component in horizontal direction onto the solidified layers (1.1, 1.2); - the temperature of the shaped body is controlled at least during the shaping, - wherein the regulation of the temperature is controlled or supported by means of a heat transfer fluid which at least partly surrounds the shaped body. - the shaped body is produced by melting at least one metal material and depositing the material in a molten phase (4.1) in layers according to geometry description data; - the deposited material (4.1) is shaped by means of a shaping tool, comprising at least two rollers which are moved up to the shaped body, according to the geometry description data, - the deposited material (4.1) is shaped after it has solidified on the underlying layer (1.2), wherein the rollers of the shaping tool are moved immediately after the depositing and solidification of the deposited material (4.1) up to a position to be shaped onto the shaped body; - the shaping is performed in that at least one roller pair, which consists respectively of two of the rollers, is guided laterally along the most recently deposited layer (1.1) and at least one of the underlying layers (1.2), wherein the layers (1.1, 1.2) are arranged between the two rollers of the roller pair exerting pressure with a component in horizontal direction onto the solidified layers (1.1, 1.2); - the temperature of the shaped body is controlled at least during the shaping, - wherein the regulation of the temperature is controlled or supported by means of a heat transfer fluid which at least partly surrounds the shaped body.
An outlet valve for an ostomy appliance comprising: a valve base for attachment to a face of the ostomy appliance, the valve base defining a base opening for receiving a liquid output from the ostomy appliance; and an outlet element configured to be rotatable relative to the valve base from a closed configuration in which discharge of the liquid received through the base opening is prevented, to an open configuration in which discharge of the liquid received through the base opening is enabled; wherein the outlet element comprises a relatively rigid component rotatably attached to the valve base and a relatively flexible outlet tube portion affixed to the relatively rigid component, and, in the open configuration, the relatively rigid component defines a fluid pathway between the base opening and the relatively flexible outlet tube portion and is configured to receive liquid directly from the base opening and then deliver it to the relatively flexible outlet tube portion, characterized in that the relatively flexible outlet tube portion is over-moulded onto the relatively rigid component.
A method for manufacturing a network element for protection against fire by sprinklers comprising the steps consisting of: i) manufacturing a duct by means of a method comprising the steps consisting of: a. providing a metal duct including a generally cylindrical closed wall; and b. performing in the duct a series of threaded inserts integrally formed by plastic deformation of the wall, by flow-drilling and/or flow-tapping, which method for manufacturing a duct further comprises, prior to the production of the series of threaded inserts, a step of drilling pilot holes with removal of material in the wall, ii) providing a series of sprinklers each including a base and a spray head; iii) placing an enhancement ring on each base of sprinklers, then iv) fastening each sprinkler through its base in a respective insert of the duct. i) manufacturing a duct by means of a method comprising the steps consisting of: a. providing a metal duct including a generally cylindrical closed wall; and b. performing in the duct a series of threaded inserts integrally formed by plastic deformation of the wall, by flow-drilling and/or flow-tapping, which method for manufacturing a duct further comprises, prior to the production of the series of threaded inserts, a step of drilling pilot holes with removal of material in the wall, a. providing a metal duct including a generally cylindrical closed wall; and b. performing in the duct a series of threaded inserts integrally formed by plastic deformation of the wall, by flow-drilling and/or flow-tapping, ii) providing a series of sprinklers each including a base and a spray head; iii) placing an enhancement ring on each base of sprinklers, then iv) fastening each sprinkler through its base in a respective insert of the duct.
A turbine vane made from ceramic matrix composite material and adapted for use in a gas turbine engine, the turbine vane comprising an inner band configured to define a circumferentially extending inner flow path surface, the inner band including three-dimensionally woven reinforcement fibers; an outer band configured to define a circumferentially extending outer flow path surface, the outer band including three-dimensionally woven reinforcement fibers; and an airfoil that extends from the inner band to the outer band across a flow path defined between the inner flow path surface and the outer flow path surface, the airfoil including three-dimensionally woven reinforcement fibers, characterised in that the airfoil includes a trailing-edge insert coupled to a primary airfoil portion that includes the three-dimensionally woven reinforcement such that the trailing-edge insert defines a trailing edge of the airfoil.
Fuel cell device, comprising a media system for supplying fluid media to electrochemical units of the fuel cell device and/or for discharging fluid media from the electrochemical units of the fuel cell device, wherein the media system comprises at least one valve to which, in a standard operating state of the fuel cell device, an electrical standard input power is suppliable in order to maintain the valve in a desired valve state, and wherein the fuel cell device is switchable into a heating operating state in which an electrical heating input power that is greater than the electrical standard input power is suppliable to the at least one valve, characterized in that the fuel cell device comprises a pressure sensor and/or a concentration sensor, from the signal of which it is determinable whether a blockage due to ice formation is present in the media system, wherein the fuel cell device is switchable into the heating operating state or into the standard operating state in dependence on the result of the determination. wherein the media system comprises at least one valve to which, in a standard operating state of the fuel cell device, an electrical standard input power is suppliable in order to maintain the valve in a desired valve state, and wherein the fuel cell device is switchable into a heating operating state in which an electrical heating input power that is greater than the electrical standard input power is suppliable to the at least one valve, characterized in that the fuel cell device comprises a pressure sensor and/or a concentration sensor, from the signal of which it is determinable whether a blockage due to ice formation is present in the media system, wherein the fuel cell device is switchable into the heating operating state or into the standard operating state in dependence on the result of the determination.
A magnetic sensor comprising: a semiconductor substrate with a plurality of Hall elements (112a, 112b), and a magnetic substance with magnetic amplification formed on said semiconductor substrate comprising: a base layer being a base of said magnetic substance, said base layer formed on the semiconductor substrate; and wherein said base layer is a metal and has a coefficient of thermal expansion differing from that of the Hall elements and covers a region of each Hall element at least partially, and said magnetic substance has an area larger than said base layer and characterized in that the base layer comprises a first metal layer formed on the semiconductor substrate, and a second metal layer formed on the first metal layer. a semiconductor substrate with a plurality of Hall elements (112a, 112b), and a magnetic substance with magnetic amplification formed on said semiconductor substrate comprising: a base layer being a base of said magnetic substance, said base layer formed on the semiconductor substrate; and wherein said base layer is a metal and has a coefficient of thermal expansion differing from that of the Hall elements and covers a region of each Hall element at least partially, and said magnetic substance has an area larger than said base layer and characterized in that the base layer comprises a first metal layer formed on the semiconductor substrate, and a second metal layer formed on the first metal layer. a base layer being a base of said magnetic substance, said base layer formed on the semiconductor substrate; and wherein said base layer is a metal and has a coefficient of thermal expansion differing from that of the Hall elements and covers a region of each Hall element at least partially, and said magnetic substance has an area larger than said base layer and characterized in that the base layer comprises a first metal layer formed on the semiconductor substrate, and a second metal layer formed on the first metal layer.
A battery pack, comprising: a plurality of battery modules; a tray giving a space where the plurality of battery modules are placed; a plurality of beam frames (510, 510', 520) installed to traverse an upper surface of the tray to partition spaces where the plurality of battery modules are capable of being individually placed; and a plurality of heatsinks formed to have a hollow structure through which a coolant flows, the plurality of heatsinks being selectively coupled to a part of the plurality of beam frames (510, 510', 520) so as to be disposed to face a side surface of the battery modules, respectively, wherein a heat conduction medium having a louver structure is interposed at a thermal interface of the heatsink and the battery module, characterized in that the heat conduction medium includes a plate surface attached to one surface of the heatsink and a plurality of louver fins formed to protrude obliquely at a predetermined acute angle with respect to the plate surface, and the plurality of louver fins have a property to be elastically or plastically deformed when an external pressure is applied thereto. a plurality of battery modules; a tray giving a space where the plurality of battery modules are placed; a plurality of beam frames (510, 510', 520) installed to traverse an upper surface of the tray to partition spaces where the plurality of battery modules are capable of being individually placed; and a plurality of heatsinks formed to have a hollow structure through which a coolant flows, the plurality of heatsinks being selectively coupled to a part of the plurality of beam frames (510, 510', 520) so as to be disposed to face a side surface of the battery modules, respectively, wherein a heat conduction medium having a louver structure is interposed at a thermal interface of the heatsink and the battery module, characterized in that the heat conduction medium includes a plate surface attached to one surface of the heatsink and a plurality of louver fins formed to protrude obliquely at a predetermined acute angle with respect to the plate surface, and the plurality of louver fins have a property to be elastically or plastically deformed when an external pressure is applied thereto.
A launch system for use in controlling subsea equipment, comprising: a. a winch mounted on a vessel; b. a moveable boom mounted on the vessel; c. at least one reel (48, 50) mounted near the moveable boom on the vessel for storing at least one optical conductor, electrical conductor or hydraulic conductor; d. at least one actuator mounted on the vessel for pivoting the moveable boom from a pre-deployed position to a deployed position; e. a power system mounted on said vessel for said at least one optical conductor, electrical conductor or hydraulic conductor when engaged with said subsea equipment which can be used for performing subsea functions the winch being mounted on the vessel separately from the moveable boom, characterised in that the launch system further includes a cable sheave disposed on said moveable boom and arranged to receive cable from the winch and guide said cable to a subsea tool, and an umbilical sheave disposed on said moveable boom arranged to guide a hydraulic umbilical and an electrical sheave disposed on said moveable boom arranged to guide an electrical umbilical to the subsea tool. a. a winch mounted on a vessel; b. a moveable boom mounted on the vessel; c. at least one reel (48, 50) mounted near the moveable boom on the vessel for storing at least one optical conductor, electrical conductor or hydraulic conductor; d. at least one actuator mounted on the vessel for pivoting the moveable boom from a pre-deployed position to a deployed position; e. a power system mounted on said vessel for said at least one optical conductor, electrical conductor or hydraulic conductor when engaged with said subsea equipment which can be used for performing subsea functions
One or more computer-storage media having computer-executable instructions embodied thereon that, when executed by a computing device, perform a method of client-rendering player movement in a server-based gaming environment, the method comprising: receiving, from a game server, a rendered video game image comprising primary scene imagery and predictive scene imagery, the primary scene imagery being within a game's current field of view and the predictive scene imagery being outside of and adjacent to the current field of view and wherein the predictive scene imagery is sized based on a calculation of how far the current field of view could move at a predicted velocity of rotation between receipt of rendered video game images from the server, the predicted velocity being measured based on the user's style of play; cropping the rendered video game image to create a first video frame that depicts the primary scene imagery and not the predictive scene imagery; outputting for display the first video frame; receiving a controller instruction to rotate the current field of view to a new field of view; and without receiving additional rendered images from the game server, generating, at a game client, a second video frame showing the new field of view comprising part of the primary scene imagery and part of the predictive scene imagery. receiving, from a game server, a rendered video game image comprising primary scene imagery and predictive scene imagery, the primary scene imagery being within a game's current field of view and the predictive scene imagery being outside of and adjacent to the current field of view and wherein the predictive scene imagery is sized based on a calculation of how far the current field of view could move at a predicted velocity of rotation between receipt of rendered video game images from the server, the predicted velocity being measured based on the user's style of play; cropping the rendered video game image to create a first video frame that depicts the primary scene imagery and not the predictive scene imagery; outputting for display the first video frame; receiving a controller instruction to rotate the current field of view to a new field of view; and without receiving additional rendered images from the game server, generating, at a game client, a second video frame showing the new field of view comprising part of the primary scene imagery and part of the predictive scene imagery.
An apparatus for producing an optical effect layer comprising: a holder (1a, 1b), the holder (1a, 1b) having mounted thereto: a motor (2a, 2b+2c); and a permanent magnet assembly, wherein the motor (2a, 2b+2c) is configured to spin the permanent magnet assembly, characterized in that the holder (1a, 1b) is configured to be removably fixed to a circumferential mounting groove of a rotating magnetic cylinder or to a mounting recess of a flatbed printing unit, and wherein the permanent magnet assembly is removably fixed to the holder (1a, 1b). a holder (1a, 1b), the holder (1a, 1b) having mounted thereto: a motor (2a, 2b+2c); and a permanent magnet assembly, a motor (2a, 2b+2c); and a permanent magnet assembly,
Locking system of a door station of a house communication system, • wherein the station comprises a front plate, which is subdivided into a main front plate and an end front plate and a gap is embodied between the main front plate and the end front plate, • wherein the main front plate is fixedly connected to a device insert and a closure module, • wherein the end front plate is fixedly connected to an end strip that comprises a locking part, characterized in that • for the purpose of releasably fastening the end strip to the station a hooking arrangement is provided, in which latching hooks of the locking part of the end strip engage over latching edges of insertion inclines of the closure module, • the end strip comprises a locking strip, wherein for the purpose of blocking the lateral displacement of the end strip relative to the closure module a cam that is connected to the closure module engages in a groove of a locking strip on the end face of the end front plate, which end face faces the main front plate, and • for the purpose of removing the end strip from the station a removal tool engages in the gap, the removal tool comprises a spigot that engages through the groove in the locking strip of the end front plate of the end strip and presses against the cam in order to urge the cam out of the groove and in order to release the blocking of the transverse displacement between the closure module and the end strip. • wherein the station comprises a front plate, which is subdivided into a main front plate and an end front plate and a gap is embodied between the main front plate and the end front plate, • wherein the main front plate is fixedly connected to a device insert and a closure module, • wherein the end front plate is fixedly connected to an end strip that comprises a locking part, • for the purpose of releasably fastening the end strip to the station a hooking arrangement is provided, in which latching hooks of the locking part of the end strip engage over latching edges of insertion inclines of the closure module, • the end strip comprises a locking strip, wherein for the purpose of blocking the lateral displacement of the end strip relative to the closure module a cam that is connected to the closure module engages in a groove of a locking strip on the end face of the end front plate, which end face faces the main front plate, and • for the purpose of removing the end strip from the station a removal tool engages in the gap, the removal tool comprises a spigot that engages through the groove in the locking strip of the end front plate of the end strip and presses against the cam in order to urge the cam out of the groove and in order to release the blocking of the transverse displacement between the closure module and the end strip.
A sound reproduction system comprising: at least two identical loudspeaker assemblies (101, 102, 103) in a horizontal linear array, each loudspeaker assembly (101, 102, 103) comprising at least two identical loudspeakers (111 to 114, 121 to 124, 131 to 134) pointing in different directions so that the loudspeaker assemblies (101, 102, 103) have adjustable, controllable or steerable directivity characteristics; and a control module configured to adjust, control and/or steer the loudspeaker assemblies (101, 102, 103), said control module comprising a modal beamformer (141, 142, 143) being configured to drive said loudspeaker assemblies (101, 102, 103) so that at least one acoustic wave field is generated at least at one listening position. at least two identical loudspeaker assemblies (101, 102, 103) in a horizontal linear array, each loudspeaker assembly (101, 102, 103) comprising at least two identical loudspeakers (111 to 114, 121 to 124, 131 to 134) pointing in different directions so that the loudspeaker assemblies (101, 102, 103) have adjustable, controllable or steerable directivity characteristics; and a control module configured to adjust, control and/or steer the loudspeaker assemblies (101, 102, 103), said control module comprising a modal beamformer (141, 142, 143) being configured to drive said loudspeaker assemblies (101, 102, 103) so that at least one acoustic wave field is generated at least at one listening position.