mhurhangee/ep-ind-claims huggingface dataset:
Mechanically controllable valve drive assembly for at least one multicylinder row of an internal combustion engine with at least two cylinders, each of which is provided with at least one gas exchange valve respectively engaged by a transmission arrangement (32, 34, 36, 38, 40, 42, 44, 46) by means of an end face, wherein the transmission arrangement (32, 34, 36, 38, 40, 42, 44, 46) is movably supported in the cylinder head by bearing means, and wherein the transmission arrangement (32, 34, 36, 38, 40, 42, 44, 46) is operatively connected to a valve lift adjustment means and a camshaft, wherein the valve lift adjustment means comprises rotatable adjustment elements (50, 52, 54, 56, 58, 60, 62, 64) with at least one eccentric element which acts on the transmission arrangement against the pre-tensioning force of a spring element such that different valve lift positions can be set, wherein the valve lift adjustment means comprises at least one actuator (76, 78, 80, 82), characterized in that each cylinder has at least one actuator (76, 78, 80, 82) assigned thereto, wherein the actuators (76, 78, 80, 82) are operatively connected to the adjustment element (50, 52, 54, 56, 58, 60, 62, 64) via a reduction gearing, wherein the gearing is formed by a straight spur gearing and a worm gearing, wherein a worm gear shaft is provided, and wherein the adjustment element is at least partly configured as a worm gear.
A method for testing and/or calibrating a system for radiotherapy, wherein a body of water is irradiated by means of the pulsed radiation source by at least one pulse having the duration of less than 1 ms and depositing a dose corresponding to at least 50 mGy at a depth of at least 1 cm in water, and simultaneously the irradiated region is subjected to imaging by means of the imaging system within a time jitter shorter than 200 ms from the delivery of the irradiation pulse, wherein the imaging is carried out with a time resolution better than 200 ms, and the obtained image is used for calculating the deposited dose and optionally adjusting the system.
A process of fire refining blister copper, comprising the steps of: (a) providing molten blister copper into an anode furnace; (b) oxidizing sulfur in the molten blister copper by blowing oxygen containing gas into the molten blister copper until a first prescribed target value has been reached; (c) subsequently discontinuing blowing of the oxygen containing gas and lowering the sulfur and oxygen content in blister copper by blowing inert gas into the molten blister copper until a second prescribed target value has been reached, wherein the inert phase (c) is continued until the second prescribed target value of the oxygen concentration is below 4000 ppm, and the second prescribed target value of the sulfur concentration is below 500 ppm; (d) subsequently discontinuing blowing of the inert gas and reducing oxygen in the blister copper by supplying a reducing agent into the molten blister copper until a third prescribed target value has been reached and anode copper is obtained; and (e) optionally casting the obtained anode copper. (a) providing molten blister copper into an anode furnace; (b) oxidizing sulfur in the molten blister copper by blowing oxygen containing gas into the molten blister copper until a first prescribed target value has been reached; (c) subsequently discontinuing blowing of the oxygen containing gas and lowering the sulfur and oxygen content in blister copper by blowing inert gas into the molten blister copper until a second prescribed target value has been reached, wherein the inert phase (c) is continued until the second prescribed target value of the oxygen concentration is below 4000 ppm, and the second prescribed target value of the sulfur concentration is below 500 ppm; (d) subsequently discontinuing blowing of the inert gas and reducing oxygen in the blister copper by supplying a reducing agent into the molten blister copper until a third prescribed target value has been reached and anode copper is obtained; and (e) optionally casting the obtained anode copper.
Vane device for a gas turbine, the vane device comprising a first airfoil comprising a first suction side and a first pressure side, a second airfoil comprising a second suction side and a second pressure side, an inner shroud, and an outer shroud, wherein the first airfoil and the second airfoil are arranged between the inner shroud and the outer shroud, wherein the first airfoil and the second airfoil are at least partially coated with a MCrAlY coating, wherein at least the first suction side comprises a coated surface section which is coated with a thermal barrier coating and which represents at least a part of the total surface of the first suction side, and wherein parts of the inner and outer shrouds are coated with a MCrAlY coating and at least the inner shroud or the outer shroud comprises a further coated surface section which is coated with a further thermal barrier coating, wherein the inner shroud comprises an inner platform, and wherein the outer shroud comprises a further inner platform, wherein an inner surface of the inner platform and a further inner surface of the further inner platform are washed during operation of the gas turbine by a working fluid of the gas turbine, wherein the inner surface of the inner platform and/or the further inner surface of the further inner platform comprise(s) the further coated surface section, wherein the first airfoil further comprises a first leading edge and a first trailing edge, wherein the second airfoil further comprises a second leading edge and a second trailing edge, wherein the further coated surface section is located onto the inner platform and/or the further inner platform at a section which is located downstream of the first trailing edge and the second trailing edge, wherein the first pressure side and the second pressure side are free of a thermal barrier coating, and wherein the further coated surface section has a width extending from the platform trailing edge (112,122) a distance between approximately 50% to approximately 80% of a dimension from the platform trailing edge (112, 122) to aerofoil trailing edge (103, 117), wherein the thermal barrier coating and/or the further thermal barrier coating comprises a thinning out section, wherein in the thinning out section the thickness of the thermal barrier coating is smoothly reduced in a direction to an edge of the respective coated surface section and/or the further coated surface section, wherein on top of the MCrAlY coating, the thermal barrier coating of the coated surface section is applied.
A modular surgical system for use in a surgical procedure, the modular surgical system comprising: a control module comprising a power supply; surgical modules, comprising: a first surgical module; and a second surgical module, wherein the first surgical module is arranged in a stack configuration with the control module and the second surgical module, wherein the power supply is configured to output power to the first surgical module and the second surgical module; a power backplane configured to deliver the power to the first surgical module and the second surgical module through the first surgical module; and a control circuit configured to adaptively adjust power allocations to the first surgical module and the second surgical module, wherein the control circuit is configured to adaptively adjust the power allocations to the first surgical module and the second surgical module based on a number of the surgical modules in the stack configuration. a control module comprising a power supply; surgical modules, comprising: a first surgical module; and a second surgical module, wherein the first surgical module is arranged in a stack configuration with the control module and the second surgical module, wherein the power supply is configured to output power to the first surgical module and the second surgical module; a first surgical module; and a second surgical module, wherein the first surgical module is arranged in a stack configuration with the control module and the second surgical module, wherein the power supply is configured to output power to the first surgical module and the second surgical module; a power backplane configured to deliver the power to the first surgical module and the second surgical module through the first surgical module; and a control circuit configured to adaptively adjust power allocations to the first surgical module and the second surgical module, wherein the control circuit is configured to adaptively adjust the power allocations to the first surgical module and the second surgical module based on a number of the surgical modules in the stack configuration.
A lever-actuated connector comprising: a wire cover to which a lever is attached so as to be rotatable between an initial mating position and a final mating position, the wire cover having a specified rightward direction in which an electrical wire is led out; a housing to which the wire cover is mounted; and an interference structure (76, 27) arranged to prevent the wire cover, having the lever placed in a position for mounting the wire cover to the housing, from being mounted to the housing with an improper orientation, characterized in that the interference structure (76, 27) is provided between the lever and the housing; the wire cover is capable of being mounted on the housing with a reversed orientation, when the electrical wire should be led out in a leftward direction; in which case the lever is attached to the wire cover in a reversed orientation.
A curd kneading machine comprising: - a kneading channel, having an inlet end which is open to receive curd to be kneaded and an outlet end which is open to dispense said curd, - a pair of mutually opposite motorized augers (20, 22), which are supported side by side in the kneading channel and can be actuated to rotate in opposite directions to move said curd from said inlet end to said outlet end, - first steam injector means (32, 34), which are open in said kneading channel, - at least one kneading chamber arranged at the outlet end of said kneading channel in order to receive the curd dispensed therefrom, characterized in that said kneading chamber accommodates a motorized spindle with a vertical axis provided with at least one rotating arm (48, 50, 52), said at least one rotating arm (48, 50, 52) cooperating with at least one fixed arm (58, 60) that protrudes toward the inside of the kneading chamber at a non-interfering height. - a kneading channel, having an inlet end which is open to receive curd to be kneaded and an outlet end which is open to dispense said curd, - a pair of mutually opposite motorized augers (20, 22), which are supported side by side in the kneading channel and can be actuated to rotate in opposite directions to move said curd from said inlet end to said outlet end, - first steam injector means (32, 34), which are open in said kneading channel, - at least one kneading chamber arranged at the outlet end of said kneading channel in order to receive the curd dispensed therefrom,
A cleaning device for cleaning a substrate, the cleaning device comprising: - a mandrel; and - a brush engaged to the mandrel, wherein the brush forms several Archimedean screw thread forms on an outer surface of the mandrel, characterized in that the brush is formed of an elongated absorbent material which seats within a groove in the mandrel, wherein the Archimedean screw thread form comprises at least two different pitches along its length. - a mandrel; and - a brush engaged to the mandrel, wherein the brush forms several Archimedean screw thread forms on an outer surface of the mandrel,
Drawer, in particular for a furniture element, wherein the drawer comprises at least one front and at least one side panel, which is connected to the front by one of its end faces or is arranged in the region of the front, wherein the connection between the front and the side panel is established by means of at least one connection element, the connection element comprises at least one front-side fastening element, which is arranged on the inside of the front, and at least one panel-side fastening element, which is arranged on the side panel, one of the fastening elements (180, 280) comprises at least one undercut, the other of the fastening elements (180, 280) comprises at least one projection or other element which engages behind the undercut when the front is mounted, the connection element has at least one adjusting element, by means of which the projection or the other element can be inserted and/or fixed into the undercut, and the adjusting element is accessible through an opening in the underside of the panel, characterised in that the adjusting element is designed as a screw or threaded pin.
A support assembly, mounted between a rear cover and a screen of a handheld electronic device to support and fasten a component of the handheld electronic device, wherein the support assembly comprises an appearance part and an internal structure support part, wherein the appearance part and the internal structure support part are fabricated through integral molding of an amorphous alloy; the internal structure support part is formed by extending the top or the middle of the appearance part inwards; and an average thickness of the internal structure support part is less than 2 mm.
Transmission chain comprising a number of groups of juxtaposed links intercoupled into an endless chain configuration by pivot joint assemblies, each such pivot joint assembly comprising a first and a second elongated pin of which the first one is longer and thicker than the second one and in which each link comprises two adjacent openings separated by a central link part and each such opening accommodates one such pivot joint assembly, such that in each link a first pin of a first assembly is immobilized partly enclosed by a part of the contour of the outer edge of a first opening and a second pin of a second such assembly is, also immobilized, partly enclosed by a part of the contour of the outer edge of a second opening, said first pin being destined to co-operate, during operation of the chain, in a force transmitting way with the opposite sheaves of a pair of pulley sheaves of a continuously variable transmission and to roll with a curved longitudinal surface thereof over the opposite, essentially flat, longitudinal surface of a second pin, characterized in that the height of the second pin is greater than the Reight of the first pin and the longitudinal surface of each second pin merges, near to the respective upper and lower edges thereof via respective in-cross-section curved first and second transition parts (38, 40), which are directed away from this longitudinal surface, into respective adjacent, broadened, head end parts (42, 44) of said second pin.
A compound of formula: wherein R 3 is selected from methyl, ethyl, n-propyl, isopropyl, trifluoromethyl, optionally substituted phenyl and optionally substituted naphthyl; Y each independently is halogen, C 1-4 -alkyl, C 1-4 -haloalkyl, C 1-4 -alkoxy, C 1-4 -haloalkoxy, phenyl, cyano or nitro; m is 0-5; and A is N or CH. R 3 is selected from methyl, ethyl, n-propyl, isopropyl, trifluoromethyl, optionally substituted phenyl and optionally substituted naphthyl; Y each independently is halogen, C 1-4 -alkyl, C 1-4 -haloalkyl, C 1-4 -alkoxy, C 1-4 -haloalkoxy, phenyl, cyano or nitro; m is 0-5; and A is N or CH.
A catheter comprising: a proximal section; a distal section, the distal section comprising: one or more electrodes configured to apply RF energy to a portion of a sample in contact with the one or more electrodes, such that the portion of the sample is ablated, a plurality of interconnected optical ports configured to transmit one or more beams of exposure radiation away from the distal section of the catheter and receive one or more beams of scattered radiation that have been reflected or scattered from the sample, and a holder configured to maintain the interconnected optical ports in a fixed spatial relationship; and a multiplexer configured to direct the one or more beams of exposure radiation from the source beam of radiation and combine the one or more beams of scattered radiation, characterized in that the plurality of interconnected optical ports are formed on a substrate having rigid sections and flexible sections. a proximal section; a distal section, the distal section comprising: one or more electrodes configured to apply RF energy to a portion of a sample in contact with the one or more electrodes, such that the portion of the sample is ablated, a plurality of interconnected optical ports configured to transmit one or more beams of exposure radiation away from the distal section of the catheter and receive one or more beams of scattered radiation that have been reflected or scattered from the sample, and a holder configured to maintain the interconnected optical ports in a fixed spatial relationship; and one or more electrodes configured to apply RF energy to a portion of a sample in contact with the one or more electrodes, such that the portion of the sample is ablated, a plurality of interconnected optical ports configured to transmit one or more beams of exposure radiation away from the distal section of the catheter and receive one or more beams of scattered radiation that have been reflected or scattered from the sample, and a holder configured to maintain the interconnected optical ports in a fixed spatial relationship; and a multiplexer configured to direct the one or more beams of exposure radiation from the source beam of radiation and combine the one or more beams of scattered radiation,
Sensor element for gas sensors for determining the concentration of particles in gas mixtures, in particular soot sensors, having at least one measuring arrangement which is exposed to the gas which is to be determined and comprises a first and a second measuring electrode (14, 16) it being possible to determine an electrical resistance using the said first and the said second measuring electrode, at least one heating element which is integrated into the sensor element and at least one temperature measuring element which is integrated into the sensor element, wherein the sensor element is designed as a planar ceramic body of multilayer construction, characterized in that the heating element is arranged physically between the measuring arrangement (14, 16) and the temperature measuring element within the sensor element, wherein the heating element is arranged equidistantly in relation to the measuring electrodes (14, 16) and the temperature measuring element.
A catheter, comprising: an elongated tubing including an opening at a distal end of the tubing, the tubing being formed by an axial wall defining a lumen extending between a proximal end of the tubing to the distal end of the tubing; a septum positioned across the opening of the tubing; a first micro-lumen (330 1) formed in the septum; a plurality of micro-lumens (330 2 -330 N) formed along a circumference of the wall forming the tubing; and further comprising: a first core fiber (340 1) residing within the first micro-lumen; and a plurality of core fibers (340 2 -340 N) each residing within a different micro-lumen of the plurality of micro-lumens, wherein a plurality of sensors (380 i1 -380 iM) are distributed along a longitudinal length of both the first core fiber and each of the plurality of core fibers and each sensor of the plurality of sensors being configured to (i) reflect a light signal of a different spectral width based on received incident light and (ii) change a characteristic of the reflected light signal for use in determining a physical state of the catheter. an elongated tubing including an opening at a distal end of the tubing, the tubing being formed by an axial wall defining a lumen extending between a proximal end of the tubing to the distal end of the tubing; a septum positioned across the opening of the tubing; a first micro-lumen (330 1) formed in the septum; a plurality of micro-lumens (330 2 -330 N) formed along a circumference of the wall forming the tubing; and further comprising: a first core fiber (340 1) residing within the first micro-lumen; and a plurality of core fibers (340 2 -340 N) each residing within a different micro-lumen of the plurality of micro-lumens, wherein a plurality of sensors (380 i1 -380 iM) are distributed along a longitudinal length of both the first core fiber and each of the plurality of core fibers and each sensor of the plurality of sensors being configured to (i) reflect a light signal of a different spectral width based on received incident light and (ii) change a characteristic of the reflected light signal for use in determining a physical state of the catheter. a first core fiber (340 1) residing within the first micro-lumen; and a plurality of core fibers (340 2 -340 N) each residing within a different micro-lumen of the plurality of micro-lumens, wherein a plurality of sensors (380 i1 -380 iM) are distributed along a longitudinal length of both the first core fiber and each of the plurality of core fibers and each sensor of the plurality of sensors being configured to (i) reflect a light signal of a different spectral width based on received incident light and (ii) change a characteristic of the reflected light signal for use in determining a physical state of the catheter.
Cooling system for contact cooling of a beverage container, the system comprising: - a cooling element; - a cooling contact body thermally conductively connected to the cooling element and arranged to be in thermally conductive contact with the container; - a sensor module arranged to provide a sensor signal having a sensor value indicative of a contact area between the cooling contact body and the container; - a processing unit arranged to control operation of the cooling element in response to the sensor signal. - a cooling element; - a cooling contact body thermally conductively connected to the cooling element and arranged to be in thermally conductive contact with the container; - a sensor module arranged to provide a sensor signal having a sensor value indicative of a contact area between the cooling contact body and the container; - a processing unit arranged to control operation of the cooling element in response to the sensor signal.
A composition comprising isolated nanovesicles derived from an extracellular matrix and a pharmaceutically acceptable carrier, wherein the nanovesicles do not express CD63 or CD81, or are CD63 lo CD81 lo, for use in treating inflammation in a subject.