mhurhangee/patent-ind-claim-en huggingface dataset:
Pressure-limiting valve with feed function, which is pilot-controlled and comprises a valve housing having at least two connection points in the form of a working connection (A) and a tank connection (T) and having a spring-loaded pressure-limiting valve piston which is mounted such as to be longitudinally movable in the valve housing and having a spring-loaded non-return valve piston to carry out the feed function, wherein the non-return valve piston is designed as a hollow piston and is mounted such as to be longitudinally movable in the valve housing , and wherein a compression spring is supported at its one end by the non-return valve piston and at its other end by an end part with a central aperture , which forms a permanent fluid passage from the working connection (A) to the inner chamber of the non-return valve piston , characterised in that the non-return valve has an oblique surface to provide a seat-tight connection between the respective pistons of the non-return valve pistons , said oblique surface engaging in a cylindrical receiving chamber on the end of the pressure-limiting valve piston .
Solar box with a junction box and at least one expansion module , which can be operatively connected to the junction box by way of a first and a second connector part of a standardised interface , wherein the junction box has a connection duct and contacts , wherein the contacts are used for connecting to corresponding connection strips of a solar panel and open into the connection duct from a least one duct wall, wherein when installed the at least one expansion module has a distance (a) from the solar panel, resulting in a gap, wherein the solar box comprises a first expansion module having connection cables and wherein the first expansion module has electronic components, which allow a solar panel to be decoupled during operation.
A gas turbine engine comprising: a fan shaft arranged along an engine central axis; a frame supporting the fan shaft, the frame defining a frame lateral stiffness FLS; a gear system rotatably coupled to the fan shaft; a first flexible coupling and a second flexible coupling at least partially supporting the gear system, the first flexible coupling and the second flexible coupling being subject to the following motions, with respect to the engine central axis, Motion I, Motion II, Motion III, Motion IV and combinations thereof, wherein Motion I is parallel offset guided end motion, Motion II is cantilever beam free end motion and Motion III is angular misalignment no offset motion and Motion IV is axial motion, the first flexible coupling having a first stiffness defined with respect to the frame lateral stiffness FLS and the type of motion and the second flexible coupling having a second stiffness defined with respect to the frame lateral stiffness FLS and the type of motion; and characterised by the first flexible coupling and the second flexible coupling each having Stiffnesses A, B, C, D and E defined with respect to the frame lateral stiffness FLS, wherein Stiffness A is axial stiffness under Motion IV, Stiffness B is radial stiffness under Motion II, Stiffness C is radial stiffness under Motion I, Stiffness D is torsional stiffness under Motion I, and Stiffness E is angular stiffness under Motion III; and characterised in that a ratio of FLS/Stiffness A of first coupling is in a range of 6.0 to 25.0, and a ratio of FLS/Stiffness A of second coupling is in a range of 28.0 to 200.0. a fan shaft arranged along an engine central axis; a frame supporting the fan shaft, the frame defining a frame lateral stiffness FLS; a gear system rotatably coupled to the fan shaft; a first flexible coupling and a second flexible coupling at least partially supporting the gear system, the first flexible coupling and the second flexible coupling being subject to the following motions, with respect to the engine central axis, Motion I, Motion II, Motion III, Motion IV and combinations thereof, wherein Motion I is parallel offset guided end motion, Motion II is cantilever beam free end motion and Motion III is angular misalignment no offset motion and Motion IV is axial motion, the first flexible coupling having a first stiffness defined with respect to the frame lateral stiffness FLS and the type of motion and the second flexible coupling having a second stiffness defined with respect to the frame lateral stiffness FLS and the type of motion; and characterised by the first flexible coupling and the second flexible coupling each having Stiffnesses A, B, C, D and E defined with respect to the frame lateral stiffness FLS, wherein Stiffness A is axial stiffness under Motion IV, Stiffness B is radial stiffness under Motion II, Stiffness C is radial stiffness under Motion I, Stiffness D is torsional stiffness under Motion I, and Stiffness E is angular stiffness under Motion III; and characterised in that a ratio of FLS/Stiffness A of first coupling is in a range of 6.0 to 25.0, and a ratio of FLS/Stiffness A of second coupling is in a range of 28.0 to 200.0.
Self-watering system for a potted plant comprising a liquid container and an insert with an in use position against the potted plant pointing upper part , which extends at least partially through an opening in the pot bottom, wherein: - the self-watering system includes at least one to the upper part of the insert attached wick for transporting fluid from the liquid container ; - the upper part insert is tapered; - the wick extends along the exterior wall of the insert's upper part and lower part ; characterized in that the insert is hollow, and in that the insert is either integrated with the liquid container or stands on the bottom of the liquid container , so that when the insert stands on the bottom of the liquid container 2, the diameter of the bottom of the insert is approximately equal to the inner diameter of the liquid container; or when the insert is integrated with the liquid container , the lower part of the insert is adapted to the liquid container so that the insert is centered therein. - the self-watering system includes at least one to the upper part of the insert attached wick for transporting fluid from the liquid container ; - the upper part insert is tapered; - the wick extends along the exterior wall of the insert's upper part and lower part ;
A microfluidic device adapted to be used with a processing device comprising a magnetic supplier , the microfluidic device being arranged to receive a biological sample and to contain at least one magnetic particle and comprising a chip comprising storing means storing information including a magnetic protocol information in a form readable by the processing device, the chip being arranged such that, once placed proximate the processing device or in the processing device at an appropriate location, the processing device is able to read automatically said information from the storing means , the magnetic protocol information being suitable to control the magnetic supplier to generate magnetic forces on the magnetic particle(s) according to this magnetic protocol information read from the storing means , the magnetic protocol being a magnetic actuation protocol information including calibration information, wherein the microfluidic device further comprises a chamber , which comprises a sensing surface including capturing means arranged for capturing via analytes the magnetic particles bound to an analyte, wherein the magnetic particle(s) are arranged to specifically bind with the analyte(s), and wherein the microfluidic device is arranged so that the presence of bound magnetic beads bound to the sensing surface can be detected by a detector provided in the processing device, wherein the calibration information is used to calibrate and extract an estimated number of magnetic particles from a detection signal received by the detector.
A system for performing retinal phototherapy or photostimulation, comprising: a plurality of laser consoles , each laser console generating at least one treatment beam having a predetermined wavelength between 750nm and 1300nm, a power or intensity between 100 watts and 590 watts per square centimeter, and a duty cycle of 10% or less and a total exposure duration of 500 milliseconds or less such that the retinal tissue experiences phototherapy or photostimulation without being damaged, wherein the treatment beams have different wavelengths; at least one optical lens or mask for each of the treatment beams configured to optically shape each of the treatment beams into a plurality of radiant beams to produce a geometric pattern of simultaneously produced multiple laser spots or other geometric objects; a coaxial wide-field non-contact digital optical viewing camera , wherein the coaxial wide-field non-contact digital optical viewing camera is configured to project the radiant beams to at least a portion of the retina ; and a scanning mechanism for controllably moving the radiant treatment beams over a treatment area of the retina. a plurality of laser consoles , each laser console generating at least one treatment beam having a predetermined wavelength between 750nm and 1300nm, a power or intensity between 100 watts and 590 watts per square centimeter, and a duty cycle of 10% or less and a total exposure duration of 500 milliseconds or less such that the retinal tissue experiences phototherapy or photostimulation without being damaged, wherein the treatment beams have different wavelengths; at least one optical lens or mask for each of the treatment beams configured to optically shape each of the treatment beams into a plurality of radiant beams to produce a geometric pattern of simultaneously produced multiple laser spots or other geometric objects; a coaxial wide-field non-contact digital optical viewing camera , wherein the coaxial wide-field non-contact digital optical viewing camera is configured to project the radiant beams to at least a portion of the retina ; and a scanning mechanism for controllably moving the radiant treatment beams over a treatment area of the retina.
A method, comprising: identifying an uplink-downlink, UL-DL, configuration of a primary time division duplex, TDD, cell of a UE ; identifying a UL-DL configuration of a secondary TDD cell of the UE, wherein the UL-DL configuration of the primary TDD cell differs from the UL-DL configuration of the secondary TDD cell and wherein the primary TDD cell is to use a component carrier of a first band and the secondary TDD cell is to use a component carrier of a second band that differs from the first band; identifying a subframe of a physical downlink shared channel, PDSCH, transmission of the secondary TDD cell, the PDSCH transmission to comprise data intended for the UE; determining an adapted downlink association set index based on the UL-DL configuration of the secondary TDD cell; determining based on the UL-DL configuration of the secondary TDD cell, the DL sub-frame of the PDSCH transmission, and the adapted downlink association set index, a UL subframe for the transmission over the primary TDD cell of a hybrid automatic repeat request, HARQ, response for the PDSCH transmission, wherein the adapted downlink association set index maps all DL subframes to a single common uplink subframe carrying the response to the PDSCH transmission or assigns to each group of one or more groups of UL-DL configurations, a set of one or more common uplink subframes, wherein the adapted downlink association set index maps, within each group of UL-DL configurations, all DL subframes to an uplink subframe of the set of one or more common uplink subframes. identifying an uplink-downlink, UL-DL, configuration of a primary time division duplex, TDD, cell of a UE ; identifying a UL-DL configuration of a secondary TDD cell of the UE, wherein the UL-DL configuration of the primary TDD cell differs from the UL-DL configuration of the secondary TDD cell and wherein the primary TDD cell is to use a component carrier of a first band and the secondary TDD cell is to use a component carrier of a second band that differs from the first band; identifying a subframe of a physical downlink shared channel, PDSCH, transmission of the secondary TDD cell, the PDSCH transmission to comprise data intended for the UE; determining an adapted downlink association set index based on the UL-DL configuration of the secondary TDD cell; determining based on the UL-DL configuration of the secondary TDD cell, the DL sub-frame of the PDSCH transmission, and the adapted downlink association set index, a UL subframe for the transmission over the primary TDD cell of a hybrid automatic repeat request, HARQ, response for the PDSCH transmission, wherein the adapted downlink association set index maps all DL subframes to a single common uplink subframe carrying the response to the PDSCH transmission or assigns to each group of one or more groups of UL-DL configurations, a set of one or more common uplink subframes, wherein the adapted downlink association set index maps, within each group of UL-DL configurations, all DL subframes to an uplink subframe of the set of one or more common uplink subframes.
Shaft end piece for a coupling for connecting an encoder to an electrical machine , wherein the coupling comprises - an encoder shaft end piece which can be coupled to an encoder shaft and - a machine shaft end piece which can be coupled to a machine shaft , wherein at least one torque transmission element is mounted between the encoder shaft end piece and the machine shaft end piece , wherein the shaft end piece has at least one carrier, wherein the carrier and the shaft end piece are formed as an integral element, characterised in that the carrier has at least one fully enclosed cavity filled with granular material. - an encoder shaft end piece which can be coupled to an encoder shaft and - a machine shaft end piece which can be coupled to a machine shaft , wherein at least one torque transmission element is mounted between the encoder shaft end piece and the machine shaft end piece , wherein the shaft end piece has at least one carrier, wherein the carrier and the shaft end piece are formed as an integral element, characterised in that the carrier has at least one fully enclosed cavity filled with granular material. wherein at least one torque transmission element is mounted between the encoder shaft end piece and the machine shaft end piece , wherein the shaft end piece has at least one carrier, wherein the carrier and the shaft end piece are formed as an integral element, characterised in that the carrier has at least one fully enclosed cavity filled with granular material.
An system for capturing images from one or more ID codes directly marked onto an object comprising: a module having, (a) an image sensor assembly that transmits data relative to the images to a vision system processor, (b) a diffuse illumination assembly , (c) a low-angle illumination assembly , and (d) a polarized illumination assembly ; and a polarizing filter mounted between the object and the image sensor assembly in which a polarization direction of the filter is approximately perpendicular to a polarization direction of the illumination; characterised in that the low angle illumination assembly and the polarizing illumination assembly are mounted adjacent to a front end of a forward extension that extends forwardly beyond light sources of the diffuse illumination assembly. a module having, (a) an image sensor assembly that transmits data relative to the images to a vision system processor, (b) a diffuse illumination assembly , (c) a low-angle illumination assembly , and (d) a polarized illumination assembly ; and (a) an image sensor assembly that transmits data relative to the images to a vision system processor, (b) a diffuse illumination assembly , (c) a low-angle illumination assembly , and (d) a polarized illumination assembly ; and a polarizing filter mounted between the object and the image sensor assembly in which a polarization direction of the filter is approximately perpendicular to a polarization direction of the illumination; characterised in that the low angle illumination assembly and the polarizing illumination assembly are mounted adjacent to a front end of a forward extension that extends forwardly beyond light sources of the diffuse illumination assembly.
A solid state switch comprising: an output circuit comprising a first plurality of semiconductor switching devices , wherein the plurality of switching devices selectively provide power to a load from a voltage source when enabled; and an input circuit comprising a second plurality of semiconductor switching devices, wherein each of the second plurality of semiconductor switching devices is electrically coupled to a gate of a corresponding one of the first plurality of semiconductor switching devices ; and wherein the second plurality of semiconductor switching devices are part of a plurality of optocoupler devices with zero crossing detection functionality; wherein the second plurality of semiconductor switching devices are configured to turn on the output circuit upon the zero crossing of a control signal applied to the second plurality of semiconductor switching devices; and characterized by an emission driver circuit coupled to the second plurality of semiconductor switching devices via a third optocoupler , wherein the third optocoupler is configured to in response to a second zero crossing of the control signal, send a signal to a silicon controlled rectifier to turn on the emission driver circuit and turn off the second plurality of semiconductor switching devices. an output circuit comprising a first plurality of semiconductor switching devices , wherein the plurality of switching devices selectively provide power to a load from a voltage source when enabled; and an input circuit comprising a second plurality of semiconductor switching devices, wherein each of the second plurality of semiconductor switching devices is electrically coupled to a gate of a corresponding one of the first plurality of semiconductor switching devices ; and wherein the second plurality of semiconductor switching devices are part of a plurality of optocoupler devices with zero crossing detection functionality; wherein the second plurality of semiconductor switching devices are configured to turn on the output circuit upon the zero crossing of a control signal applied to the second plurality of semiconductor switching devices; and characterized by an emission driver circuit coupled to the second plurality of semiconductor switching devices via a third optocoupler , wherein the third optocoupler is configured to in response to a second zero crossing of the control signal, send a signal to a silicon controlled rectifier to turn on the emission driver circuit and turn off the second plurality of semiconductor switching devices.
Oil-based food comprising: L2M and LM2 in fats and oils, wherein a mass ratio (L2M/LM2) of a content of the L2M to a content of the LM2 is 0.3 to 4.5, and L, M, the L2M, and the LM2 mean as follows: L: saturated fatty acid with 16 to 24 carbons; M: fatty acid with 6 to 10 carbons; L2M: triacylglycerol having two L molecules and a single M molecule bound to a single glycerol molecule; and LM2: triacylglycerol having a single L molecule and two M molecules bound to a single glycerol molecule. L2M and LM2 in fats and oils, wherein a mass ratio (L2M/LM2) of a content of the L2M to a content of the LM2 is 0.3 to 4.5, and L, M, the L2M, and the LM2 mean as follows: L: saturated fatty acid with 16 to 24 carbons; M: fatty acid with 6 to 10 carbons; L2M: triacylglycerol having two L molecules and a single M molecule bound to a single glycerol molecule; and LM2: triacylglycerol having a single L molecule and two M molecules bound to a single glycerol molecule. L: saturated fatty acid with 16 to 24 carbons; M: fatty acid with 6 to 10 carbons; L2M: triacylglycerol having two L molecules and a single M molecule bound to a single glycerol molecule; and LM2: triacylglycerol having a single L molecule and two M molecules bound to a single glycerol molecule.
A method for avoiding incorrect interventions by a driver assistance system of a motor vehicle, wherein the driver assistance system regulates a setpoint distance of the vehicle in accordance with a measurement variable of a sensor device for sensing the surroundings of the motor vehicle, can initiate an emergency braking operation and/or can generate a warning indication; characterized in that a) the vehicle has a front attachment which can be mounted on the front of the vehicle, preferably an implement which can be mounted on the front or a fastening device for fastening implements on the front, wherein the method comprises: b) making available a blocking element which can be arranged at a predetermined mounting position between the sensor device and the front attachment in the sensing range of the sensor device, and in the state in which it is arranged therein causes the sensor device to output at least one predetermined signal, c) making available a control device for the driver assistance system , which control device is designed to place the driver assistance system in a predetermined operating mode in which the driver assistance system is switched off or deactivated when the sensor device outputs the at least one predetermined signal; d) arranging the blocking element at the predetermined mounting position when the front attachment is mounted at the front of the vehicle; and e) removing the blocking element when the front attachment is removed from the front of the vehicle. a) the vehicle has a front attachment which can be mounted on the front of the vehicle, preferably an implement which can be mounted on the front or a fastening device for fastening implements on the front, b) making available a blocking element which can be arranged at a predetermined mounting position between the sensor device and the front attachment in the sensing range of the sensor device, and in the state in which it is arranged therein causes the sensor device to output at least one predetermined signal, c) making available a control device for the driver assistance system , which control device is designed to place the driver assistance system in a predetermined operating mode in which the driver assistance system is switched off or deactivated when the sensor device outputs the at least one predetermined signal; d) arranging the blocking element at the predetermined mounting position when the front attachment is mounted at the front of the vehicle; and e) removing the blocking element when the front attachment is removed from the front of the vehicle.