mhurhangee/patent-ind-claim-en huggingface dataset:
Rotor blade arrangement for a turbomachine, having a blade carrier on the outer circumferential surface of which is formed a circumferential T-shaped slot , and having a blade ring which comprises a plurality of blades and spacers that are inserted in alternation into the T-shaped slot along the circumference of the T-shaped slot, and having support elements that are braced between the blades and spacers on the one hand and a bottom of the T-shaped slot on the other hand in such a manner that the blades and spacers are pressed radially outwards, wherein a separate support element is assigned to each spacer and is releasably fixed thereon in a clamping manner, characterized in that the support elements are designed as elastic spring plates and arranged in such a manner that the associated spacers in the T-shaped slot are preloaded radially outwards; wherein on each of the support elements there are formed two projections that are spaced apart in the circumferential direction of the T-shaped slot and project radially outwards, which projections come into engagement with the respective associated spacer in order to fasten the support elements on the associated spacers , wherein cut-outs corresponding to the projections are formed in the spacers , into which cut-outs the projections of the support elements engage in a clamping manner, and the two projections are in each case arranged on the support elements in such a manner that the associated spacers are jammed between the projections . the support elements are designed as elastic spring plates and arranged in such a manner that the associated spacers in the T-shaped slot are preloaded radially outwards; wherein on each of the support elements there are formed two projections that are spaced apart in the circumferential direction of the T-shaped slot and project radially outwards, which projections come into engagement with the respective associated spacer in order to fasten the support elements on the associated spacers , wherein cut-outs corresponding to the projections are formed in the spacers , into which cut-outs the projections of the support elements engage in a clamping manner, and the two projections are in each case arranged on the support elements in such a manner that the associated spacers are jammed between the projections .
Method for correcting the radiation of meteorological temperature measurements using at least one measuring system for temperature measurement and at least one movably mounted radiation protection screen comprising the following steps: a. measuring the temperature in the case of maximum influence of the radiation on the measuring system for temperature measurement over a predefined period of time, b. changing the influence of the radiation on the measuring system for temperature measurement by shading, taking into account the inertia of the measuring system for temperature measurement, c. measuring the temperature in the case of minimized influence of the radiation on the measuring system for temperature measurement over a predefined period of time d. correlating the temperature change and the degree of shading, and e. extrapolating the measured temperature to a radiation-free level. a. measuring the temperature in the case of maximum influence of the radiation on the measuring system for temperature measurement over a predefined period of time, b. changing the influence of the radiation on the measuring system for temperature measurement by shading, taking into account the inertia of the measuring system for temperature measurement, c. measuring the temperature in the case of minimized influence of the radiation on the measuring system for temperature measurement over a predefined period of time d. correlating the temperature change and the degree of shading, and e. extrapolating the measured temperature to a radiation-free level.
A blade sharpening fixture system for fixating a blade to be sharpened, the blade sharpening fixture system comprising a jig for fixation of the blade , the jig comprising a table onto which a blade is to be fixedly arranged, fixating equipment for fixating the blade to said table , a grinding arrangement for grinding of the blade , and a height adjustment arrangement which is coupled to the grinding arrangement via an arm , the arm being arranged in a receiving portion of the height adjustment arrangement which is arranged to freely support the arm , wherein the receiving portion is arranged to allow the grinding arrangement to be movable in a grinding motion relative to the blade , wherein the grinding arrangement comprises a grinding block which is arranged to grind the blade edge , wherein the blade sharpening fixture system is characterised in that the grinding block is arranged between an inner block holder and an outer block holder , the inner block holder comprises a first connector and a second connector , the grinding block is arranged to the arm via one of the first connector and second connector , wherein the first connector is arranged at an angle (α) relative to the normal (N) of the inner block holder so that the first connector provides an angle between the grinding block and the arm , such that when moving the grinding block relative to the blade, the blade edge assumes a convex edge. a table onto which a blade is to be fixedly arranged, fixating equipment for fixating the blade to said table , a grinding arrangement for grinding of the blade , and
A pre-preg sheet comprising a fibre reinforcement and either a thermoset or thermoplastic matrix material, wherein the fibre reinforcement comprises unidirectional spread fibres and the pre-preg sheet has a thickness of less than 100 micrometers, wherein the matrix material is provided in the form of either continuous or discontinuous lines, extending at least partly in a direction different from the direction of the fibres, or in the form of disconnected dots or speckles, the pre-preg displaying resin impregnated fibres in some parts and dry fibres, with countless fine micropores/openings/interstices between them, in other parts.
A resource indication method, comprising: generating , by a network device, downlink control signaling, wherein the downlink control signaling comprises indication information and resource allocation information, the resource allocation information is used for explicit indication or implicit indication of an uplink control channel resource, and the indication information is used to indicate whether an indication manner of the resource allocation information is explicit indication or implicit indication; and sending , by the network device, the downlink control signaling to a terminal, wherein an explicitly indicated UL control channel resource is an UL control channel resource directly indicated through signaling, wherein an implicitly indicated UL control channel resource is an UL control channel resource indicated through a correlation established between resource information and the terminal device, wherein the indication information is carried by a scrambling code used to scramble the downlink control signaling, and wherein the resource allocation information is carried by a second information bit or a third information bit in the downlink control signaling. generating , by a network device, downlink control signaling, wherein the downlink control signaling comprises indication information and resource allocation information, the resource allocation information is used for explicit indication or implicit indication of an uplink control channel resource, and the indication information is used to indicate whether an indication manner of the resource allocation information is explicit indication or implicit indication; and sending , by the network device, the downlink control signaling to a terminal, wherein an explicitly indicated UL control channel resource is an UL control channel resource directly indicated through signaling, wherein an implicitly indicated UL control channel resource is an UL control channel resource indicated through a correlation established between resource information and the terminal device, wherein the indication information is carried by a scrambling code used to scramble the downlink control signaling, and wherein the resource allocation information is carried by a second information bit or a third information bit in the downlink control signaling.
Method for forming a solar module consisting of the steps of: a) providing at least one solar cell ; b) providing a first sheet of encapsulant ; c) adhering at least partly the at least one solar cell to the first sheet of encapsulant forming an adhering portion between the at least one solar cell and the first sheet of encapsulant ; and d) cropping that at least one solar cell that is adhered to the first sheet of encapsulant in the adhering portion along a cropping line with cutting means , wherein step c) being carried out prior to step d). a) providing at least one solar cell ; b) providing a first sheet of encapsulant ; c) adhering at least partly the at least one solar cell to the first sheet of encapsulant forming an adhering portion between the at least one solar cell and the first sheet of encapsulant ; and d) cropping that at least one solar cell that is adhered to the first sheet of encapsulant in the adhering portion along a cropping line with cutting means , wherein step c) being carried out prior to step d).
A Lighting device, in particular a lighting device for a vehicle, comprising - at least one light source from which light is emitted during operation of the lighting device, the at least one light source being designed as a light-emitting diode, - a first flexible foil through which the light emanating from the at least one light source passes at least partially, the first foil influencing the light passing through in such a way that directed light emerges from the first foil , - a second flexible foil into which the at least one light source is integrated or on which the at least one light source is arranged, wherein contact elements for making electrical contact with the at least one light source are arranged on the second foil , characterized in that the first foil comprises a hologram or is formed as a hologram. - at least one light source from which light is emitted during operation of the lighting device, the at least one light source being designed as a light-emitting diode, - a first flexible foil through which the light emanating from the at least one light source passes at least partially, the first foil influencing the light passing through in such a way that directed light emerges from the first foil , - a second flexible foil into which the at least one light source is integrated or on which the at least one light source is arranged, wherein contact elements for making electrical contact with the at least one light source are arranged on the second foil ,
An inspection system , comprising: a probe including a plurality of ultrasonic sensors arranged in a first direction, each of the plurality of ultrasonic sensors being configured to transmit an ultrasonic wave along a second direction crossing the first direction; and a controller configured to: cause the probe to contact a spot weld portion of a welded member by moving in the second direction, cause each of the plurality of ultrasonic sensors to transmit the ultrasonic wave toward the spot weld portion and receive a reflected wave, detect a joint or a non-joint at each of a plurality of points along the first direction of the spot weld portion using a reception result that is based on the plurality of reflected waves, the reception result indicating distances between the probe and respective surfaces of the welded member, adjust an angle of the probe based on a number of the joints or the non-joints detected for the plurality of points, the third direction being perpendicular to the first direction and crossing the second direction, the angle being around a third direction and with respect to the second direction. a probe including a plurality of ultrasonic sensors arranged in a first direction, each of the plurality of ultrasonic sensors being configured to transmit an ultrasonic wave along a second direction crossing the first direction; and a controller configured to: cause the probe to contact a spot weld portion of a welded member by moving in the second direction, cause each of the plurality of ultrasonic sensors to transmit the ultrasonic wave toward the spot weld portion and receive a reflected wave, detect a joint or a non-joint at each of a plurality of points along the first direction of the spot weld portion using a reception result that is based on the plurality of reflected waves, the reception result indicating distances between the probe and respective surfaces of the welded member, adjust an angle of the probe based on a number of the joints or the non-joints detected for the plurality of points, the third direction being perpendicular to the first direction and crossing the second direction, the angle being around a third direction and with respect to the second direction. cause the probe to contact a spot weld portion of a welded member by moving in the second direction, cause each of the plurality of ultrasonic sensors to transmit the ultrasonic wave toward the spot weld portion and receive a reflected wave, detect a joint or a non-joint at each of a plurality of points along the first direction of the spot weld portion using a reception result that is based on the plurality of reflected waves, the reception result indicating distances between the probe and respective surfaces of the welded member, adjust an angle of the probe based on a number of the joints or the non-joints detected for the plurality of points, the third direction being perpendicular to the first direction and crossing the second direction, the angle being around a third direction and with respect to the second direction.
A laminating adhesive having a high melt flow rate, low viscosity, high strength, and good elastic properties, intended for textile applications, comprising: a blend of styrenic block copolymer and tackifying resin, said styrenic block copolymer being selectively hydrogenated styrene-diene-styrene or a selectively hydrogenated controlled distribution styrene -diene/styrene -styrene, where diene can be butadiene, isoprene, or mixtures thereof, said styrenic block copolymer possess a melt flow rate equal to or greater than 100 g/10 min., measured according to ASTM D-1238 at 230°C and 2.16 kg, wherein said styrenic block copolymer has a minimum linear true peak molecular weight (Mp) of 45,000 to 65,000; a polystyrene content of between 18 to 45%; a vinyl content of 65 to 80 %, and a coupling efficiency of 60 to 97%, and wherein said blend having a melt flow rate greater than 15 g/10 min. at 160°C and 2.16 kg.
A material handling vehicle comprising a load handling module , the material handling vehicle including a vehicle body, a mast , and at least one fork extending from a load backrest to a tip end, and the at least one fork being selectively movable relative to the vehicle body and configured to support a load, the load handling module comprising: a first camera secured to the load backrest and positioned proximate a top surface of the at least one fork , the first camera being configured to determine a position of an object in a first camera field of view; a second camera being configured to determine the position of an object in a second camera field of view; a fork tip sensor secured to the at least one fork proximate a tip end, the fork tip sensor being configured to detect a presence of an object within a fork sensor field of view extending in front of the tip end; and a controller in communication with the first camera , the second camera , and the fork tip sensor , the controller being configured to autonomously control movement of the at least one fork , preferably the first camera field of view is configured to cover at least a portion of a bottom of the load when the load is supported on the at least one fork , characterised in that the vehicle further comprises a tower extending upwardly from the load backrest , the second camera being secured to the tower so that it is positioned above the first camera. a first camera secured to the load backrest and positioned proximate a top surface of the at least one fork , the first camera being configured to determine a position of an object in a first camera field of view; a second camera being configured to determine the position of an object in a second camera field of view; a fork tip sensor secured to the at least one fork proximate a tip end, the fork tip sensor being configured to detect a presence of an object within a fork sensor field of view extending in front of the tip end; and a controller in communication with the first camera , the second camera , and the fork tip sensor , the controller being configured to autonomously control movement of the at least one fork , preferably the first camera field of view is configured to cover at least a portion of a bottom of the load when the load is supported on the at least one fork , characterised in that the vehicle further comprises a tower extending upwardly from the load backrest , the second camera being secured to the tower so that it is positioned above the first camera.
An electronic apparatus comprising: a memory configured to store a plurality of images comprising a first image and a second image, a first artificial intelligence model trained to reduce noise, and a second artificial intelligence model trained to increase sharpness; and a first processor configured to identify qualities of the plurality of images as being noise and sharpness; a second processor configured to process the plurality of images using the first and second artificial intelligence model corresponding to the identified qualities, wherein: based on a noise identified in the first image being greater than or equal to a threshold noise, the second processor uses the first artificial intelligence model to process the first image, and based on a sharpness identified in the second image being less than a threshold sharpness, use the second artificial intelligence model to process the second image; a third processor configured to obtain a graphic image comprising the processed plurality of images received from the second processor; and a fourth processor configured to process the graphic image so that the processed graphic image is displayed on a display of the electronic apparatus. a memory configured to store a plurality of images comprising a first image and a second image, a first artificial intelligence model trained to reduce noise, and a second artificial intelligence model trained to increase sharpness; and a first processor configured to identify qualities of the plurality of images as being noise and sharpness; a second processor configured to process the plurality of images using the first and second artificial intelligence model corresponding to the identified qualities, wherein: based on a noise identified in the first image being greater than or equal to a threshold noise, the second processor uses the first artificial intelligence model to process the first image, and based on a sharpness identified in the second image being less than a threshold sharpness, use the second artificial intelligence model to process the second image; based on a noise identified in the first image being greater than or equal to a threshold noise, the second processor uses the first artificial intelligence model to process the first image, and based on a sharpness identified in the second image being less than a threshold sharpness, use the second artificial intelligence model to process the second image; a third processor configured to obtain a graphic image comprising the processed plurality of images received from the second processor; and a fourth processor configured to process the graphic image so that the processed graphic image is displayed on a display of the electronic apparatus.
A method for managing a tamper-proof device comprising first and second software containers , said tamper-proof device being included in a host device comprising a baseband unit including an activator agent , characterized in that said first software container emulating a eUICC and being in a deactivated state, in that the second software container comprises a set of rules, in that the activator agent retrieves both a location data broadcasted by a telecom network without authenticating to the Telecom network and said set of rules from the second software container, in that the activator agent checks if activation of the first software container is authorized by one of said rules for the location data, and in that the activator agent requests activation of the first software container only in case of successful checking by executing a script. in that the second software container comprises a set of rules, in that the activator agent retrieves both a location data broadcasted by a telecom network without authenticating to the Telecom network and said set of rules from the second software container, in that the activator agent checks if activation of the first software container is authorized by one of said rules for the location data, and in that the activator agent requests activation of the first software container only in case of successful checking by executing a script.
An electrical power cable comprising: a core comprising a conductive material; and a resilient external layer surrounding the core, wherein the resilient external layer comprises: a compliant layer having a shear loss modulus of at least 0.3 MPa at 296 K; and a tough layer , disposed surrounding the compliant layer , wherein the tough layer has a fracture toughness of at least 1 MPa m 1⁄2 at 296 K, characterised in that the cable comprises a self-healing layer extruded around and surrounding the core . a core comprising a conductive material; and a resilient external layer surrounding the core, wherein the resilient external layer comprises: a compliant layer having a shear loss modulus of at least 0.3 MPa at 296 K; and a tough layer , disposed surrounding the compliant layer , wherein the tough layer has a fracture toughness of at least 1 MPa m 1⁄2 at 296 K, a compliant layer having a shear loss modulus of at least 0.3 MPa at 296 K; and a tough layer , disposed surrounding the compliant layer , wherein the tough layer has a fracture toughness of at least 1 MPa m 1⁄2 at 296 K, characterised in that the cable comprises a self-healing layer extruded around and surrounding the core .