mhurhangee/ep-ind-claims huggingface dataset:
A method of operating a wind turbine having a rotor, the method comprising: receiving sensor data from one or more sensors of the wind turbine; obtaining maximum load values on the basis of the sensor data, wherein the maximum load values are indicative of maximum loads acting on a component of the wind turbine; obtaining an estimated extreme load value on the basis of the maximum load values, wherein the estimated extreme load value is a return load value indicative of a load with an estimated return period of a given duration; accessing a database of a set of simulations that have been run based on a model of the wind turbine and on a historical set of climate data associated with a site of the wind turbine to obtain respective reference values, wherein each simulation is based on a respective maximum thrust limit, and wherein each reference value is a reference return load value; comparing the estimated extreme load value with the reference value which was obtained by the simulation based on the respective maximum thrust limit corresponding to a current maximum thrust limit of the wind turbine; setting a new maximum thrust limit on the basis of the comparison; and operating the wind turbine in accordance with the new maximum thrust limit so that a wind thrust force acting on the rotor does not exceed the new maximum thrust limit. receiving sensor data from one or more sensors of the wind turbine; obtaining maximum load values on the basis of the sensor data, wherein the maximum load values are indicative of maximum loads acting on a component of the wind turbine; obtaining an estimated extreme load value on the basis of the maximum load values, wherein the estimated extreme load value is a return load value indicative of a load with an estimated return period of a given duration; accessing a database of a set of simulations that have been run based on a model of the wind turbine and on a historical set of climate data associated with a site of the wind turbine to obtain respective reference values, wherein each simulation is based on a respective maximum thrust limit, and wherein each reference value is a reference return load value; comparing the estimated extreme load value with the reference value which was obtained by the simulation based on the respective maximum thrust limit corresponding to a current maximum thrust limit of the wind turbine; setting a new maximum thrust limit on the basis of the comparison; and operating the wind turbine in accordance with the new maximum thrust limit so that a wind thrust force acting on the rotor does not exceed the new maximum thrust limit.
A method for displaying images on a global dimming display in a second bit depth greater than a first bit depth in which the images have been encoded, the method comprising: decoding image data that have been encoded in the first bit depth; obtaining metadata, wherein the metadata include metadata characterizing a mapping of the image data represented in a high dynamic range bit depth to image data represented in the first bit depth, wherein the high dynamic range bit depth is greater than or equal to the second bit depth; identifying, based on the metadata, a tone mapping of the image data represented in the first bit depth and a backlight adjustment of the global dimming display which, in combination, recreate or approximate a mapping reverse to the mapping to achieve a determined luminance characteristics of the image; applying the identified tone mapping to map the image data represented in the first bit depth to image data represented in the second bit depth; adjusting the luminance of a backlight of the global dimming display based on the identified backlight adjustment; and displaying the tone mapped image data represented in the second bit depth on the global dimming display. decoding image data that have been encoded in the first bit depth; obtaining metadata, wherein the metadata include metadata characterizing a mapping of the image data represented in a high dynamic range bit depth to image data represented in the first bit depth, wherein the high dynamic range bit depth is greater than or equal to the second bit depth; identifying, based on the metadata, a tone mapping of the image data represented in the first bit depth and a backlight adjustment of the global dimming display which, in combination, recreate or approximate a mapping reverse to the mapping to achieve a determined luminance characteristics of the image; applying the identified tone mapping to map the image data represented in the first bit depth to image data represented in the second bit depth; adjusting the luminance of a backlight of the global dimming display based on the identified backlight adjustment; and displaying the tone mapped image data represented in the second bit depth on the global dimming display.
Lighting apparatus (10, 50) comprising a fixing bracket (20, 60) rotatably coupled to a support structure (30, 70) for a plurality of adjacent lighting panels (40, 80) mounted in said support structure (30, 70), wherein said support structure comprises a frame within which said lighting panels are rotatably mounted and comprises means of rotation around an axis (x-x) passing through at least one coupling point of said support structure (30, 70) with said fixing bracket (20, 60), said lighting panels (40, 80) being provided with means of rotation around their longitudinal axis (y-y) and around an axis (z-z) perpendicular to said longitudinal axis (y-y) and placed in the proximity of a terminal portion thereof, whereby a lit surface can be varied by varying the inclination of the elements of the apparatus; said means of rotation around said longitudinal axis (y-y) of said lighting panels comprise heads (500, 500') coupled to the terminal portions (41, 42) of said lighting panels and pins coupled to two opposed portions of said frame.
Method for displaying objects (21; 54.1-54.4; 56.1, 56.2) and object data (55; 57.1, 57.2) of a construction plan on a boundary surface of a room, in which; ▪ in a first step a construction plan of the room is selected and loaded into a control device, ▪ in a second step a current display field of a projection device on the boundary surface is determined, ▪ in a third step the current display field of the projection device on the boundary surface is compared with the construction plan and the objects (21; 54.1-54.4; 56.1, 56.2) and object data (55; 57.1,57.2) of the construction plan lying in the current display field are determined, ▪ in a fourth step suitable projection parameters for the objects (21; 54.1-54.4; 56.1, 56.2) and object data (55; 57.1,57.2) lying in the current display field are determined and transmitted to the projection device and ▪ in a fifth step the objects (21; 54.1- 54.4; 56.1, 56.2) and object data (55; 57.1,57.2) lying in the current display field are projected onto the boundary surface by the projection device. ▪ in a first step a construction plan of the room is selected and loaded into a control device, ▪ in a second step a current display field of a projection device on the boundary surface is determined, ▪ in a third step the current display field of the projection device on the boundary surface is compared with the construction plan and the objects (21; 54.1-54.4; 56.1, 56.2) and object data (55; 57.1,57.2) of the construction plan lying in the current display field are determined, ▪ in a fourth step suitable projection parameters for the objects (21; 54.1-54.4; 56.1, 56.2) and object data (55; 57.1,57.2) lying in the current display field are determined and transmitted to the projection device and ▪ in a fifth step the objects (21; 54.1- 54.4; 56.1, 56.2) and object data (55; 57.1,57.2) lying in the current display field are projected onto the boundary surface by the projection device.
Use of a compound of formula wherein - R 1, R 2, R 3 and R 4 are independently selected from the group consisting of a hydrogen, a halogen, preferably -Cl, -Br or -F, -OH, -O CH 3, a C 1 -C 6 alkoxy, a C 1 -C 6 alkyl, - NH 2 and -CN, - X and Y are independently of each other O, S or NR 5, - M is Bi, - L is H or a vectorization moiety comprising from 1 to 40 carbon atoms, and - each R 5 group is independently H or a C 1 -C 6 alkyl, or a salt thereof, as a phytopharmaceutical agent for treating or preventing a fungal disease developing in the wood of a plant, said fungal disease being associated with or caused by one or more phytopathogenic fungi selected from the parasitic basidiomycetes and the parasitic ascomycetes. - R 1, R 2, R 3 and R 4 are independently selected from the group consisting of a hydrogen, a halogen, preferably -Cl, -Br or -F, -OH, -O CH 3, a C 1 -C 6 alkoxy, a C 1 -C 6 alkyl, - NH 2 and -CN, - X and Y are independently of each other O, S or NR 5, - M is Bi, - L is H or a vectorization moiety comprising from 1 to 40 carbon atoms, and - each R 5 group is independently H or a C 1 -C 6 alkyl,
A method for ascertaining a valve position of a valve (11a,b 12a,b) of an internal combustion engine having a plurality of valves (11a,b 12a,b) by means of light which is to be detected, characterised in that the method comprises the following steps: - illuminating a combustion chamber of the internal combustion engine, - detecting a light emerging from the illuminated combustion chamber on a side of the valve (11a,b 12a,b) to be ascertained which is remote from the combustion chamber, - determining the valve position of the valve (11a,b 12a,b) to be ascertained by means of the detected light. - illuminating a combustion chamber of the internal combustion engine, - detecting a light emerging from the illuminated combustion chamber on a side of the valve (11a,b 12a,b) to be ascertained which is remote from the combustion chamber, - determining the valve position of the valve (11a,b 12a,b) to be ascertained by means of the detected light.
A method of manufacturing a radius filler, the method comprising: forming the radius filler having a cross-sectional shape, wherein the radius filler has a composite material and a number of heating elements located within the composite material; positioning the radius filler in a channel formed by a plurality of composite structures; inductively heating the radius filler by inducing a current within the number of heating elements; and curing the radius filler using heat generated from the current induced within the number of heating elements, wherein the radius filler is cured prior to curing the plurality of composite structures. forming the radius filler having a cross-sectional shape, wherein the radius filler has a composite material and a number of heating elements located within the composite material; positioning the radius filler in a channel formed by a plurality of composite structures; inductively heating the radius filler by inducing a current within the number of heating elements; and curing the radius filler using heat generated from the current induced within the number of heating elements, wherein the radius filler is cured prior to curing the plurality of composite structures.
A computer-implemented method comprising: accessing the encrypted data for verifying the multi-spiral structure on a portion of an optical disc according to claim 8; decrypting the encrypted data to obtain verification parameters; determining whether characteristics of the multi-spiral structure correspond to the verification parameters; and authenticating the optical disc in response to verifying the characteristics of the multi-spiral structure, the characteristics of the multi-spiral structure being verified based on the characteristics of the multi-spiral structure corresponding to the verification parameters. accessing the encrypted data for verifying the multi-spiral structure on a portion of an optical disc according to claim 8; decrypting the encrypted data to obtain verification parameters; determining whether characteristics of the multi-spiral structure correspond to the verification parameters; and authenticating the optical disc in response to verifying the characteristics of the multi-spiral structure, the characteristics of the multi-spiral structure being verified based on the characteristics of the multi-spiral structure corresponding to the verification parameters.
A slurry composition for positive electrode for a lithium secondary battery, comprising: a positive electrode active material; an electrically conductive material; a binder; a thickening agent; an additive; and a solvent, wherein the thickening agent comprises lithiated carboxymethyl cellulose (LiCMC), and wherein the additive comprises LiCMC to which an aminobenzoic acid group is bonded (LiCMC-ABA). a positive electrode active material; an electrically conductive material; a binder; a thickening agent; an additive; and a solvent, wherein the thickening agent comprises lithiated carboxymethyl cellulose (LiCMC), and wherein the additive comprises LiCMC to which an aminobenzoic acid group is bonded (LiCMC-ABA).
A watering device comprising: a watering controller having a controller inlet and a controller outlet, wherein the watering controller is adapted to be actuated by a user action, wherein the watering controller includes a first portion to activate the watering controller, and a second portion to deactivate the watering controller and acting on the first portion, wherein the first portion is a foot pedal; and a housing having a housing inlet and one or more housing outlets, wherein the housing inlet and the one or more housing outlets are fluidly coupled to define a water channel; wherein the second portion is a foot pedal, the controller outlet defines an opening, wherein the opening allows flow of water from the controller inlet to exit through the controller outlet; and the water channel defines a nose portion, wherein the nose portion selectively engages with the opening on assembly of the housing inlet of the housing with the controller outlet of the watering controller, wherein a first user action with the watering controller at least partially disengages the opening of the watering controller from the nose portion of the housing such that to allow the water to flow from the watering controller to the one or more housing outlets. a watering controller having a controller inlet and a controller outlet, wherein the watering controller is adapted to be actuated by a user action, wherein the watering controller includes a first portion to activate the watering controller, and a second portion to deactivate the watering controller and acting on the first portion, wherein the first portion is a foot pedal; and a housing having a housing inlet and one or more housing outlets, wherein the housing inlet and the one or more housing outlets are fluidly coupled to define a water channel; wherein the second portion is a foot pedal, the controller outlet defines an opening, wherein the opening allows flow of water from the controller inlet to exit through the controller outlet; and the water channel defines a nose portion, wherein the nose portion selectively engages with the opening on assembly of the housing inlet of the housing with the controller outlet of the watering controller, wherein a first user action with the watering controller at least partially disengages the opening of the watering controller from the nose portion of the housing such that to allow the water to flow from the watering controller to the one or more housing outlets.
An anti-sclerostin antibody for use in a method for treating osteoporosis or osteopenia, which method comprises: (a) administering at least two doses of anti-sclerostin antibody to a subject in need of such treatment, wherein the interval between doses is a month or four weeks, and monitoring the subject to identify whether the subject shows a reduced response to a dose of the anti-sclerostin antibody in comparison to the response seen with the first dose of the antibody given to the subject, the response to the antibody is defined by serum P1NP level and the level of the marker is measured before administration of the dose then four, five, six, seven, eight, ten, eleven or twelve days after administration of the dose; (b) if such a reduced response is identified, allowing the subject a dosing holiday which is from 6 to 18 months in length and administering to the subject at least one further dose of anti-sclerostin antibody. (a) administering at least two doses of anti-sclerostin antibody to a subject in need of such treatment, wherein the interval between doses is a month or four weeks, and monitoring the subject to identify whether the subject shows a reduced response to a dose of the anti-sclerostin antibody in comparison to the response seen with the first dose of the antibody given to the subject, the response to the antibody is defined by serum P1NP level and the level of the marker is measured before administration of the dose then four, five, six, seven, eight, ten, eleven or twelve days after administration of the dose; (b) if such a reduced response is identified, allowing the subject a dosing holiday which is from 6 to 18 months in length and administering to the subject at least one further dose of anti-sclerostin antibody.
Device (1; 21) for driving a mobile object such as for instance a warehouse cart, which device (1; 21) comprises: - a frame; - at least one frame wheel (6, 7; 28) for displacing the device (1; 21) over and parallel to a ground surface, which at least one frame wheel (6, 7; 28) is mounted on the frame; - a drive unit (5; 30), which drive unit (5; 30) is mounted on the frame and comprises at least one drive wheel, and - a coupling device, which coupling device is mounted on the frame, for coupling and uncoupling the device (1; 21) respectively to and from the underside of a mobile object, wherein the at least one drive wheel is displaceable between a positioning position and a driving position, wherein the at least one drive wheel is clear of the ground surface in the positioning position and makes contact with the ground surface in the driving position, characterized in that the contact surface with the ground of the at least one frame wheel (6, 7; 28) lies in a first plane and the coupling device comprises at least one coupling element (8; 26) for coupling to the underside of a mobile object, wherein the distance between the at least one coupling element (8; 26) and the first plane is smaller when the device (1; 21) is coupled to the underside of a mobile object than when the device (1; 21) is uncoupled. - a frame; - at least one frame wheel (6, 7; 28) for displacing the device (1; 21) over and parallel to a ground surface, which at least one frame wheel (6, 7; 28) is mounted on the frame; - a drive unit (5; 30), which drive unit (5; 30) is mounted on the frame and comprises at least one drive wheel, and - a coupling device, which coupling device is mounted on the frame, for coupling and uncoupling the device (1; 21) respectively to and from the underside of a mobile object, wherein the at least one drive wheel is displaceable between a positioning position and a driving position, wherein the at least one drive wheel is clear of the ground surface in the positioning position and makes contact with the ground surface in the driving position,
A device for the continuous dosage of a frozen starter culture Into a liquid fermentation medium, said device comprises a fermentation unit and a container for the thawing of the starter culture which comprises means of retaining the frozen culture inside the thawing container while allowing the thawed liquid starter culture to pass into a circuit for the continuous feeding of the fermentation medium into the fermentation unit, said circuit is provided with means of regulating the flow-rate of the culture in liquid form and the flow-rate of the fermentation medium.
Sensor arrangement on a vehicle, with a connection arrangement which connects a holding device to at least one vehicle component so as to be movable between an operating position and at least one protection position, wherein the holding device receives a sensor, wherein one of a collision force, caused by a collision counterpart, comprises a first force component which acts in a first spatial direction and moves the holding device proportionately in the direction of the corresponding first spatial direction into the at least one protection position, wherein the first spatial direction corresponds to a vehicle longitudinal direction (x), wherein the connection arrangement has at least one lever arrangement (30, 40) which additionally translates at least one force component of the collision force, acting in an additional spatial direction (R2, R3, y, z), into a proportionate movement of the holding device in the corresponding spatial direction (R2, R3, y, z), wherein the at least one lever arrangement (30, 40) transfers the holding device into the at least one protection position in a direction of action resulting from the collision force, characterised in that a restoring force from at least one restoring arrangement transfers the holding device from the at least one protection position into the operating position, wherein the lever arrangements (30, 40) each have at least one pivot arm (32, 42) and at least one holding arm (34, 44), wherein the at least one pivot arm (32, 42) is coupled by a first end region (32.1, 42.1) to the corresponding end region (13, 14) of the holding device and by a second end region (32.2, 42.2) to the corresponding restoring arrangement, wherein the at least one holding arm (34, 44) is pivotably connected by a first end region (34.1, 44.1) to the at least one vehicle component and is pivotably connected by a second end region (34.2, 44.2) to a holding region (32.3, 42.3) of the corresponding pivot arm (32, 42), wherein the holding region (32.3, 42.3) is arranged between the first end region (32.1, 42.1) of the pivot arm (32, 42) and the second end region (32.2, 42.2) of the pivot arm (32, 42).
A saddle riding type vehicle comprising an exhaust device structure and an internal combustion engine mounted between a front wheel and a rear wheel; the exhaust device structure comprising an exhaust device (70, 100) that muffles exhaust gas noise from the internal combustion engine; the exhaust device (70, 100) including an exhaust pipe (71, 101) having an upstream end connected to an exhaust port (52L, 52R, 53L, 53R) of the internal combustion engine and an expansion chamber (72, 102) connected to a downstream end of the exhaust pipe (71, 101), the expansion chamber (72, 102) being disposed on a lower side of the vehicle, characterized in that the expansion chamber (72, 102) includes a plurality of expansion chambers (72, 102) being a first muffler with a rear muffling portion and a second muffler with a tail pipe portion separated from each other in a forward-rearward direction of the vehicle, the plurality of expansion chambers (72, 102) are arranged so as to be separated from each other in a left-right direction with respect to a vehicle center, exhaust ports of the rear muffling portion being configured to release exhaust from the rear muffling portion into outside air and being oriented rearwardly upward in the forward-rearward and an up-and-down direction of the vehicle, and exhaust ports of the tail pipe portion being configured to release exhaust from the tail pipe portion into outside air and being oriented rearward in the forward-rearward direction of the vehicle.
Processing machine for processing a flat substrate, the machine comprising at least one processing cylinder embodied as a sleeve cylinder, the at least one processing cylinder having a respective bearing device on the drive side and on the operator side, the operator-side bearing device including a rotary bearing and a bearing cup for receiving the rotary bearing, the bearing cup disposed on a horizontally movable side face, and at least one horizontal guide rail being provided for horizontally moving the side face, characterized in that the bearing cup is lowerable and liftable relative to the side face and the side face is horizontally movable in such a way that the at least one processing cylinder is releasable for an exchange of a printing sleeve by lowering (a) the bearing cup and moving (v) the side face.