mhurhangee/patent-ind-claim-en huggingface dataset:
A method for protecting an idling wind turbine power system from damage during loss of grid power, the wind turbine power system having a plurality of rotor blades , the method comprising: monitoring an incoming wind direction at the wind turbine power system ; when the incoming wind direction is changing at a predetermined attack angle, rotating at least one of the plurality of rotor blades of the wind turbine power system to a pitch angle that is offset from a feather position by a predetermined number of degrees to reduce and/or eliminate flutter phenomenon from occurring, wherein the predetermined number of degrees comprises less than about 10 degrees; utilizing backup energy stored in the wind turbine power system for powering one or more wind turbine components during the loss of grid power, wherein the wind turbine power system further comprises at least one energy storage device for storing the backup energy, and wherein the one or more wind turbine components comprises one or more yaw drive mechanisms; and yawing the nacelle of the wind turbine approximately 180 degrees away from the incoming wind direction when the incoming wind direction is changing at the predetermined attack angle. monitoring an incoming wind direction at the wind turbine power system ; when the incoming wind direction is changing at a predetermined attack angle, rotating at least one of the plurality of rotor blades of the wind turbine power system to a pitch angle that is offset from a feather position by a predetermined number of degrees to reduce and/or eliminate flutter phenomenon from occurring, wherein the predetermined number of degrees comprises less than about 10 degrees; utilizing backup energy stored in the wind turbine power system for powering one or more wind turbine components during the loss of grid power, wherein the wind turbine power system further comprises at least one energy storage device for storing the backup energy, and wherein the one or more wind turbine components comprises one or more yaw drive mechanisms; and yawing the nacelle of the wind turbine approximately 180 degrees away from the incoming wind direction when the incoming wind direction is changing at the predetermined attack angle.
A method for examining an eye in the region of a front eye section of an eye , using an ophthalmological analysis system , comprising a first analysis system for obtaining first sectional images of the eye, wherein the first analysis system is formed from a projection device and from a monitoring device , which are arranged relative to each other according to the Scheimpflug rule, and comprising a second analysis system for obtaining second sectional images of the eye, wherein the second analysis system is formed from an optical coherence interferometer, wherein the ophthalmological analysis system comprises a processing device, wherein, from at least one coinciding recording plane of the eye, a first image data set is obtained using the first analysis system and a second image data set is obtained using the second analysis system, wherein the processing device processes the first and the second image data set, wherein, by means of the processing device, the first image data set is supplemented, at least partially, with data of the second image data set, wherein the second analysis system comprises a beam guidance device , wherein the beam guidance device has a movable tilting mirror which is arranged in a measurement axis of the analysis system , and by means of which a measurement beam of the optical coherence interferometer is projected onto the cornea , wherein the measurement beam is diverted within the recording plane such that the eye is scanned by the measurement beam along the recording plane, characterised in that the beam guidance device has a concave mirror , by means of which the measurement beam is deflected onto a cornea , wherein the concave mirror is constructed such that an optical path length of the measurement beam up to the cornea remains unchanged when scanning different points of the cornea.
An icon arrangement method, comprising: receiving a first input performed by a user in a case that a first icon is displayed , wherein the first icon comprises M sub-icons displayed in a same row or a same column, wherein M is an integer greater than 1; and displaying first index information of the first icon in response to the first input and displaying the M sub-icons on a row corresponding to a first row identifier or on a column corresponding to a first column identifier, wherein the first index information comprises the first row identifier or the first column identifier. receiving a first input performed by a user in a case that a first icon is displayed , wherein the first icon comprises M sub-icons displayed in a same row or a same column, wherein M is an integer greater than 1; and displaying first index information of the first icon in response to the first input and displaying the M sub-icons on a row corresponding to a first row identifier or on a column corresponding to a first column identifier, wherein the first index information comprises the first row identifier or the first column identifier.
Rolling bearing assembly having an outer race and an inner race which is at least partially mounted within the outer race, wherein the outer race and the inner race are rotatable relative to one another about a rotation axis, wherein a plurality of rolling elements are disposed between the outer race and the inner race , wherein the rolling bearing assembly has a connection construction which is fixedly connected either to the inner race or the outer race, wherein the connection construction has a plurality of connection components, and the connection construction has at least one integrated flange , wherein the connection construction conjointly with the associated bearing race is made from one piece, and the connection construction is made by subtractive machining from a solid material, or is made by a casting method and is at least in part made by subtractive machining, characterized in that the integrated flange is provided for connecting to a drive motor and is disposed on the associated bearing race in relation to a toothing that is provided on the other bearing race for positioning the drive motor such that a motor sprocket meshes with the toothing .
An antibody against CCR8 having ADCC activity, for use in a method of treating a cancer, wherein the antibody against CCR8 is optionally a CCR8-neutralizing antibody.
An optical lens device having an actively controllable focal length, comprising: - an element with lensing effect comprising a plurality of regions , each region having a corresponding refractive power for providing a corresponding focal length distinct from the focal length of at least one other region of said plurality of regions, - at least one addressable optical element integrated in or provided on the element with lensing effect , the at least one addressable optical element being adapted for changing the transmittance of at least one of said plurality of regions in response to a control signal, the at least one addressable optical element being non-concentric, and - a control means for generating said control signal, wherein said at least one addressable optical element comprises an addressable optical element configured as one or more sectors of the element with lensing effect , the one or more sectors being pie-shaped sectors with their pie-point at the centre of the element with lensing effect. - an element with lensing effect comprising a plurality of regions , each region having a corresponding refractive power for providing a corresponding focal length distinct from the focal length of at least one other region of said plurality of regions, - at least one addressable optical element integrated in or provided on the element with lensing effect , the at least one addressable optical element being adapted for changing the transmittance of at least one of said plurality of regions in response to a control signal, the at least one addressable optical element being non-concentric, and - a control means for generating said control signal,
A glass ceramic material comprising zirconium dioxide crystals embedded in an amorphous silicon dioxide matrix and at least one hardness enhancing additive comprising aluminum oxide or yttrium oxide, or a combination of aluminum oxide and yttrium oxide in a concentration of 2-10 weight%, wherein the zirconium dioxide crystals form cores and the cores are at least partly surrounded by rims , wherein the rims comprise an intergranular phase, and wherein the intergranular phase comprises at least silicon dioxide, zirconium dioxide and at least one hardness-enhancing additive, and wherein the concentration in weight percent of the hardness-enhancing additive is higher in the rims than in the amorphous silica matrix and in the cores .
Buckle tongue comprising - a tongue body , wherein the tongue body • extends in an insertion direction , • forms a belt slot that extends transversely to the insertion direction and is provided for guiding a belt strap through it, and • has a contact section , wherein the belt strap rests against the contact section at least in a load position, wherein the contact section has several recesses that in the load position minimize slipping of the belt strap transversely to the insertion direction , and - a blocking element movably arranged in the tongue body , wherein the belt strap can be moved through the belt slot in an unloaded pass-through position of the blocking element and is at least inhibited in its mobility by means of the blocking element in the load position brought about by a tensile force introduced into the belt strap , characterized in that in the pass-through position, the blocking element is arranged between the belt strap and the contact section having the recesses , so that the belt strap does not rest against the recesses in the pass-through position. - a tongue body , wherein the tongue body • extends in an insertion direction , • forms a belt slot that extends transversely to the insertion direction and is provided for guiding a belt strap through it, and • has a contact section , wherein the belt strap rests against the contact section at least in a load position, wherein the contact section has several recesses that in the load position minimize slipping of the belt strap transversely to the insertion direction , and - a blocking element movably arranged in the tongue body , wherein the belt strap can be moved through the belt slot in an unloaded pass-through position of the blocking element and is at least inhibited in its mobility by means of the blocking element in the load position brought about by a tensile force introduced into the belt strap ,
A tank for storing cryogenic gases , comprising an inner container , an outer container and a thermal insulation wall arranged between the inner container and the outer container , wherein the thermal insulation wall is self-supporting and is supported neither on the inner container nor on the outer container .
Squirrel cage rotor for an asynchronous machine, having a shaft , a rotor plate packet having rotor bars which are arranged inside and short-circuit rings having recesses through which the rod ends of the rotor bars extend from the rotor plate packet , characterised in that - the rotor bars partially have an electrical insulation layer on the surface thereof, - in that the electrical insulation layer is connected in a materially engaging manner only to the surface of the rotor bars , and - in that only the radially outer and/or radially inner surface portions of a rotor rod have an electrical insulation layer , wherein the insulation layer under all operating conditions effectively prevents direct contact of the rotor rods with the rotor plate packet . - the rotor bars partially have an electrical insulation layer on the surface thereof, - in that the electrical insulation layer is connected in a materially engaging manner only to the surface of the rotor bars , and - in that only the radially outer and/or radially inner surface portions of a rotor rod have an electrical insulation layer , wherein the insulation layer under all operating conditions effectively prevents direct contact of the rotor rods with the rotor plate packet .
A method of retrofitting a heating, ventilation, air conditioning, and refrigeration (HVACR) system including an air handling unit and refrigerant lines having one or more brazed, soldered, or mechanical joints to connect the refrigerant lines to the air handling unit, wherein the one or more brazed, soldered, or mechanical joints are external to the air handling unit, the method comprising: removing a refrigerant from the HVACR system, the refrigerant being a non-flammable refrigerant; adding refrigerant to the HVACR system, the refrigerant being added having a global warming potential (GWP) that is relatively lower than the refrigerant removed from the HVACR system, and the refrigerant being added having a relatively higher flammability than the refrigerant removed from the HVACR system; characterized by installing an enclosure over the one or more brazed, soldered, or mechanical joints that are external to the air handling unit, the enclosure including a vent aperture , and wherein installing the enclosure includes fluidly connecting the vent aperture to the air handling unit for venting into the air handling unit. removing a refrigerant from the HVACR system, the refrigerant being a non-flammable refrigerant; adding refrigerant to the HVACR system, the refrigerant being added having a global warming potential (GWP) that is relatively lower than the refrigerant removed from the HVACR system, and the refrigerant being added having a relatively higher flammability than the refrigerant removed from the HVACR system; characterized by installing an enclosure over the one or more brazed, soldered, or mechanical joints that are external to the air handling unit, the enclosure including a vent aperture , and wherein installing the enclosure includes fluidly connecting the vent aperture to the air handling unit for venting into the air handling unit.
A device for emitting an ultrasound acoustic wave in a propagation medium, comprising: - a package including a base substrate and a cap coupled to the base substrate and defining therewith a chamber in the package ; - a semiconductor die , coupled to the base substrate in the chamber , comprising a semiconductor body ; - a plurality of micromachined ultrasonic transducers, MUTs, (1; 30) integrated in the die , each MUT (1; 30) of said plurality including: a respective cavity (6; 32) in the semiconductor body and a respective membrane suspended over the respective cavity (6; 32); and a respective actuator , operatively coupled to the respective membrane , which can be operated for generating a deflection of the respective membrane , characterized in that at least one physical parameter (t 1 ; d 1 ) of each membrane is designed so that a resonance frequency (f 0 ) of each respective membrane matches an acoustic resonance frequency that, during operation of the respective MUT (1; 30), develops in said chamber of the package , wherein each MUT (1; 30) integrated in the die and the die are arranged with respect to the cap so that each MUT (1; 30) is aligned to a respective region of the cap that corresponds, in use, to a respective area of maximum and minimum pressure exerted, in the propagation medium, by the acoustic wave emitted at said acoustic resonance frequency. - a package including a base substrate and a cap coupled to the base substrate and defining therewith a chamber in the package ; - a semiconductor die , coupled to the base substrate in the chamber , comprising a semiconductor body ; - a plurality of micromachined ultrasonic transducers, MUTs, (1; 30) integrated in the die , each MUT (1; 30) of said plurality including: a respective cavity (6; 32) in the semiconductor body and a respective membrane suspended over the respective cavity (6; 32); and a respective actuator , operatively coupled to the respective membrane , which can be operated for generating a deflection of the respective membrane ,
A decal kit , for applying a decal to an article of clothing , the kit comprising: a first carrier sheet ; a first overlay having a first surface and a second surface , wherein the first surface is temporarily bonded to the first carrier sheet and wherein the first overlay is comprised of a plurality of discontinuous portions of decal material; and a plurality of dimensional spacers bonded to the second surface of the first overlay , wherein the dimensional spacers have a greater resilience than the first overlay , and each dimensional spacer is aligned such that a perimeter margin of the first overlay extends beyond a perimeter of each dimensional spacer .
Method of control of an SDN network, known as an IP core network (CIN), said IP core network including at least one first (OFR1) and one second (OFR2) router connected to an external packet data network (PDN) and a plurality of switches (OFS1) capable of connecting at least one base station (eNb1) of a network for access to the first and second routers, said packet data network being capable of transmitting data streams through the IP core network destined for terminals (T1) attached to the at least one base station, data streams currently being routed between the external network and at least one terminal, the method including a step (E301, E302, E303) for establishing one stream processing rule per stream received by the first router, characterized in that the method of control further includes: • a step (E100) of assigning the second router as backup router for the first router; • a step (E201, E202) of transmitting to the external packet data network an item of information relating to said assignment of the backup router; • a step (E400) of detecting an event relating to a failure of the first router; • a step (E500) of transmitting to the backup router all of the established processing rules for the first router, intended to be applied by the backup router, the transmission step (E500) being triggered by the step (E400) of detecting an event relating to a failure of the first router. • a step (E100) of assigning the second router as backup router for the first router; • a step (E201, E202) of transmitting to the external packet data network an item of information relating to said assignment of the backup router; • a step (E400) of detecting an event relating to a failure of the first router; • a step (E500) of transmitting to the backup router all of the established processing rules for the first router, intended to be applied by the backup router, the transmission step (E500) being triggered by the step (E400) of detecting an event relating to a failure of the first router.
A hose heater , in particular for sealing thermoplastic hoses and/or pipes, in particular hoses made of thermoplastic elastomer, having at least one heating element which can be heated, in particular inductively, the heating element having at least four, in particular more than six, mutually movable, in particular electrically, inductively and/or resistively heatable regions , and the heating element is arranged to be placed from a direction perpendicular to the longitudinal extension on a hose having an outer diameter and to enclose the latter over its circumference at at least four spaced-apart points, bearing against at least 75% of its circumference, and wherein the heating element is designed to be deformable in this way, that a cross-section enclosed by it can be reduced by at least 30%, in particular by more than 50%, by compressing and/or drawing the heating element and/or can be reduced in its extension in one direction of the cross-section by at least 30%, in particular by more than 50%, wherein the mutually movable, in particular electrically, inductively and/or resistively heatable regions are formed by, in particular in each case one, plate-shaped element(s) and, in particular, between at least two pairs of mutually adjacent plate-shaped elements there is in each case a joint and/or a material weakening which allow the angle of the plate-shaped elements of the respective pair to be changed with respect to one another, characterised in that the outer diameter of the hose onto which the heating element is adapted to be placed is in the range of 3 mm to 45 mm and in that the hose heater is adapted to maintain the reduced enclosed cross-section at least against a force of 1 N pushing the hose heater apart at least to the extent that the reduced enclosed cross-section does not increase by more than 10%.
A communication method, comprising: identifying, by a first central controller, a pattern for muting resource elements, REs, of a first type of control channel for user equipment, UE, according to a common references signal, CRS, pattern; identifying , by the first central controller, a set of subframes including the first type of control channel, the set of subframes having REs which, according to the pattern for muting REs, should be muted; muting , by the first central controller, the REs which, according to the pattern for muting REs, should be muted in the first type of control channel; frequency-division multiplexing , by the first central controller, the first type of control channel with data channels, wherein at least one of the data channels has data REs which, according to the pattern for muting REs, should be muted; transmitting , by the first central controller, the first type of control channel in the set of subframes with muted REs which, according to the pattern for muting REs, should be muted; and transmitting , by the first central controller, at least one of the data channels including data information on the data REs which, according to the pattern for muting REs, should be muted. identifying, by a first central controller, a pattern for muting resource elements, REs, of a first type of control channel for user equipment, UE, according to a common references signal, CRS, pattern; identifying , by the first central controller, a set of subframes including the first type of control channel, the set of subframes having REs which, according to the pattern for muting REs, should be muted; muting , by the first central controller, the REs which, according to the pattern for muting REs, should be muted in the first type of control channel; frequency-division multiplexing , by the first central controller, the first type of control channel with data channels, wherein at least one of the data channels has data REs which, according to the pattern for muting REs, should be muted; transmitting , by the first central controller, the first type of control channel in the set of subframes with muted REs which, according to the pattern for muting REs, should be muted; and transmitting , by the first central controller, at least one of the data channels including data information on the data REs which, according to the pattern for muting REs, should be muted.
A vortex generator having a longitudinal direction , two fins , which are each arranged at an angle α in relation to the longitudinal direction and extend over a first length L1 in the longitudinal direction , and a base , which connects the two fins to each other, the base having a width B and extending over a second length L2 in the longitudinal direction , wherein the second length L2 is not more than 70 % of the first length L1. over the entire width B of the base .
Container floor panel for use as flooring of a shipping container, the container floor panel comprises several layers with at least one reinforcement layer formed by fibers with a length of at least 300 mm, wherein the reinforcement layer comprises a binder and is hot pressed, characterized in that the fibers are arranged in bundles of a multiplicity of fibers .