mhurhangee/patent-ind-claim-en huggingface dataset:
A method for controlling a wind turbine , wherein said wind turbine comprises: - A wind turbine rotor with one or more blades , wherein the wind turbine has a rated angular rotation speed of the wind turbine rotor, said method comprising: - Controlling the wind turbine according to a normal mode, - Obtaining information on ambient conditions, - Determining, based on said information, if an erosion criterion is fulfilled, - Controlling the wind turbine according to an extended mode if the erosion criterion is fulfilled, wherein: in the normal mode the angular rotation speed of the wind turbine rotor remains at the rated angular rotation speed for wind speeds at least in a range from a rated wind speed and up to a cut-out wind speed, and in the extended mode an angular rotation speed of the wind turbine rotor is allowed to exceed the rated angular rotation speed ; the information on ambient conditions comprises information on rain drops impinging on the one or more blades or being likely to impinge on the one or more blades; and the method comprises: - Determining that the erosion criterion is fulfilled if an average drop size of said rain drops are below a predetermined rain drop size threshold. - A wind turbine rotor with one or more blades , wherein the wind turbine has a rated angular rotation speed of the wind turbine rotor, - Controlling the wind turbine according to a normal mode, - Obtaining information on ambient conditions, - Determining, based on said information, if an erosion criterion is fulfilled, - Controlling the wind turbine according to an extended mode if the erosion criterion is fulfilled, wherein: in the normal mode the angular rotation speed of the wind turbine rotor remains at the rated angular rotation speed for wind speeds at least in a range from a rated wind speed and up to a cut-out wind speed, and in the extended mode an angular rotation speed of the wind turbine rotor is allowed to exceed the rated angular rotation speed ; the information on ambient conditions comprises information on rain drops impinging on the one or more blades or being likely to impinge on the one or more blades; and the method comprises: - Determining that the erosion criterion is fulfilled if an average drop size of said rain drops are below a predetermined rain drop size threshold. in the normal mode the angular rotation speed of the wind turbine rotor remains at the rated angular rotation speed for wind speeds at least in a range from a rated wind speed and up to a cut-out wind speed, and in the extended mode an angular rotation speed of the wind turbine rotor is allowed to exceed the rated angular rotation speed ; the information on ambient conditions comprises information on rain drops impinging on the one or more blades or being likely to impinge on the one or more blades; and the method comprises: - Determining that the erosion criterion is fulfilled if an average drop size of said rain drops are below a predetermined rain drop size threshold. - Determining that the erosion criterion is fulfilled if an average drop size of said rain drops are below a predetermined rain drop size threshold.
A negative electrode active material comprising: a silicon-based compound comprising SiO x , wherein 0.5<x<1.3; an amorphous carbon layer disposed on the silicon-based compound; a graphene layer disposed on the amorphous carbon layer; and a cavity layer corresponding to a separated space between the amorphous carbon layer and the graphene layer. a silicon-based compound comprising SiO x , wherein 0.5<x<1.3; an amorphous carbon layer disposed on the silicon-based compound; a graphene layer disposed on the amorphous carbon layer; and a cavity layer corresponding to a separated space between the amorphous carbon layer and the graphene layer.
An artificial turf system having a pile height (H) between about 15 mm and about 70 mm and comprising: a turf backing layer , a plurality of turf fibers attached to the turf backing layer , and a dual layers infill , the first layer of said infill being a stabilizing infill layer on top of the turf backing layer and overlaying said turf backing layer , the second layer of said infill being a performance infill layer on top of the stabilizing infill layer and overlaying the stabilizing infill layer , wherein said infill is interspersed between the turf fibers supporting the turf fibers in an upright position and having a depth covering a portion of the turf fibers and exposing another portion of the turf fibers , wherein the infill comprises olive pit particles and another infill material, wherein the performance infill layer is an olive pit particles layer having a weight between about 1 kg per square meter and about 15 kg per square meter of olive pit particles, and the stabilizing infill layer is a layer of said another infill material being sand. a turf backing layer , a plurality of turf fibers attached to the turf backing layer , and a dual layers infill , the first layer of said infill being a stabilizing infill layer on top of the turf backing layer and overlaying said turf backing layer , the second layer of said infill being a performance infill layer on top of the stabilizing infill layer and overlaying the stabilizing infill layer , wherein said infill is interspersed between the turf fibers supporting the turf fibers in an upright position and having a depth covering a portion of the turf fibers and exposing another portion of the turf fibers , wherein the infill comprises olive pit particles and another infill material, wherein the performance infill layer is an olive pit particles layer having a weight between about 1 kg per square meter and about 15 kg per square meter of olive pit particles, and the stabilizing infill layer is a layer of said another infill material being sand.
A method for providing data required for resolving a query, the method comprising: receiving a dataset captured by a plurality of sensors, wherein the dataset is received based on a pre-defined set of rules; creating a space for storing the dataset in a window , of a plurality of windows, of the database by removing pre-stored data from the window, wherein the pre-stored data is removed on arrival of the dataset, and wherein the pre-stored data is stored in a repository post removal from the window; receiving the query from a user , wherein the query is one of a registered query and an ad-hoc query, wherein the ad hoc query is received in real time from the user; determining the data based upon the query , wherein the data comprises the dataset and a part of the pre-stored dataset or the pre-stored dataset, wherein size of the window is dynamically adapted based on the data to be provided to the query; resizing the window to merge the part of the pre-stored dataset or the pre-stored dataset with the dataset, thereby generating a resized window, wherein the window is resized when the query is the registered query; selecting a maximum size window having a maximum size amongst the plurality of windows, wherein the maximum size window is selected when the query is the ad-hoc query; generating an unbounded stream of data by the plurality of sensors ; wherein the plurality of sensors is deployed around a geographical location to capture information and events; receiving a snapshot of the unbounded stream of the data, wherein the snapshot is associated with the dataset captured by the plurality of sensors. receiving a dataset captured by a plurality of sensors, wherein the dataset is received based on a pre-defined set of rules; creating a space for storing the dataset in a window , of a plurality of windows, of the database by removing pre-stored data from the window, wherein the pre-stored data is removed on arrival of the dataset, and wherein the pre-stored data is stored in a repository post removal from the window; receiving the query from a user , wherein the query is one of a registered query and an ad-hoc query, wherein the ad hoc query is received in real time from the user; determining the data based upon the query , wherein the data comprises the dataset and a part of the pre-stored dataset or the pre-stored dataset, wherein size of the window is dynamically adapted based on the data to be provided to the query; resizing the window to merge the part of the pre-stored dataset or the pre-stored dataset with the dataset, thereby generating a resized window, wherein the window is resized when the query is the registered query; selecting a maximum size window having a maximum size amongst the plurality of windows, wherein the maximum size window is selected when the query is the ad-hoc query; generating an unbounded stream of data by the plurality of sensors ; wherein the plurality of sensors is deployed around a geographical location to capture information and events; receiving a snapshot of the unbounded stream of the data, wherein the snapshot is associated with the dataset captured by the plurality of sensors.
A method comprising: collecting , by a network controller, a first channel impulse response signal of a client device from a first network device of a communication system at a first time instance, the first network device in communication with the client device ; determining , by the network controller, a first path data based on the first channel impulse response signal; determining, by the network controller, one or more first paths between the client device and the first network device in the first path data and one or more second paths between the client device and the first network device in at least one second path data corresponding to at least a second time instance prior to the first time instance; determining , by the network controller, that the client device is physically blocked from the first network device , or that a geographical location of the client device has changed, by comparing the first path data with the at least one second path data ; and changing , by the network controller, the communication between the first network device and the client device in response to the client device being physically blocked from the first network device or the geographical location of the client device having been changed. collecting , by a network controller, a first channel impulse response signal of a client device from a first network device of a communication system at a first time instance, the first network device in communication with the client device ; determining , by the network controller, a first path data based on the first channel impulse response signal; determining, by the network controller, one or more first paths between the client device and the first network device in the first path data and one or more second paths between the client device and the first network device in at least one second path data corresponding to at least a second time instance prior to the first time instance; determining , by the network controller, that the client device is physically blocked from the first network device , or that a geographical location of the client device has changed, by comparing the first path data with the at least one second path data ; and changing , by the network controller, the communication between the first network device and the client device in response to the client device being physically blocked from the first network device or the geographical location of the client device having been changed.
A coated article comprising a substrate; a functional layer over at least a portion of the substrate, and a first protective film over at least a portion of the functional layer, wherein the first protective film comprises alumina, zirconia, silica or mixtures thereof, and a second protective film over at least a portion of the first protective film wherein the second protective film comprises titania and alumina, wherein the second protective film is an outermost film.
A method for notifying a state change by a machine-to-machine, M2M, gateway in an M2M system, comprising: storing (S1304), by the M2M gateway , received policy information in a form of a resource, wherein the policy information includes limit policy information, the limit policy information including scope information indicating one or more devices to which the limit policy information is applied, an allowed event category range indicating allowed values for an event category parameter in a request generated by any of the one or more devices , and condition information indicating a condition under which the limit policy information is applied; transmitting (S1306), by the M2M gateway to the one or more devices indicated by the stored scope information, a notification including the allowed event category range; and when the M2M gateway detects a state change of the M2M gateway indicated by the stored condition information, transmitting (S1314), by the M2M gateway , a notification indicating the state change of the M2M gateway to the one or more devices , wherein whether the request generated by the one or more devices is transmitted to an M2M device is determined according to whether the request is within the allowed event category range; and wherein the one or more devices contained in the scope of the policy having received the notification indicating a change of the M2M gateway perform a new request limit policy with a new event category range based on the received notification. storing (S1304), by the M2M gateway , received policy information in a form of a resource, wherein the policy information includes limit policy information, the limit policy information including scope information indicating one or more devices to which the limit policy information is applied, an allowed event category range indicating allowed values for an event category parameter in a request generated by any of the one or more devices , and condition information indicating a condition under which the limit policy information is applied; transmitting (S1306), by the M2M gateway to the one or more devices indicated by the stored scope information, a notification including the allowed event category range; and when the M2M gateway detects a state change of the M2M gateway indicated by the stored condition information, transmitting (S1314), by the M2M gateway , a notification indicating the state change of the M2M gateway to the one or more devices , wherein whether the request generated by the one or more devices is transmitted to an M2M device is determined according to whether the request is within the allowed event category range; and wherein the one or more devices contained in the scope of the policy having received the notification indicating a change of the M2M gateway perform a new request limit policy with a new event category range based on the received notification.
An electrical conductor pathway system for integration onto an air vehicle structure and for diverting an electric charge, the electrical conductor pathway system comprising: a substrate (304; 101) having a first surface and having one or more grounding points , the first surface of the substrate (304; 101) being a surface to be printed on; and a direct write conductive material pattern printed directly onto the first surface via a direct write printing process, the direct write conductive material pattern forming one or more electrical pathways interconnected with the one or more grounding points , and the direct write conductive material pattern comprising a grid pattern having repeating geometric-shaped units comprising one or more of square-shaped units, hexagon-shaped units, triangle-shaped units, and circle-shaped units, wherein the one or more electrical pathways interconnected with the one or more grounding points divert the electric charge from the first surface to the one or more grounding points . a substrate (304; 101) having a first surface and having one or more grounding points , the first surface of the substrate (304; 101) being a surface to be printed on; and a direct write conductive material pattern printed directly onto the first surface via a direct write printing process, the direct write conductive material pattern forming one or more electrical pathways interconnected with the one or more grounding points , and the direct write conductive material pattern comprising a grid pattern having repeating geometric-shaped units comprising one or more of square-shaped units, hexagon-shaped units, triangle-shaped units, and circle-shaped units, wherein the one or more electrical pathways interconnected with the one or more grounding points divert the electric charge from the first surface to the one or more grounding points .
A reflector comprising a reflector wall , the reflector wall comprising a first wall surface and a second wall surface defining said reflector wall , the reflector wall comprising a light transmissive material , wherein the reflector wall has a first dimension (d1) and a second dimension (d2) defining a first reflector wall area, wherein each wall surface comprises a plurality of parallel arranged elongated corrugations , wherein the corrugations have corrugation heights (h2) relative to recesses between adjacent corrugations and corrugation widths (w2) defined by the distance between adjacent recesses at the respective wall surfaces , wherein the corrugations have curved corrugation surfaces between said adjacent recesses having corrugation radii (r2) at the respective wall surfaces , and wherein over at least part of one of the first dimension (d1) and the second dimension (d2) one or more of (i) the corrugation heights (h2), (ii) the corrugation widths (w2), (iii) the corrugation radii (r2), and (iv) a shortest top-top distance (w12) of corrugations tops configured at different wall surfaces vary over said wall dimension (d1,d2) for at least one of the wall surfaces , characterized in that the reflector has a first end and a second end , wherein a third distance (d3) between the first end and the second end is bridged by one or more reflector walls , wherein the one or more reflector walls are configured tapering from the second end to the first end , and wherein the reflector has a reflector cavity .
An inertial measurement system for a longitudinal projectile comprising: a first, roll gyro to be oriented substantially parallel to the longitudinal axis of the projectile; a second gyro and a third gyro with axes arranged with respect to the roll gyro such that they define a three dimensional coordinate system; a controller, arranged to: compute a projectile attitude from the outputs of the first, second and third gyros , the computed attitude comprising a roll angle, a pitch angle and a yaw angle; characterized in that the controller is further arranged to: compare the computed pitch and yaw angles with expected values for the pitch and yaw angles for an expected trajectory; calculate a roll angle error and a roll scale factor error based on the difference between the computed pitch and yaw angles and the expected pitch and yaw angles; and apply the calculated roll angle error and roll scale factor error to the output of the roll gyro . a first, roll gyro to be oriented substantially parallel to the longitudinal axis of the projectile; a second gyro and a third gyro with axes arranged with respect to the roll gyro such that they define a three dimensional coordinate system; a controller, arranged to: compute a projectile attitude from the outputs of the first, second and third gyros , the computed attitude comprising a roll angle, a pitch angle and a yaw angle; characterized in that the controller is further arranged to: compare the computed pitch and yaw angles with expected values for the pitch and yaw angles for an expected trajectory; calculate a roll angle error and a roll scale factor error based on the difference between the computed pitch and yaw angles and the expected pitch and yaw angles; and apply the calculated roll angle error and roll scale factor error to the output of the roll gyro . compare the computed pitch and yaw angles with expected values for the pitch and yaw angles for an expected trajectory; calculate a roll angle error and a roll scale factor error based on the difference between the computed pitch and yaw angles and the expected pitch and yaw angles; and apply the calculated roll angle error and roll scale factor error to the output of the roll gyro .
Polyurethane composition comprising a) 5 to 40 wt%, based on the overall polyurethane composition, of at least one polyol P; b) 25 to 75 wt%, based on the overall polyurethane composition, of at least one filler F; c) 0.5 to 10 wt%, based on the overall polyurethane composition, of at least one polyisocyanate I; d) 10 to 40 wt%, based on the overall polyurethane composition, of at least one plasticizer W; characterized in that the plasticizer W comprises at least one sulfonamide. a) 5 to 40 wt%, based on the overall polyurethane composition, of at least one polyol P; b) 25 to 75 wt%, based on the overall polyurethane composition, of at least one filler F; c) 0.5 to 10 wt%, based on the overall polyurethane composition, of at least one polyisocyanate I; d) 10 to 40 wt%, based on the overall polyurethane composition, of at least one plasticizer W;
A chip apparatus , comprising: a system-on-chip [SoC] electronic device , including: a semiconductive digital processor, DP, section thereof; a semiconductive radio-frequency integrated-circuit, RFIC, section thereof, and where the DP section and the RFIC section form a DP-RFIC device on a semiconductive substrate; and front-end module passive devices coupled to the RFIC section; and a package substrate upon which the DP-RFIC device is mounted, wherein at least one inductor of the front-end module passive devices is coupled to the RFIC section through the package substrate, wherein the at least one inductor includes six electrical bump connectors between the DP-RFIC and the package substrate, wherein the at least one inductor is a single loop that includes six via stack structures, wherein said via stack structures are integral to the package substrate, wherein each via stack structure is contacted with a respective one of said six electrical bumps, to form six composite bump-and-stacked-via stacks, wherein said six composite bump-and-stacked-via stacks are seriatim coupled to form a single loop; wherein said six composite bump-and-stacked-via stacks are coupled by five coil segment traces , and wherein said five coil segment traces are provided alternatingly as three bottom traces integral with the package substrate and as two top traces integral with the system-on-chip electronic device ; and a capacitor within the RFIC. a semiconductive digital processor, DP, section thereof; a semiconductive radio-frequency integrated-circuit, RFIC, section thereof, and where the DP section and the RFIC section form a DP-RFIC device on a semiconductive substrate; and front-end module passive devices coupled to the RFIC section; and a package substrate upon which the DP-RFIC device is mounted, wherein at least one inductor of the front-end module passive devices is coupled to the RFIC section through the package substrate,