mhurhangee/patent-ind-claim-en huggingface dataset:
A method for determining an edgewise load recurrence signal acting on a wind turbine blade, the method comprising: obtaining, from at least one sensor, a plurality of measures of a parameter for deriving an edgewise load signal acting on the wind turbine blade; deriving the edgewise load signals acting on the wind turbine blade based on each obtained measure of the parameter; filtering the edgewise load signals to separate out frequency content of one or more edgewise components of the edgewise load signal to provide an edgewise component load signals; identifying a peak edgewise component load signal of the edgewise component load signals derived from measures obtained within a given period of time; repeating the above steps until a plurality of peak edgewise component load signals have been identified; fitting the plurality of peak edgewise component load signals, identified from a plurality of periods of time, to a distribution function; and extrapolating the fitted peak first edgewise components to estimate an edgewise load recurrence. obtaining, from at least one sensor, a plurality of measures of a parameter for deriving an edgewise load signal acting on the wind turbine blade; deriving the edgewise load signals acting on the wind turbine blade based on each obtained measure of the parameter; filtering the edgewise load signals to separate out frequency content of one or more edgewise components of the edgewise load signal to provide an edgewise component load signals; identifying a peak edgewise component load signal of the edgewise component load signals derived from measures obtained within a given period of time; repeating the above steps until a plurality of peak edgewise component load signals have been identified; fitting the plurality of peak edgewise component load signals, identified from a plurality of periods of time, to a distribution function; and extrapolating the fitted peak first edgewise components to estimate an edgewise load recurrence.
A munition assembly adapted to engage an underwater target, the assembly arranged to be launched from a gun, the assembly comprising: a carrier for a submunition , the carrier comprising a cavity in which the submunition is located; and a submunition , carried by the carrier in the cavity, the submunition arranged to be controllably expelled from the carrier ; the submunition comprising: a submunition explosive charge ; and a submunition fuze , wherein: the munition assembly is adapted to be launched, into the air, from a gun barrel, where the submunition is then arranged to be controllably expelled from the carrier and enter a body of water; and wherein the submunition fuze is a programmable fuze adapted to trigger the submunition explosive charge underwater in accordance with one or more of: upon detection of a target sonar signature ; upon detection of a target magnetic signature ; upon detection of a target electric field signature; at a predetermined pressure under the water surface; at a predetermined depth under the water surface; at a predetermined salinity of water; at a predetermined temperature of water; or at a predetermined speed-of-sound in water. a carrier for a submunition , the carrier comprising a cavity in which the submunition is located; and a submunition , carried by the carrier in the cavity, the submunition arranged to be controllably expelled from the carrier ; a submunition explosive charge ; and a submunition fuze , the munition assembly is adapted to be launched, into the air, from a gun barrel, where the submunition is then arranged to be controllably expelled from the carrier and enter a body of water; and wherein the submunition fuze is a programmable fuze adapted to trigger the submunition explosive charge underwater in accordance with one or more of: upon detection of a target sonar signature ; upon detection of a target magnetic signature ; upon detection of a target electric field signature; at a predetermined pressure under the water surface; at a predetermined depth under the water surface; at a predetermined salinity of water; at a predetermined temperature of water; or at a predetermined speed-of-sound in water. upon detection of a target sonar signature ; upon detection of a target magnetic signature ; upon detection of a target electric field signature; at a predetermined pressure under the water surface; at a predetermined depth under the water surface; at a predetermined salinity of water; at a predetermined temperature of water; or at a predetermined speed-of-sound in water.
Overflow fitting for a sanitary basin or a sanitary tub, in particular a bathtub, having an overflow body which can be fixed to a passage opening in a basin wall or tub wall , a counterpart for fixing the overflow body to the passage opening , a drive part for triggering a function, in particular a valve function, and a rotary rosette for actuating the drive part, the overflow body providing a bearing for a drive shaft (9.1) which can be actuated by the rotary rosette , wherein the rotary rosette has a collar (9.2) serving as a gripping surface, and wherein the collar (9.2) surrounds a decorative cover which has a substantially circular peripheral edge (12.1), characterised in that the counterpart and the cover are designed to hold the cover non-rotatably on the counterpart in the mounted state of the overflow fitting.
Accelerator disc for a centrifugal separator, especially centrifugal nozzle separator, the accelerator disc having a shape of a cone, comprising a cone-shaped shell having a height and blades mounted on the cone-shaped shell of the accelerator disc , the blades extend along the whole height of the cone-shaped shell and define flow passages , characterised in that additional shorter blades extend only along a part of the height of the cone-shaped shell and reach to the end of the flow passage between such blades which extend along the whole height of the cone-shaped shell, the additional shorter blades being arranged between the blades which extend along the whole height of the cone-shaped shell and the additional shorter blades having a wider profile than the blades extending along the whole height of the cone-shaped shell, wherein the blades are bent in the counter direction of rotation.
A computer-implemented method for providing a resource record for reaching a protected resource of a first network, the method comprising: receiving , over a second network from a client device , a request identifying the protected resource (R-1, R-2, R-3, R-4, R-5); querying memory to identify a network address of the protected resource; determining , by a processor, whether the protected resource is generally accessible based on the identified network address, wherein a resource is generally accessible if it is not in shared address space; if the protected resource is not generally accessible, identifying reachability information for the protected resource; generating additional information packaged into the resource record identifying a computer, a port for the computer, and a connection method based on the reachability information; and transmitting the resource record and the network address to the client device. receiving , over a second network from a client device , a request identifying the protected resource (R-1, R-2, R-3, R-4, R-5); querying memory to identify a network address of the protected resource; determining , by a processor, whether the protected resource is generally accessible based on the identified network address, wherein a resource is generally accessible if it is not in shared address space; if the protected resource is not generally accessible, identifying reachability information for the protected resource; generating additional information packaged into the resource record identifying a computer, a port for the computer, and a connection method based on the reachability information; and transmitting the resource record and the network address to the client device.
A method for manufacturing a single sheet-type green sheet comprising a transporting step of transporting a strip-shaped green sheet using a sheet transporting mechanism , and an irradiation step of intermittently irradiating a strip-shaped green sheet that contains a ceramic with a laser beam (LB) to cut and separate the strip-shaped green sheet to obtain the single sheet-type green sheet , wherein in the transporting step the strip-shaped green sheet is transported to the irradiation step along a longitudinal direction of the strip-shaped green sheet using a sheet transporting mechanism , and the irradiation step is performed using a cutting portion comprising an irradiation portion and a moving mechanism , wherein the moving mechanism causes the irradiation portion to move and stop repeatedly so as to intermittently irradiate the laser beam (LB) by repeatedly irradiating the laser beam (LB) for a certain time period and non-irradiating for a certain time period. a transporting step of transporting a strip-shaped green sheet using a sheet transporting mechanism , and an irradiation step of intermittently irradiating a strip-shaped green sheet that contains a ceramic with a laser beam (LB) to cut and separate the strip-shaped green sheet to obtain the single sheet-type green sheet , wherein in the transporting step the strip-shaped green sheet is transported to the irradiation step along a longitudinal direction of the strip-shaped green sheet using a sheet transporting mechanism , and the irradiation step is performed using a cutting portion comprising an irradiation portion and a moving mechanism , wherein the moving mechanism causes the irradiation portion to move and stop repeatedly so as to intermittently irradiate the laser beam (LB) by repeatedly irradiating the laser beam (LB) for a certain time period and non-irradiating for a certain time period.
A method for producing zinc sulfide comprising the steps of: a) preparing a mixture of barium sulfate, preferably baryte, and of alkali metal sulfate, preferably sodium sulfate; b) treating the mixture obtained in step a) in the presence of one or more reducing agents in a temperature range of 700°C to 1250°C under a non-oxidizing atmosphere; c) treating the product resulting from step b) with water and filtering the obtained solution whereby a filtrate is obtained; d) adding an aqueous solution of an alkali metal sulfate to the filtrate of step c), preferably in an at least stoichiometric amount related to the barium ions; e) filtering the product of step d) whereby the BaSO 4 precipitate formed in step d) is separated from the filtrate; f) treating the filtrate of step e) with an aqueous solution of a Zn 2+ compound, in particular ZnSO 4 , preferably in an at least stoichiometric amount related to the sulfide ions; g) filtering the product of step f) whereby the ZnS precipitate formed in step f) is separated from the filtrate. a) preparing a mixture of barium sulfate, preferably baryte, and of alkali metal sulfate, preferably sodium sulfate; b) treating the mixture obtained in step a) in the presence of one or more reducing agents in a temperature range of 700°C to 1250°C under a non-oxidizing atmosphere; c) treating the product resulting from step b) with water and filtering the obtained solution whereby a filtrate is obtained; d) adding an aqueous solution of an alkali metal sulfate to the filtrate of step c), preferably in an at least stoichiometric amount related to the barium ions; e) filtering the product of step d) whereby the BaSO 4 precipitate formed in step d) is separated from the filtrate; f) treating the filtrate of step e) with an aqueous solution of a Zn 2+ compound, in particular ZnSO 4 , preferably in an at least stoichiometric amount related to the sulfide ions; g) filtering the product of step f) whereby the ZnS precipitate formed in step f) is separated from the filtrate.
A method for a wireless device to transmit an indication of a precoder to a network node , the method comprising: determining from a codebook an indication of a precoder comprising: a first beam phase parameter and a second beam phase parameter corresponding to a first beam and second beam, respectively; the first beam phase parameter taking on one of a first integer number of phase values; and the second beam phase parameter taking on one of a second integer number of phase values, the second beam having a lesser power than the first beam and the second integer number of phase values being less than the first integer number of phase values, the first and second integer number of phase values being respective granularities of respective co-phasing factors for the first and second beams, a co-phasing factor for a beam corresponding to a phase factor associated with one of a plurality of polarizations on which the beam is transmitted; and reporting the determined indication of the precoder to a network node . a first beam phase parameter and a second beam phase parameter corresponding to a first beam and second beam, respectively; the first beam phase parameter taking on one of a first integer number of phase values; and the second beam phase parameter taking on one of a second integer number of phase values, the second beam having a lesser power than the first beam and the second integer number of phase values being less than the first integer number of phase values, the first and second integer number of phase values being respective granularities of respective co-phasing factors for the first and second beams, a co-phasing factor for a beam corresponding to a phase factor associated with one of a plurality of polarizations on which the beam is transmitted; and reporting the determined indication of the precoder to a network node .
A brassiere comprising a cradle , two straps and two moulded preformed foam cups each for receiving a breast, each of the cups having an underarm edge section, a neckline edge section, a centre edge section, an apex, and an around cup edge section, wherein the brassiere further comprises a Y shaped control panel generally extending from the straps across the top of the neckline edge section of each of the cups and down the centre edge section of each of the cups to the cradle wherein the cradle comprises an under band , two side panels extending from the under band and two wings extending from the side panels ; characterised in that the Y shaped control panel , the two side panels and the under band each comprises a rigid double bonded fabric and the Y shaped control panel connects to the under band of the cradle and surrounds neckline edge sections and centre edge sections of the cups .
A slingbar assembly comprising: a first slingbar (22-1) comprised of: a load bearing frame having a span (d) and a centerplane , the slingbar assembly characterized by the frame including at least two spanwisely fixed, laterally spaced apart, spacers (50L-1, 50L-2, 50L-3) on one side of the centerplane and at least two spanwisely fixed, laterally spaced apart, spacers (50R-1, 50R-2, 50R-3) on the opposite side of the centerplane ; a hub attached to the frame spanwisely between two of the spacers (50L-1, 50R-1); and a strap assembly engaged with the hub . a load bearing frame having a span (d) and a centerplane , the slingbar assembly characterized by the frame including at least two spanwisely fixed, laterally spaced apart, spacers (50L-1, 50L-2, 50L-3) on one side of the centerplane and at least two spanwisely fixed, laterally spaced apart, spacers (50R-1, 50R-2, 50R-3) on the opposite side of the centerplane ; a hub attached to the frame spanwisely between two of the spacers (50L-1, 50R-1); and a strap assembly engaged with the hub .
A companion planting module for a vine seedling P and its marker , instead and in place of a vine plant pulled from a row of vine plants in place, said module comprising a chassis and positioning means, intended to be mounted on an agricultural vehicle T, able to move forward in a direction F, said module comprises a mast movable in vertical translation, equipped with planting means comprising a marker driver , provided with means for maneuvering a marker and said seedling P connected to said marker in vertical translation, means for holding and guiding said marker , a hollow planting cone , formed by a pair of hollow half-cones (50-1, 50-2), said hollow cone being oriented tip down, each half-cone having maneuvering means , said cone being able to take at least two positions, one with the half-cones closed and the other with the half-cones open, characterized in that the mast movable in vertical translation is equipped with a loosener , mounted in vertical translation relative to said mast, with means for maneuvering in vertical translation.
Computer-implemented method for generating a training set with annotated images , wherein the annotated images are to be used to train a convolutional neural network (CNN) for quantifying plant infestation by estimating the number (N EST ) of biological objects on leaves of plants ; the method comprising: receiving leaf-images (413-A) showing leaves and showing biological objects on the leaves , the leaf-images (413-A) being coded in a first color-coding ; changing the color-coding of the pixels of the leaf-images to a second color-coding , wherein the contrast between the pixels for the biological objects and the pixels for the leaves is higher in the second color-coding than in the first color-coding ; assigning pixels associated with a first color cluster in the second color-coding to a first binary value, and pixels associated with a second color cluster to a second binary value; differentiating - in the leaf-images with binary coding (413-D) - areas with contiguous pixels in the first binary value into into non-object areas and object areas by an area size criterion; identifying pixel-coordinates of the object areas , wherein the pixel-coordinates identify rectangular tile-areas with biological objects in the center, with the tile-areas in an input dimension for the CNN; and annotating the leaf-images (414-A) in first color-coding by assigning the pixel-coordinates (i, j) to corresponding tile-areas to obtain the annotated image . receiving leaf-images (413-A) showing leaves and showing biological objects on the leaves , the leaf-images (413-A) being coded in a first color-coding ; changing the color-coding of the pixels of the leaf-images to a second color-coding , wherein the contrast between the pixels for the biological objects and the pixels for the leaves is higher in the second color-coding than in the first color-coding ; assigning pixels associated with a first color cluster in the second color-coding to a first binary value, and pixels associated with a second color cluster to a second binary value; differentiating - in the leaf-images with binary coding (413-D) - areas with contiguous pixels in the first binary value into into non-object areas and object areas by an area size criterion; identifying pixel-coordinates of the object areas , wherein the pixel-coordinates identify rectangular tile-areas with biological objects in the center, with the tile-areas in an input dimension for the CNN; and annotating the leaf-images (414-A) in first color-coding by assigning the pixel-coordinates (i, j) to corresponding tile-areas to obtain the annotated image .
A method of operating a management node in a cellular telecommunications network, the cellular telecommunications network further including a multi-subscriber User Equipment, UE, and a first and second base station, wherein the first base station and management node are associated with a first network operator and the second base station is associated with a second network operator, wherein the UE is connected to the first base station by a first default bearer and to the second base station by a second default bearer, and the first and second default bearers relate to a first and second subscriber identifier respectively, the first and second subscriber identifiers uniquely identifying first and second users in the cellular telecommunications network respectively, the management node storing a database identifying a preferred partner network for the first network operator, the method comprising the steps of: receiving, from a second management node associated with the second network operator, a message relating to the second subscriber identifier, the message indicating, a UE identifier of the second default bearer; a second home network identifier of the second subscriber identifier identifying the first network operator, and a second network operator identifier of the second base station identifying the second network operator; defining a first bearer group including the first and second default bearer based on, the first and second default bearers relating to different subscriber identifiers, and a UE identifier of the first default bearer being the same as the UE identifier of the second default bearer; determining that the second home network identifier of the second subscriber identifier identifies a different network operator to that identified by the second network operator identifier of the second base station; and, in response, determining a preferred partner network associated with the first home network; and initiating a transfer of the second default bearer to the preferred partner network. receiving, from a second management node associated with the second network operator, a message relating to the second subscriber identifier, the message indicating, a UE identifier of the second default bearer; a second home network identifier of the second subscriber identifier identifying the first network operator, and a second network operator identifier of the second base station identifying the second network operator; defining a first bearer group including the first and second default bearer based on, the first and second default bearers relating to different subscriber identifiers, and a UE identifier of the first default bearer being the same as the UE identifier of the second default bearer; determining that the second home network identifier of the second subscriber identifier identifies a different network operator to that identified by the second network operator identifier of the second base station; and, in response, determining a preferred partner network associated with the first home network; and initiating a transfer of the second default bearer to the preferred partner network.
A reduced ring groove rivet, comprising: a pin having a head and a body connected to the head, characterized in that a plurality of sets of ring grooves being equidistantly arranged on the body , each of the previous sets of ring grooves including a first ring groove and a second ring groove adjacent to the first ring groove , wherein the first ring groove has a first groove bottom and a first groove peak adjacent to the first groove bottom , and the second ring groove has a second groove bottom and a second groove peak adjacent to the second groove bottom ; a diameter (h1) of the second groove bottom is smaller than a diameter (h2) of the first groove bottom , so that any of the plurality of sets of ring grooves may be selected as a breaking part during the break-off operation.