mhurhangee/ep-ind-claims huggingface dataset:
A method for analyzing behavior in an intelligent surveillance system, the system being operable to provide a series of consecutive images of an area under surveillance for consecutive time points, the method comprising the steps of: - for each image of the series, generating a set of points defining at least one moving silhouette on an image; - tracing the position of points in the sets of points on consecutive images in order to generate a trajectory; characterized by: - generating a plurality of trajectories of points for said at least one moving silhouette, each trajectory corresponding to a distinct characteristic point of said silhouette, - providing a reference database of predefined trajectories corresponding to predefined behaviors; - comparing said generated plurality of trajectories of said at least one moving silhouette with said reference database; - outputting information regarding the type of the predefined behavior to which said at least one moving silhouette corresponds. - for each image of the series, generating a set of points defining at least one moving silhouette on an image; - tracing the position of points in the sets of points on consecutive images in order to generate a trajectory; - generating a plurality of trajectories of points for said at least one moving silhouette, each trajectory corresponding to a distinct characteristic point of said silhouette, - providing a reference database of predefined trajectories corresponding to predefined behaviors; - comparing said generated plurality of trajectories of said at least one moving silhouette with said reference database; - outputting information regarding the type of the predefined behavior to which said at least one moving silhouette corresponds.
A method comprising: receiving, at a device, a copy command, wherein the copy command comprises a first indication (102a; 202a) of a first amount of source data and a second indication (102b; 202b) of a second amount of source data, wherein the first and second indications (102a, 102b; 202a, 202b) are provided in the form of source ranges of logical block addresses, LBAs; determining, based on the first indication (102a; 202a), an amount of destination space; storing the first indication (102a; 202a) to generate a stored first indication (102a; 202a) in a first memory location, blocking at least a portion of the amount of destination space, reading the stored first indication (102a; 202a); writing, based on the reading the stored first indication (102a; 202a), in the at least a portion of the amount of destination space, at least a portion of the first amount of source data; and subsequent to said writing the at least a portion of the first amount of source data, freeing the first memory location, and looping through the steps of reading, writing, freeing, for the second indication. receiving, at a device, a copy command, wherein the copy command comprises a first indication (102a; 202a) of a first amount of source data and a second indication (102b; 202b) of a second amount of source data, wherein the first and second indications (102a, 102b; 202a, 202b) are provided in the form of source ranges of logical block addresses, LBAs; determining, based on the first indication (102a; 202a), an amount of destination space; storing the first indication (102a; 202a) to generate a stored first indication (102a; 202a) in a first memory location, blocking at least a portion of the amount of destination space, reading the stored first indication (102a; 202a); writing, based on the reading the stored first indication (102a; 202a), in the at least a portion of the amount of destination space, at least a portion of the first amount of source data; and subsequent to said writing the at least a portion of the first amount of source data, freeing the first memory location, and looping through the steps of reading, writing, freeing, for the second indication.
A customer satellite terminal for providing seamless hand-off from a descending satellite to an ascending satellite in an equatorial MEO constellation at RF, the satellite terminal comprising: a processing device (12, 22, 30) configured to receive a first satellite signal from the descending satellite and a second satellite signal from the ascending satellite, the first satellite signal having a first amplitude, a first frequency offset, a first phase, and a first propagation delay from the descending satellite (5, 7) to the satellite terminal (10, 20) and the second satellite signal having a second amplitude, a second frequency offset, a second phase, and a second propagation delay from the ascending satellite to the satellite terminal; characterized in that said processing device (12, 22, 30) is further configured to conduct a hand-off from the descending satellite to the ascending satellite when the first propagation delay and the second propagation delay are substantially equal, determined by aligning the first and second amplitudes, the first and second frequency offsets, and the first and second phases. a processing device (12, 22, 30) configured to receive a first satellite signal from the descending satellite and a second satellite signal from the ascending satellite, the first satellite signal having a first amplitude, a first frequency offset, a first phase, and a first propagation delay from the descending satellite (5, 7) to the satellite terminal (10, 20) and the second satellite signal having a second amplitude, a second frequency offset, a second phase, and a second propagation delay from the ascending satellite to the satellite terminal; characterized in that said processing device (12, 22, 30) is further configured to conduct a hand-off from the descending satellite to the ascending satellite when the first propagation delay and the second propagation delay are substantially equal, determined by aligning the first and second amplitudes, the first and second frequency offsets, and the first and second phases.
Polygonal spanner combination tool that has multiple polygonal spanners for different screw sizes, whereby the polygonal spanners are coaxial sockets that plug into each other, whereby the sockets each have two sections, that have different inner polygonal cross-sections, characterised by the fact that the sockets have a polygonal-shaped passage opening that is arranged transversely to the longitudinal axis of the sockets, whereby the polygonal-shaped passage opening is designed so that on the one hand the smaller cross-section and on the other hand the larger cross-section has the next smaller socket.
An optical marker (200, 1200, 1300) for positioning a medical device outside a body, comprising: a base (210, 1210, 1310); and a connecting portion (220, 1220, 1320) connected to the base (210, 1210, 1310) and used for connecting to a to-be-positioned portion of the medical device, the optical marker (200, 1200, 1300) characterized in that: the base (210, 1210, 1310) is in a shape of a bowl and includes a concave inner surface and a convex outer surface, non-coplanar optical marks are provided on and visible on the concave inner surface and/or the convex outer surface for recognizing the optical marker (200, 1200, 1300) by a positioning device and determining a position of the medical device based on the recognized optical marker (200, 1200, 1300), wherein: the base is made of a transparent material, and the inner surface or the outer surface is covered with a non-transparent optical mark layer provided with the optical marks; or the base is made of a non-transparent material, and the optical marks are on both the inner surface and the outer surface, such that from a direction of the inner surface or a direction of the outer surface of the bowl, position information about the optical marks can be captured. a base (210, 1210, 1310); and a connecting portion (220, 1220, 1320) connected to the base (210, 1210, 1310) and used for connecting to a to-be-positioned portion of the medical device, the optical marker (200, 1200, 1300) characterized in that: the base (210, 1210, 1310) is in a shape of a bowl and includes a concave inner surface and a convex outer surface, non-coplanar optical marks are provided on and visible on the concave inner surface and/or the convex outer surface for recognizing the optical marker (200, 1200, 1300) by a positioning device and determining a position of the medical device based on the recognized optical marker (200, 1200, 1300), wherein: the base is made of a transparent material, and the inner surface or the outer surface is covered with a non-transparent optical mark layer provided with the optical marks; or the base is made of a non-transparent material, and the optical marks are on both the inner surface and the outer surface, such that from a direction of the inner surface or a direction of the outer surface of the bowl, position information about the optical marks can be captured. the base is made of a transparent material, and the inner surface or the outer surface is covered with a non-transparent optical mark layer provided with the optical marks; or the base is made of a non-transparent material, and the optical marks are on both the inner surface and the outer surface, such that from a direction of the inner surface or a direction of the outer surface of the bowl, position information about the optical marks can be captured.
Ladle bottom made of a refractory ceramic body with an upper surface, a lower surface and a pouring channel extending between upper surface and lower surface, wherein said pouring channel extends from a diffusor box, being defined by a deepened section of said upper surface, wherein the said diffusor box is characterized by the following features: a) It is arranged at a horizontal distance to a surface area of the ladle bottom used as an impact area for a metal melt poured onto said ladle bottom, b) It has a vertical step at least along its border facing the impact area, wherein said step has a height (h) of between 40 and 200mm, c) it is arranged at a distance to each gas purging element within the ladle bottom d) it has a minimum horizontal area A min = Π 4 0, 37 r 2 + 0, 3 and a maximum horizontal area A max = Π 4 0, 8 r 2 + 0, 3 wherein r = radius of the ladle bottom and r ≥ 0,75 m with r max =2m for all ladle bottoms with an effective radius of ≥ 2m, e) an inlet end of said pouring channel is arranged offset the step along its border facing the impact area. a) It is arranged at a horizontal distance to a surface area of the ladle bottom used as an impact area for a metal melt poured onto said ladle bottom, b) It has a vertical step at least along its border facing the impact area, wherein said step has a height (h) of between 40 and 200mm, c) it is arranged at a distance to each gas purging element within the ladle bottom d) it has a minimum horizontal area A min = Π 4 0, 37 r 2 + 0, 3 and a maximum horizontal area A max = Π 4 0, 8 r 2 + 0, 3 wherein r = radius of the ladle bottom and r ≥ 0,75 m with r max =2m for all ladle bottoms with an effective radius of ≥ 2m, e) an inlet end of said pouring channel is arranged offset the step along its border facing the impact area.
A manufacturing method of a permanent magnet comprising steps of milling magnet material into magnet powder; adding an organometallic compound expressed with a structural formula of M- n M representing V, Mo, Zr, Ta, Ti, W or Nb, R representing a substituent group consisting of a straight-chain or branched-chain hydrocarbon, and n representing the valence of the metal or metalloid; to the magnet powder obtained at the step of milling magnet material and getting the organometallic compound adhered to particle surfaces of the magnet powder; compacting the magnet powder of which particle surfaces have got adhesion of the organometallic compound so as to obtain a compact body; calcining the compact body in hydrogen atmosphere so as to obtain a calcined body of which residual carbon content is reduced in comparison with before calcining the compact body, wherein the step of calcining causes thermal decomposition of the organometallic compound and removes R so as to reduce residual carbon content; and sintering the calcined body, wherein the permanent magnet is Nd-Fe-B based, and the permanent magnet includes Nd within a range of 25 to 37 wt%, Fe within a range of 60 to 75 wt% and B within a range of 1 to 2 wt%.
An adjuvant composition comprising, by weight of composition: from 25 wt% to 75 wt% of an alkali metal bicarbonate; from 15 wt% to 50 wt% of potassium sulfate; from 0.01 wt% to 15 wt% of a drift reduction agent comprising at least one polysaccharide or at least one derivatized polysaccharide; and from 0.01 wt% to 10 wt% of a dispersant, wherein the adjuvant composition is dispersed in a liquid medium and wherein the at least one derivatized polysaccharide is hydroxypropyl guar or carboxymethylhydroxypropyl guar; or wherein the at least one derivatized polysaccharide is hydroxypropyl guar, carboxymethyl guar, hydroxypropyl trimethylammonium guar, hydroxypropyl lauryldimethylammonium guar or hydroxypropyl stearyldimethylammonium guar. from 25 wt% to 75 wt% of an alkali metal bicarbonate; from 15 wt% to 50 wt% of potassium sulfate; from 0.01 wt% to 15 wt% of a drift reduction agent comprising at least one polysaccharide or at least one derivatized polysaccharide; and from 0.01 wt% to 10 wt% of a dispersant, wherein the adjuvant composition is dispersed in a liquid medium and wherein the at least one derivatized polysaccharide is hydroxypropyl guar or carboxymethylhydroxypropyl guar; or wherein the at least one derivatized polysaccharide is hydroxypropyl guar, carboxymethyl guar, hydroxypropyl trimethylammonium guar, hydroxypropyl lauryldimethylammonium guar or hydroxypropyl stearyldimethylammonium guar.
An outdoor fan motor comprising: a stator including a plurality of cores in which aluminum wires are used as windings; a rotor rotatably provided on an inner circumferential side of the stator; a body outer shell of a molded resin that secures the stator; a terminal block provided to a bottom portion of the body outer shell and including terminals with which the stator and an external power source are connected to each other; and lead wires made of copper wires and connecting the terminals of the terminal block to the aluminum wires forming the windings, wherein each lead wire is surrounded by a first varnished tube on a side of each lead wire that is nearer to the terminal block, and wherein a water entry preventing member is provided between the terminal block and the first varnished tube that closes a gap between the first varnished tube and the lead wire to prevent entry of water. a stator including a plurality of cores in which aluminum wires are used as windings; a rotor rotatably provided on an inner circumferential side of the stator; a body outer shell of a molded resin that secures the stator; a terminal block provided to a bottom portion of the body outer shell and including terminals with which the stator and an external power source are connected to each other; and lead wires made of copper wires and connecting the terminals of the terminal block to the aluminum wires forming the windings, wherein each lead wire is surrounded by a first varnished tube on a side of each lead wire that is nearer to the terminal block, and wherein a water entry preventing member is provided between the terminal block and the first varnished tube that closes a gap between the first varnished tube and the lead wire to prevent entry of water.
Devulcanized rubber obtained by reaction of vulcanized rubber with vinylsilane, characterized in that the Total Area of Visible Particles (TAVP)of the devulcanized rubber is < 2.7 %, the TAVP being measured as described in the description.
A method for establishing and maintaining a recovery service location for a service, comprising: synchronizing a primary location of a service with a secondary location of the service while the primary location of the service is actively receiving requests from users, wherein the secondary location of the service is substantially configured the same as the primary location of the service and is updated as the primary location is updated; detecting a network failure of the primary location of the service; and setting the secondary location of the service as the primary location in response to detesting the network failure; wherein synchronizing the primary location of the service with the secondary location of the service comprises: creating at the primary location full backups of databases and transaction logs; replicating the full backups and transaction logs to the secondary location; and replaing the transaction logs as they are received at the secondary location of the service; characterised in that the method further comprises updating a read count when the backup is read in order to be replayed/restored at the secondary location and storing a name of a database from which the backup/log was made. synchronizing a primary location of a service with a secondary location of the service while the primary location of the service is actively receiving requests from users, wherein the secondary location of the service is substantially configured the same as the primary location of the service and is updated as the primary location is updated; detecting a network failure of the primary location of the service; and setting the secondary location of the service as the primary location in response to detesting the network failure; wherein synchronizing the primary location of the service with the secondary location of the service comprises: creating at the primary location full backups of databases and transaction logs; replicating the full backups and transaction logs to the secondary location; and replaing the transaction logs as they are received at the secondary location of the service; creating at the primary location full backups of databases and transaction logs; replicating the full backups and transaction logs to the secondary location; and replaing the transaction logs as they are received at the secondary location of the service;
A high pressure, high temperature, seal-less valve, comprising: a body comprising a control portion operatively coupled to a return portion, a piston, wherein said piston comprises a control portion operatively coupled to a return portion, wherein the piston control portion is housed in the body control portion and the piston return portion is housed in the body return portion, wherein said piston is movable between actuated and unactuated positions, the body return portion having a fluid inlet and an assembly outlet, the body control portion having a fluid outlet, wherein said piston control portion is capable of being acted upon to move said piston to said actuated position, a control biasing member acting on the piston control portion, and a return biasing member acting on the piston return portion, the biasing members (260, 270) biasing the piston into the unactuated position; wherein said valve does not include a seal, wherein when said piston is in said unactuated position, fluid may flow into inlet and out of outlet, and when said piston is in said actuated position, fluid may flow into inlet and out of assembly outlet, wherein said valve is capable of operating with fluid at about 700 bar, 150 degree Celsius, for a cycle of 1 second, for one million cycles without failing. a body comprising a control portion operatively coupled to a return portion, a piston, wherein said piston comprises a control portion operatively coupled to a return portion, wherein the piston control portion is housed in the body control portion and the piston return portion is housed in the body return portion, wherein said piston is movable between actuated and unactuated positions, the body return portion having a fluid inlet and an assembly outlet, the body control portion having a fluid outlet, wherein said piston control portion is capable of being acted upon to move said piston to said actuated position, a control biasing member acting on the piston control portion, and a return biasing member acting on the piston return portion, the biasing members (260, 270) biasing the piston into the unactuated position; wherein said valve does not include a seal, wherein when said piston is in said unactuated position, fluid may flow into inlet and out of outlet, and when said piston is in said actuated position, fluid may flow into inlet and out of assembly outlet, wherein said valve is capable of operating with fluid at about 700 bar, 150 degree Celsius, for a cycle of 1 second, for one million cycles without failing.
Support bearing with a ring-shaped housing, which surrounds a longitudinal axis extending in an axial direction (x) and is composed of two ring-shaped housing shells (4, 5) arranged on top of each other in an axial direction (x), one of which forms a housing cover and another forms a housing base, a ring-shaped elastomer body arranged in the housing, which is enclosed between the housing shells (4, 5) in an axial direction (x) and has a central ring opening, and a ring-shaped inner part, which is arranged in the ring opening of the elastomer body and held by it, characterised by a support ring, which is arranged on a side of the housing base facing away from the housing cover and is rotatable on this side about the longitudinal axis, wherein the housing shells (4, 5) are made of plastic.
A method for producing a flavorant-carrying adsorbent particle, comprising: spraying a liquid flavor-emitting composition containing a flavorant and glucan onto an adsorbent core particle having a BET specific surface area of 700 m 2 /g or greater while stirring the adsorbent core particle under reduced pressure.
An arrangement for discharging an electrical energy storage in a wind turbine comprising: a resistor; and a cooling fan arranged to provide an air flow over the resistor; wherein the arrangement is configured to discharge the electrical energy storage by: connecting the electrical energy storage to the resistor such that a current from the electrical energy storage flows through the resistor; disconnecting the electrical energy storage from the resistor when a voltage across the electrical energy storage reaches a first predetermined voltage; and powering the cooling fan with the electrical energy storage at least during a period after the predetermined voltage has been reached, thereby cooling the resistor and further discharging the electrical energy storage. a resistor; and a cooling fan arranged to provide an air flow over the resistor; wherein the arrangement is configured to discharge the electrical energy storage by: connecting the electrical energy storage to the resistor such that a current from the electrical energy storage flows through the resistor; disconnecting the electrical energy storage from the resistor when a voltage across the electrical energy storage reaches a first predetermined voltage; and powering the cooling fan with the electrical energy storage at least during a period after the predetermined voltage has been reached, thereby cooling the resistor and further discharging the electrical energy storage. connecting the electrical energy storage to the resistor such that a current from the electrical energy storage flows through the resistor; disconnecting the electrical energy storage from the resistor when a voltage across the electrical energy storage reaches a first predetermined voltage; and powering the cooling fan with the electrical energy storage at least during a period after the predetermined voltage has been reached, thereby cooling the resistor and further discharging the electrical energy storage.