mhurhangee/patent-ind-claim-en huggingface dataset:
A medium voltage power supply, comprising: a plurality of medium voltage power lines ; and a plurality of medium voltage switchboards , connected by respective medium voltage power lines ; and a data network connecting the medium voltage switchboards ; wherein the medium voltage switchboards each comprise a respective electrical protection equipment and respective medium voltage signal couplers driven by the electrical protection equipment to transmit and receive Generic Object Oriented Substation Event (GOOSE) messages through the medium voltage power lines ; whereby the electrical protection equipment is configured to send GOOSE messages through the data network , to detect malfunctions in the data network , and to send GOOSE messages through the medium voltage power lines in response to the detection of malfunctions in the data network . a plurality of medium voltage power lines ; and a plurality of medium voltage switchboards , connected by respective medium voltage power lines ; and a data network connecting the medium voltage switchboards ; wherein the medium voltage switchboards each comprise a respective electrical protection equipment and respective medium voltage signal couplers driven by the electrical protection equipment to transmit and receive Generic Object Oriented Substation Event (GOOSE) messages through the medium voltage power lines ; whereby the electrical protection equipment is configured to send GOOSE messages through the data network , to detect malfunctions in the data network , and to send GOOSE messages through the medium voltage power lines in response to the detection of malfunctions in the data network .
A control system for a wind park , said wind park comprising wind turbines arranged in a convex polygon comprising straight sides connecting vertices of said polygon, wherein a node wind turbine of a first type is located at each vertex of said polygon, one or more intermediate wind turbine of a second type being located along each side of said polygon between two node wind turbines , said polygon forming an interior area (A) within said sides , wherein said interior area (A) is free of turbines of said first and second type, wherein said polygon is a quadrilateral, said control system being adapted to: - obtain meteorological data and/or information comprising at least a current wind direction, - use wind turbine state data and/or information for each wind turbine in said wind park, said wind turbine state data and/or information comprising at least wind turbine position information, - on the basis of said meteorological data and/or information and said wind turbine state data and/or information, control activation and deactivation of said wind turbines of said wind park , characterized in that : said quadrilateral is associated with four sectors (W 1 ,W 2 ,W 3 ,W 4 ), each sector (W 1 ,W 2 ,W 3 ,W 4 ) being defined by diagonals (G 1 , G 2 ) connecting two opposing vertices of said quadrilateral such that each sector (W 1 ,W 2 ,W 3 ,W 4 ) comprises a side of said quadrilateral, said control system being adapted to: - determine within which sector (W 1 ,W 2 ,W 3 ,W 4 ) said current wind direction is located, - on the basis of the determined sector (W 1 ,W 2 ,W 3 ,W 4 ), control said intermediate wind turbines such that said intermediate wind turbines of said side in the determined sector (W 1 ,W 2 ,W 3 ,W 4 ) as well as its opposing side are active and such that the intermediate wind turbines of the other two sides are inactive. - obtain meteorological data and/or information comprising at least a current wind direction, - use wind turbine state data and/or information for each wind turbine in said wind park, said wind turbine state data and/or information comprising at least wind turbine position information, - on the basis of said meteorological data and/or information and said wind turbine state data and/or information, control activation and deactivation of said wind turbines of said wind park , - determine within which sector (W 1 ,W 2 ,W 3 ,W 4 ) said current wind direction is located, - on the basis of the determined sector (W 1 ,W 2 ,W 3 ,W 4 ), control said intermediate wind turbines such that said intermediate wind turbines of said side in the determined sector (W 1 ,W 2 ,W 3 ,W 4 ) as well as its opposing side are active and such that the intermediate wind turbines of the other two sides are inactive.
Receiving space of a galley for storage for containers in a vehicle, having a stowage and removal system with at least one transfer plate and at least one container which can be positioned on the transfer plate and has a rear container wall characterised by : - a rail system in the bottom region of the receiving space , - the transfer plate being movable on the rail system in the floor region of the receiving space and assuming a storage position and a removal position for the container , - the storage position of the container with its rear container wall being provided in the region of a rear wall of the receiving space and the removal position being provided in the region of an insertion opening for inserting and removing a container into the receiving space , arranged opposite the rear wall . - a rail system in the bottom region of the receiving space , - the transfer plate being movable on the rail system in the floor region of the receiving space and assuming a storage position and a removal position for the container , - the storage position of the container with its rear container wall being provided in the region of a rear wall of the receiving space and the removal position being provided in the region of an insertion opening for inserting and removing a container into the receiving space , arranged opposite the rear wall .
An apparatus for removing foreign substances in a container, the apparatus comprising: a conveying device configured to convey a container (C) having an opening portion, and to input gas flow into the container (C) through nozzles ; and a first nozzle configured to eject a gas toward the opening portion of the container (C), wherein the first nozzle is disposed to be spaced, toward one side, at a first spacing distance (d1), apart from an imaginary vertical surface (A) that runs through a center of the container (C) and extends in a conveyance direction in which the container (C) is conveyed, the apparatus further comprising: a second nozzle configured to eject a gas toward the opening portion of the container (C) and disposed to be spaced apart from the first nozzle in the conveyance direction in which the container (C) is conveyed, wherein the second nozzle is disposed to be spaced, toward the other side, at a second spacing distance (d2), apart from the imaginary vertical surface (A). a conveying device configured to convey a container (C) having an opening portion, and to input gas flow into the container (C) through nozzles ; and a first nozzle configured to eject a gas toward the opening portion of the container (C), wherein the first nozzle is disposed to be spaced, toward one side, at a first spacing distance (d1), apart from an imaginary vertical surface (A) that runs through a center of the container (C) and extends in a conveyance direction in which the container (C) is conveyed, the apparatus further comprising: a second nozzle configured to eject a gas toward the opening portion of the container (C) and disposed to be spaced apart from the first nozzle in the conveyance direction in which the container (C) is conveyed, wherein the second nozzle is disposed to be spaced, toward the other side, at a second spacing distance (d2), apart from the imaginary vertical surface (A).
A decoding method for decoding a current block of a video, wherein the decoding method comprises: obtaining a value of a Most Probable Modes, MPM, flag for the current block from a bitstream; obtaining an MPM index for the current block from the bitstream, when the value of the MPM flag indicates that an intra prediction mode for the current block is an intra prediction mode comprised in an MPM set of intra prediction modes; obtaining a value of the intra prediction mode for the current block, based on the MPM index and the MPM set for the current block, wherein truncated unary binarization is used for signaling of the MPM index; wherein when an intra prediction mode of a left neighboring block of the current block is a Planar mode, and an intra prediction mode of an above neighboring block of the current block is a Planar mode, the MPM set of prediction modes comprises: a Planar mode, a DC mode, a Vertical mode, a Horizontal mode, an intra prediction mode corresponding to the Vertical mode with a first offset, and an intra prediction mode corresponding to the Vertical mode with a second offset, wherein the first offset is -4 and the second offset is +4. obtaining a value of a Most Probable Modes, MPM, flag for the current block from a bitstream; obtaining an MPM index for the current block from the bitstream, when the value of the MPM flag indicates that an intra prediction mode for the current block is an intra prediction mode comprised in an MPM set of intra prediction modes; obtaining a value of the intra prediction mode for the current block, based on the MPM index and the MPM set for the current block, wherein truncated unary binarization is used for signaling of the MPM index; wherein when an intra prediction mode of a left neighboring block of the current block is a Planar mode, and an intra prediction mode of an above neighboring block of the current block is a Planar mode, the MPM set of prediction modes comprises: a Planar mode, a DC mode, a Vertical mode, a Horizontal mode, an intra prediction mode corresponding to the Vertical mode with a first offset, and an intra prediction mode corresponding to the Vertical mode with a second offset, wherein the first offset is -4 and the second offset is +4.
A drill tooth for use with a drill unit where the drill tooth includes a first face , a second face and a base face such that: - the first face and the second face are immediately adjacent one another and are coterminous at a first edge and a second edge ; - all faces , except the base face , are independently coterminous with the base face ; and extend away from the base face in the same direction; - the second edge is the edge of the drill tooth most longitudinally distant from the base face ; - the first face includes a first alpha edge where the first alpha edge is an edge of the first face opposite to the first edge ; - the drill tooth further includes a first face alignment line which is a line joining the first edge and the first alpha edge where the first face and the base face are coterminous; - the second face includes a second alpha edge which is an edge of the second face opposite the first edge ; - the drill tooth further includes a second face alignment line which is a line joining the second alpha edge and the first edge where the second face and the base face are coterminous; - the first face is planar or convex; - the second face is planar or concave; and - the angle between the first face alignment line and the second face alignment line is a minimum of 0° and a maximum of 74°. - the first face and the second face are immediately adjacent one another and are coterminous at a first edge and a second edge ; - all faces , except the base face , are independently coterminous with the base face ; and extend away from the base face in the same direction; - the second edge is the edge of the drill tooth most longitudinally distant from the base face ; - the first face includes a first alpha edge where the first alpha edge is an edge of the first face opposite to the first edge ; - the drill tooth further includes a first face alignment line which is a line joining the first edge and the first alpha edge where the first face and the base face are coterminous; - the second face includes a second alpha edge which is an edge of the second face opposite the first edge ; - the drill tooth further includes a second face alignment line which is a line joining the second alpha edge and the first edge where the second face and the base face are coterminous; - the first face is planar or convex; - the second face is planar or concave; and - the angle between the first face alignment line and the second face alignment line is a minimum of 0° and a maximum of 74°.
Multifunctional indicating and operating device for a motor vehicle with a display for indicating information, wherein at least one indicating instrument in which a parameter relating to the operation of the motor vehicle can be indicated in the form of a bar is displayed in the display and the length of the displayed bar depends on the parameter, characterized in that the thickness of the displayed bar also depends on the parameter.
A guard structure configured to couple to a patient support , the guard structure movable between a raised position and a lowered position, the guard structure comprising a locking structure configured to lock the guard structure in the raised position and configured to unlock through actuation of a release, the guard structure having an inside surface and an outside surface, characterized in that the guard structure further comprises a release access port on said inside surface, the release being accessible to the occupant only when the release access port is opened to prevent inadvertent actuation by the occupant.
A composition that comprises a peptide consisting of an amino acid sequence with at least a 70% of identity with SEQ ID NO: 1, or consisting of SEQ ID NO: 1 or SEQ ID NO: 2, for use in the prevention or treatment of Post-Traumatic Stress Disorder, acute stress syndrome and/or general adaptation syndrome.
A method for dynamically associating transmit points, TPs, with user equipment, UEs, in a radio network, comprising: generating a dynamic association map comprising a plurality of UEs and a plurality of TPs associated with the UEs, wherein the dynamic association map is generated by using the equation: a k , i = 1 load i log 1 + CSINR k , i ∀ k , i ; wherein k is a UE index, i is a TP index, load i represents a weighted sum of UE associations to TP i , and CSINR k = max ∀ H ⊆ H k CSINR k , i H ; wherein CSINR k,i ( H ) is the signal-to-interference-plus-noise ratio of UE k assuming that i is the serving cell and all UEs in set H are helping; determining bonding levels of pairs of the TPs based on the dynamic association map, wherein the bonding levels represent how well the pairs of the TPs can cooperate in a collaborative TP group; grouping the TPs based on the bonding levels and the dynamic association map to form collaborative TP groups, wherein the collaborative TP groups coordinate scheduling to improve a network performance metric by increasing throughput; and generating a new dynamic association map based on the collaborative TP groups. generating a dynamic association map comprising a plurality of UEs and a plurality of TPs associated with the UEs, wherein the dynamic association map is generated by using the equation: a k , i = 1 load i log 1 + CSINR k , i ∀ k , i ; wherein k is a UE index, i is a TP index, load i represents a weighted sum of UE associations to TP i , and CSINR k = max ∀ H ⊆ H k CSINR k , i H ; wherein CSINR k,i ( H ) is the signal-to-interference-plus-noise ratio of UE k assuming that i is the serving cell and all UEs in set H are helping; determining bonding levels of pairs of the TPs based on the dynamic association map, wherein the bonding levels represent how well the pairs of the TPs can cooperate in a collaborative TP group; grouping the TPs based on the bonding levels and the dynamic association map to form collaborative TP groups, wherein the collaborative TP groups coordinate scheduling to improve a network performance metric by increasing throughput; and generating a new dynamic association map based on the collaborative TP groups.
An ultrasonic osteotome bit, comprising a bit bar , a bit body and a bit tip , with one end of the bit bar being connected to the bit tip , and the other end of the bit bar being connected to the bit body , the bit tip is of a cylindrical or substantially cylindrical structure with a cross section of a polygonal structure, wherein the bit tip has at least two cutting faces characterized by the at least two cutting faces having different cutting widths (a, b) for generating different tissue cutting widths, wherein the shortest distance among the distances between respective opposite sides of the polygonal structure is not equal to the longest distance among the distances between respective opposite sides of the polygonal structure, and the two opposite sides having the shortest distance are perpendicular to the two opposite sides having the longest distance, so that the bit tip has at least two cutting widths (a, b), and wherein a first cutting width (a) of the at least two cutting widths is equal to the shortest distance, and a second cutting width (b) of the at least two cutting widths is equal to the longest distance. the bit tip is of a cylindrical or substantially cylindrical structure with a cross section of a polygonal structure, wherein the bit tip has at least two cutting faces characterized by the at least two cutting faces having different cutting widths (a, b) for generating different tissue cutting widths, wherein the shortest distance among the distances between respective opposite sides of the polygonal structure is not equal to the longest distance among the distances between respective opposite sides of the polygonal structure, and the two opposite sides having the shortest distance are perpendicular to the two opposite sides having the longest distance, so that the bit tip has at least two cutting widths (a, b), and wherein a first cutting width (a) of the at least two cutting widths is equal to the shortest distance, and a second cutting width (b) of the at least two cutting widths is equal to the longest distance.
An artificial bone comprising: a bionic bone dimensioned according to 3D data of a portion of an original bone to be replaced; a supporting pillar dimensioned according to an inclination of the original bone , for connecting the bionic bone to a remaining portion of the original bone ; and a 3D porous scaffold structure ; wherein said supporting pillar and said 3D porous scaffold structure are connected to said bionic bone , said 3D porous scaffold structure covers said supporting pillar , wherein said supporting pillar is formed of two cylindrical-shaped portions and characterized in that a cuboidal-shaped portion extends between the two cylindrical-shaped portions. a bionic bone dimensioned according to 3D data of a portion of an original bone to be replaced; a supporting pillar dimensioned according to an inclination of the original bone , for connecting the bionic bone to a remaining portion of the original bone ; and a 3D porous scaffold structure ; wherein said supporting pillar and said 3D porous scaffold structure are connected to said bionic bone , said 3D porous scaffold structure covers said supporting pillar , wherein said supporting pillar is formed of two cylindrical-shaped portions and characterized in that a cuboidal-shaped portion extends between the two cylindrical-shaped portions.
A camera module comprising: a bobbin having a hollow shape; a lens barrel disposed in the bobbin and comprising at least one lens; a fixing part disposed between the lens barrel and the bobbin to prevent the lens barrel from being separated from the bobbin , wherein an inner side surface of the bobbin comprises a first region and a second region disposed below the first region, wherein a bobbin rib is formed at the first region, and the bobbin rib protrudes inwards with respect to the second region, wherein an outer side surface of the lens barrel comprises a third region facing the first region, and a fourth region facing the second region, wherein the fixing part is attached to both the bobbin rib and the third region, characterized in that the second region is spaced away from the fourth region, and wherein the fixing part comprises ultraviolet (UV) curing epoxy or thermosetting epoxy. a bobbin having a hollow shape; a lens barrel disposed in the bobbin and comprising at least one lens; a fixing part disposed between the lens barrel and the bobbin to prevent the lens barrel from being separated from the bobbin , wherein an inner side surface of the bobbin comprises a first region and a second region disposed below the first region, wherein a bobbin rib is formed at the first region, and the bobbin rib protrudes inwards with respect to the second region, wherein an outer side surface of the lens barrel comprises a third region facing the first region, and a fourth region facing the second region, wherein the fixing part is attached to both the bobbin rib and the third region, characterized in that the second region is spaced away from the fourth region, and wherein the fixing part comprises ultraviolet (UV) curing epoxy or thermosetting epoxy.
A method of reducing inrush currents in a transformer-less rectifier UPS system when an input circuit breaker of the UPS system is transitioned from an open to a closed position, the circuit breaker coupled between an AC power input and an AC input of a rectifier of the UPS system, a DC output of the rectifier coupled to a DC bus of the UPS system and an input of an inverter coupled to the DC bus, and a first AC voltage sensor coupled to the AC power input and a controller in communication with an output of the first AC voltage sensor and with the rectifier , the method comprising: using a second AC voltage sensor to monitor the AC input and provide an input to the controller ; before the circuit breaker is transitioned to the closed position from the open position, charging the DC bus to a DC voltage having a DC voltage level that is equal to a peak AC voltage level of line-line AC voltage of AC input power to the UPS system, using an output of the second AC voltage sensor and the controller to operate the rectifier as an inverter to provide an AC output voltage at the AC input of the rectifier and, using the controller to regulate the AC output voltage at the input of the rectifier to be equal to and in sync with an AC voltage at the AC power input; and using the controller to close the circuit breaker when the AC voltage at the AC input of the rectifier is equal to and in sync with the AC voltage at the AC power input. using a second AC voltage sensor to monitor the AC input and provide an input to the controller ; before the circuit breaker is transitioned to the closed position from the open position, charging the DC bus to a DC voltage having a DC voltage level that is equal to a peak AC voltage level of line-line AC voltage of AC input power to the UPS system, using an output of the second AC voltage sensor and the controller to operate the rectifier as an inverter to provide an AC output voltage at the AC input of the rectifier and, using the controller to regulate the AC output voltage at the input of the rectifier to be equal to and in sync with an AC voltage at the AC power input; and using the controller to close the circuit breaker when the AC voltage at the AC input of the rectifier is equal to and in sync with the AC voltage at the AC power input.