mhurhangee/ep-ind-claims huggingface dataset:
Plant cultivation system comprising at least one tray, a capsule holder, capsules (180, 182, 184), a contactless docking station and at least one irrigation vessel, wherein the at least one tray can be inserted in the irrigation vessel, wherein the capsule holder can be received in the tray and the capsule holder has a plurality of cut-outs (30, 32, 34), into which a capsule (180, 182, 184) with a plant breeding substrate can be inserted in each case and due to gravity water can automatically flow back out of the tray into the irrigation vessel through at least one floor opening, wherein by means of an electric pump unit assigned to the irrigation vessel, water can be conveyed out of the irrigation vessel into the tray in order to irrigate the capsules inserted into the cut-outs (30, 32, 34) and the irrigation vessel can be placed on the contactless docking station in order to supply the electric pump unit and the docking station can be connected to the power supply by way of a connection cable.
A hybrid circuit breaker for interrupting a fault current in an electrical circuit line having a line impedance, the hybrid circuit breaker comprising - a mechanical circuit breaker (S mech) adapted to interrupt the line upon detecting the fault current, and - a semiconductor device (G 1, G 2, V) arranged in parallel with the mechanical circuit breaker to conduct the fault current when the mechanical circuit breaker is disconnected, characterized in that - the hybrid circuit breaker further comprises a branch connected between the electrical circuit line and ground, the branch including a variable impedance unit (5, R), and - a control unit configured, upon detecting the fault current, • to adjust the impedance value of the variable impedance unit (5, R), and • to connect the variable impedance unit (5, R) in parallel with the line impedance. - a mechanical circuit breaker (S mech) adapted to interrupt the line upon detecting the fault current, and - a semiconductor device (G 1, G 2, V) arranged in parallel with the mechanical circuit breaker to conduct the fault current when the mechanical circuit breaker is disconnected, - the hybrid circuit breaker further comprises a branch connected between the electrical circuit line and ground, the branch including a variable impedance unit (5, R), and - a control unit configured, upon detecting the fault current, • to adjust the impedance value of the variable impedance unit (5, R), and • to connect the variable impedance unit (5, R) in parallel with the line impedance. • to adjust the impedance value of the variable impedance unit (5, R), and • to connect the variable impedance unit (5, R) in parallel with the line impedance.
A draper platform for mounting on a feeder house of an agricultural combine, the draper platform comprising: a frame; a center belt conveyor to carry cut crop material rearwardly towards a center opening in the frame through which crop may be fed into a feeder house; a left side belt conveyor to carry cut crop material to the center belt conveyor; a right side belt conveyor to carry cut crop material to the center belt conveyor; at least one elongate reciprocating knife assembly extending along a front edge of each of the center belt conveyor, the left side belt conveyor and the right side belt conveyor; a conveyor drum above the center belt conveyor; and a central roller baffle comprising a rotatable support rotatably supported above the conveyor drum and a crop driver mounted to the rotatable support, characterized in that the central roller baffle is reconfigurable, that the crop driver is removably mounted to the rotatable support and that the rotatable support and the crop driver are configured such that the crop driver is selectively mountable to the rotatable support in either of a first orientation and a second orientation, and wherein the crop driver is configured to differently interact with the cut crops during rotation of the rotatable support in each of the first and second orientations by offering a first level of crop driving aggressiveness when in the first orientation and a second greater level of crop aggressiveness when mounted in the second orientation. a frame; a center belt conveyor to carry cut crop material rearwardly towards a center opening in the frame through which crop may be fed into a feeder house; a left side belt conveyor to carry cut crop material to the center belt conveyor; a right side belt conveyor to carry cut crop material to the center belt conveyor; at least one elongate reciprocating knife assembly extending along a front edge of each of the center belt conveyor, the left side belt conveyor and the right side belt conveyor; a conveyor drum above the center belt conveyor; and a central roller baffle comprising a rotatable support rotatably supported above the conveyor drum and a crop driver mounted to the rotatable support, characterized in that the central roller baffle is reconfigurable, that the crop driver is removably mounted to the rotatable support and that the rotatable support and the crop driver are configured such that the crop driver is selectively mountable to the rotatable support in either of a first orientation and a second orientation, and wherein the crop driver is configured to differently interact with the cut crops during rotation of the rotatable support in each of the first and second orientations by offering a first level of crop driving aggressiveness when in the first orientation and a second greater level of crop aggressiveness when mounted in the second orientation.
An autonomous robot vehicle comprising: a conveyance system; a securable compartment configured to autonomously lock and unlock, the securable compartment containing an item for delivery to a particular individual; a personal identification reader that includes a camera; a sensor system using at least one of LiDAR or RADAR; at least one processor; and a memory storing instructions which, when executed by the at least one processor, cause the autonomous robot vehicle to, autonomously: travel to a destination location of the particular individual; capture, by the personal identification reader at the destination location, a personal identification object that includes a face; capture the face, by the sensor system at the destination location, to provide sensor face data; determine that the captured personal identification object matches an identity of the particular individual, and determine that the face is a three-dimensional face based on the sensor face data and that the captured face is a live face and not a photograph of a face if the face is a three-dimensional face; and unlock the securable compartment based on the determination. a conveyance system; a securable compartment configured to autonomously lock and unlock, the securable compartment containing an item for delivery to a particular individual; a personal identification reader that includes a camera; a sensor system using at least one of LiDAR or RADAR; at least one processor; and a memory storing instructions which, when executed by the at least one processor, cause the autonomous robot vehicle to, autonomously: travel to a destination location of the particular individual; capture, by the personal identification reader at the destination location, a personal identification object that includes a face; capture the face, by the sensor system at the destination location, to provide sensor face data; determine that the captured personal identification object matches an identity of the particular individual, and determine that the face is a three-dimensional face based on the sensor face data and that the captured face is a live face and not a photograph of a face if the face is a three-dimensional face; and unlock the securable compartment based on the determination. travel to a destination location of the particular individual; capture, by the personal identification reader at the destination location, a personal identification object that includes a face; capture the face, by the sensor system at the destination location, to provide sensor face data; determine that the captured personal identification object matches an identity of the particular individual, and determine that the face is a three-dimensional face based on the sensor face data and that the captured face is a live face and not a photograph of a face if the face is a three-dimensional face; and unlock the securable compartment based on the determination.
A method for preparing corneal endothelial progenitor cells in which a cell population isolated from corneal endothelial cell tissue is grown in adherent culture at a low density by using a serum-free medium, thereby obtaining the corneal endothelial progenitor cells, wherein culture is performed with the cell population seeded at a density of 5000 cells/cm 2 or less.
A method for providing anti-glare exposures for an imaging device comprising: determining an autofocus distance from the imaging device to an object of interest; estimating a distance from the imaging device to a flash reflecting surface; determining the flash reflecting surface is between the imaging device and the object of interest based on a comparison of the autofocus distance and the distance to the flash reflecting surface; and disabling a flash of the imaging device during an exposure of the object of interest based on the determination the flash reflecting surface is between the imaging device and the object of interest. determining an autofocus distance from the imaging device to an object of interest; estimating a distance from the imaging device to a flash reflecting surface; determining the flash reflecting surface is between the imaging device and the object of interest based on a comparison of the autofocus distance and the distance to the flash reflecting surface; and disabling a flash of the imaging device during an exposure of the object of interest based on the determination the flash reflecting surface is between the imaging device and the object of interest.
A method, comprising: creating a first search key from one or more variable data of a message received at a forwarding engine in a network environment, wherein the variable data is data that may be changed by the message forwarding engine; creating a second search key from one or more constant data of the message, wherein the constant data is data that is not changed by the message forwarding engine; identifying a first database entry in a first Access Control List, ACL, database based on the first search key; identifying a second database entry in a second ACL database based on the second search key; and performing an action associated with the first database entry when a correlation is identified between the first and second database entries. creating a first search key from one or more variable data of a message received at a forwarding engine in a network environment, wherein the variable data is data that may be changed by the message forwarding engine; creating a second search key from one or more constant data of the message, wherein the constant data is data that is not changed by the message forwarding engine; identifying a first database entry in a first Access Control List, ACL, database based on the first search key; identifying a second database entry in a second ACL database based on the second search key; and performing an action associated with the first database entry when a correlation is identified between the first and second database entries.
A modular multi-level converter, comprising: a plurality of sub-modules comprising switching elements; a plurality of sub-control units respectively configured to control the plurality of switching elements included in the plurality of sub-modules; and a central control unit configured to determine switching operation conditions of the plurality of sub-modules, and configured to transmit control signals corresponding to the determined switching operation conditions to the plurality of sub-control units, wherein each of the plurality of sub-control units is configured to acquire state information on the sub-module controlled thereby when an address confirm request is transmitted from the central control unit, is configured to insert the acquired state information into address information, and is configured to transmit the address information to the central control unit, characterized in that: the state information of the sub-module inserted into the address information comprises information on a switching history of the sub-module, and wherein the central control unit is configured to determine switching operation conditions of the plurality of sub-modules based on the switching history information of the sub-modules. a plurality of sub-modules comprising switching elements; a plurality of sub-control units respectively configured to control the plurality of switching elements included in the plurality of sub-modules; and a central control unit configured to determine switching operation conditions of the plurality of sub-modules, and configured to transmit control signals corresponding to the determined switching operation conditions to the plurality of sub-control units, wherein each of the plurality of sub-control units is configured to acquire state information on the sub-module controlled thereby when an address confirm request is transmitted from the central control unit, is configured to insert the acquired state information into address information, and is configured to transmit the address information to the central control unit, characterized in that: the state information of the sub-module inserted into the address information comprises information on a switching history of the sub-module, and wherein the central control unit is configured to determine switching operation conditions of the plurality of sub-modules based on the switching history information of the sub-modules. the state information of the sub-module inserted into the address information comprises information on a switching history of the sub-module, and wherein the central control unit is configured to determine switching operation conditions of the plurality of sub-modules based on the switching history information of the sub-modules.
A ligand-targeted delivery system comprising at least a ligand linked to a support carrying an agent wherein: • The ligand is a peptide comprising the amino acid sequence of SEQ ID NO: 1 • the support is a pH sensitive liposome capable of intracellular triggered release; • the agent is a therapeutic, diagnostic and/or imaging agent, encapsulated, entrapped or intercalated in the support. • The ligand is a peptide comprising the amino acid sequence of SEQ ID NO: 1 • the support is a pH sensitive liposome capable of intracellular triggered release; • the agent is a therapeutic, diagnostic and/or imaging agent, encapsulated, entrapped or intercalated in the support.
A retractable tubular assembly, comprising: a first tubular; a second tubular at least partially disposed in the first tubular; an engagement member for coupling the first tubular to the second tubular, the engagement member having an engaged position to lock the first tubular to the second tubular and a disengaged position to release the first tubular from the second tubular; and a selectively releasable support member disposed in the second tubular for maintaining the engagement member in the engaged position, wherein the support member includes one or more channels for re-establishing fluid communication between the first tubular and the second tubular, and wherein axial movement of the support member allows the engagement member to move to the disengaged position, wherein axial movement of the support member opens said one or more channels for fluid communication, and wherein the support member is a shear sleeve, characterized in that the shear sleeve comprises a seat for an activating ball, and that the one or more channels are formed in the sleeve and have one end terminating in a sidewall of the shear sleeve and another end terminating at the bottom of the shear sleeve. a first tubular; a second tubular at least partially disposed in the first tubular; an engagement member for coupling the first tubular to the second tubular, the engagement member having an engaged position to lock the first tubular to the second tubular and a disengaged position to release the first tubular from the second tubular; and a selectively releasable support member disposed in the second tubular for maintaining the engagement member in the engaged position, wherein the support member includes one or more channels for re-establishing fluid communication between the first tubular and the second tubular, and wherein axial movement of the support member allows the engagement member to move to the disengaged position, wherein axial movement of the support member opens said one or more channels for fluid communication, and wherein the support member is a shear sleeve, characterized in that the shear sleeve comprises a seat for an activating ball, and that the one or more channels are formed in the sleeve and have one end terminating in a sidewall of the shear sleeve and another end terminating at the bottom of the shear sleeve.
An image encoding method performed by an encoding apparatus, the method comprising: generating an Adaptive Motion Vector Range, AMVR, enable flag; deriving a Motion Vector Difference, MVD, for a current block in a current picture; deriving an MVD representative value for an MVD range comprising a value of the MVD among a plurality of MVD ranges; generating a coded MVD corresponding to the MVD representative value; and outputting the AMVR enable flag and the coded MVD through a bitstream, characterized in that the method further comprises: generating a non-linear AMVR range flag that indicates whether not all the plurality of MVD ranges are equal MVD ranges; and when the AMVR enable flag is 1, outputting the non-linear AMVR range flag through the bitstream. generating an Adaptive Motion Vector Range, AMVR, enable flag; deriving a Motion Vector Difference, MVD, for a current block in a current picture; deriving an MVD representative value for an MVD range comprising a value of the MVD among a plurality of MVD ranges; generating a coded MVD corresponding to the MVD representative value; and outputting the AMVR enable flag and the coded MVD through a bitstream, characterized in that the method further comprises: generating a non-linear AMVR range flag that indicates whether not all the plurality of MVD ranges are equal MVD ranges; and when the AMVR enable flag is 1, outputting the non-linear AMVR range flag through the bitstream. generating a non-linear AMVR range flag that indicates whether not all the plurality of MVD ranges are equal MVD ranges; and when the AMVR enable flag is 1, outputting the non-linear AMVR range flag through the bitstream.
A method to mitigate a root cause of a Wi-Fi access point (166,200) not having connectivity with a network comprising: detecting, by an isolated Wi-Fi access point (166,200), that connectivity to the network over a first communication channel has failed; automatically generating or acquiring, by a processor and memory of the isolated Wi-Fi access point, a status message related to the connectivity failure, the status message including an ID for the isolated Wi-Fi access point; automatically broadcasting, using a first beacon signal, and over a second communication channel different than the first communication channel, the status message; wherein the second channel is a Bluetooth broadcast communication channel; receiving, by a neighboring device, the status message from the isolated Wi-Fi access point over the second communication channel; determining, by the neighboring device, that the neighboring device is not connected to the network; generating, by the neighboring device, an enhanced status message that includes the ID for the isolated Wi-Fi access point and an ID for the neighboring device; broadcasting, using a second beacon signal, the enhanced status message over a Bluetooth communication channel; forwarding via transmitting, by a second neighboring device, the enhanced status message to a network monitoring server over a third communication channel, the third communication channel being different than the first and second communications channels; receiving, at the network monitoring server, the enhanced status message; and automatically invoking a mitigating action for the isolated Wi-Fi access point. detecting, by an isolated Wi-Fi access point (166,200), that connectivity to the network over a first communication channel has failed; automatically generating or acquiring, by a processor and memory of the isolated Wi-Fi access point, a status message related to the connectivity failure, the status message including an ID for the isolated Wi-Fi access point; automatically broadcasting, using a first beacon signal, and over a second communication channel different than the first communication channel, the status message; wherein the second channel is a Bluetooth broadcast communication channel; receiving, by a neighboring device, the status message from the isolated Wi-Fi access point over the second communication channel; determining, by the neighboring device, that the neighboring device is not connected to the network; generating, by the neighboring device, an enhanced status message that includes the ID for the isolated Wi-Fi access point and an ID for the neighboring device; broadcasting, using a second beacon signal, the enhanced status message over a Bluetooth communication channel; forwarding via transmitting, by a second neighboring device, the enhanced status message to a network monitoring server over a third communication channel, the third communication channel being different than the first and second communications channels; receiving, at the network monitoring server, the enhanced status message; and automatically invoking a mitigating action for the isolated Wi-Fi access point.