mhurhangee/ep-ind-claims huggingface dataset:
A communication system, comprising: a plurality of nodes (100, 10-1 to 10-4) each of which includes Operation Administration and Maintenance functions; and a control apparatus (101, 20) that controls the plurality of nodes (100, 10-1 to 10-4); wherein each of the plurality of nodes (100, 10-1 to 10-4) transmits a status change notification including information about at least one port affected by at least one failure that has occurred in a network composed by the plurality of nodes (100, 10-1 to 10-4) to the control apparatus; and wherein the control apparatus (101, 20) determines whether to perform route control on the network, route control including searching for a path that avoids a failure that has occurred in the network, on the basis of the status change notification and path information and topology information for the network; the communication system characterised in that: wherein, when a number of paths affected by a failure that has occurred in the network is 1 or less, the path being formed by at least two of the plurality of nodes (100, 10-1 to 10-4), the control apparatus (101, 20) determines not to perform the route control, leaving the failure that occurred in the network to be recovered by the Operation Administration and Maintenance functions of the plurality of nodes; and wherein when the number of paths affected by a failure that has occurred in the network is 2 or more, the control apparatus determines whether or not to perform route control so as to recover the failures occurred in the network. a plurality of nodes (100, 10-1 to 10-4) each of which includes Operation Administration and Maintenance functions; and a control apparatus (101, 20) that controls the plurality of nodes (100, 10-1 to 10-4); wherein each of the plurality of nodes (100, 10-1 to 10-4) transmits a status change notification including information about at least one port affected by at least one failure that has occurred in a network composed by the plurality of nodes (100, 10-1 to 10-4) to the control apparatus; and wherein the control apparatus (101, 20) determines whether to perform route control on the network, route control including searching for a path that avoids a failure that has occurred in the network, on the basis of the status change notification and path information and topology information for the network; the communication system characterised in that: wherein, when a number of paths affected by a failure that has occurred in the network is 1 or less, the path being formed by at least two of the plurality of nodes (100, 10-1 to 10-4), the control apparatus (101, 20) determines not to perform the route control, leaving the failure that occurred in the network to be recovered by the Operation Administration and Maintenance functions of the plurality of nodes; and wherein when the number of paths affected by a failure that has occurred in the network is 2 or more, the control apparatus determines whether or not to perform route control so as to recover the failures occurred in the network.
A method, comprising: - obtaining a first video sequence captured by a first camera, the first video sequence comprising a plurality of image frames (F k,q), - providing context data (CONTEX1) which comprises information about the location of the camera, said context data (CONTEX1) being related to the first video sequence, - obtaining reference image data (RIMG1) comprising an image of an object of interest based on the location information of the context data (CONTEX1), - determining whether a first image frame (F k,q) of the first video sequence comprises an image of said object of interest, wherein said determining comprises comparing the first video sequence with the reference image data (RIMG1), - in an instance in which the first image frame (F k,q) has been determined to comprise said image of said object, selecting a first position (POS1 k) of an image portion of an image frame (F k,q) such that the first position (POS1 k) substantially matches with the position of the image of the object, - providing control data (CDATA1), which indicates said first position (POS1 k), and - forming a presentation video sequence (DSEQ1) from the first video sequence according to the control data (CDATA1). - obtaining a first video sequence captured by a first camera, the first video sequence comprising a plurality of image frames (F k,q), - providing context data (CONTEX1) which comprises information about the location of the camera, said context data (CONTEX1) being related to the first video sequence, - obtaining reference image data (RIMG1) comprising an image of an object of interest based on the location information of the context data (CONTEX1), - determining whether a first image frame (F k,q) of the first video sequence comprises an image of said object of interest, wherein said determining comprises comparing the first video sequence with the reference image data (RIMG1), - in an instance in which the first image frame (F k,q) has been determined to comprise said image of said object, selecting a first position (POS1 k) of an image portion of an image frame (F k,q) such that the first position (POS1 k) substantially matches with the position of the image of the object, - providing control data (CDATA1), which indicates said first position (POS1 k), and - forming a presentation video sequence (DSEQ1) from the first video sequence according to the control data (CDATA1).
A package comprising: a first pouch and a second pouch attached relative to each other about a hinge, each of the first and second pouches being configured to contain a product; a first closure flap attached relative to the first pouch and relative to the second pouch at a location spaced from the hinge; characterised in that the first and second pouches are movable in a direction away from one another about the hinge from a closed position, where the first and second pouches at least partially overlie each other and access to the first and second pouches is blocked by the first closure flap, toward an open position, where the first and second pouches are spaced from one another and the first closure flap is detached or otherwise separated relative to one of the first and second pouches to provide access to at least one of the first and second pouches via a respective opening (18,20) of at least one of the first and second pouches. a first pouch and a second pouch attached relative to each other about a hinge, each of the first and second pouches being configured to contain a product; a first closure flap attached relative to the first pouch and relative to the second pouch at a location spaced from the hinge; characterised in that the first and second pouches are movable in a direction away from one another about the hinge from a closed position, where the first and second pouches at least partially overlie each other and access to the first and second pouches is blocked by the first closure flap, toward an open position, where the first and second pouches are spaced from one another and the first closure flap is detached or otherwise separated relative to one of the first and second pouches to provide access to at least one of the first and second pouches via a respective opening (18,20) of at least one of the first and second pouches.
A system comprising: a vehicle comprising: a storage area; and a guide rail configured to extend from the storage area; and a robot configured to move onto the guide rail, the robot comprising: a support portion comprising a placement surface and a base, wherein the placement surface is configured to be a floor of the storage area of the vehicle; a boundary support at a boundary of the placement surface, wherein the boundary support is foldable at the boundary of the placement surface; a lift located on the placement surface within the boundary support, wherein the lift is configured to move orthogonally relative to the placement surface, and wherein the lift is able to tilt its top surface; wherein the robot further comprises a plurality of descendible wheels and a plurality of legs, each connecting the support portion to one of the plurality of descendible wheels, wherein the lift tilt can be coordinated with the legs to keep the top of the lift horizontal. a vehicle comprising: a storage area; and a guide rail configured to extend from the storage area; and a storage area; and a guide rail configured to extend from the storage area; and a robot configured to move onto the guide rail, the robot comprising: a support portion comprising a placement surface and a base, wherein the placement surface is configured to be a floor of the storage area of the vehicle; a boundary support at a boundary of the placement surface, wherein the boundary support is foldable at the boundary of the placement surface; a lift located on the placement surface within the boundary support, wherein the lift is configured to move orthogonally relative to the placement surface, and wherein the lift is able to tilt its top surface; wherein the robot further comprises a plurality of descendible wheels and a plurality of legs, each connecting the support portion to one of the plurality of descendible wheels, wherein the lift tilt can be coordinated with the legs to keep the top of the lift horizontal. a support portion comprising a placement surface and a base, wherein the placement surface is configured to be a floor of the storage area of the vehicle; a boundary support at a boundary of the placement surface, wherein the boundary support is foldable at the boundary of the placement surface; a lift located on the placement surface within the boundary support, wherein the lift is configured to move orthogonally relative to the placement surface, and wherein the lift is able to tilt its top surface; wherein the robot further comprises a plurality of descendible wheels and a plurality of legs, each connecting the support portion to one of the plurality of descendible wheels, wherein the lift tilt can be coordinated with the legs to keep the top of the lift horizontal.
A device for carrying out movements by shifting the centre of gravity and/or actuating muscles of a human body, said device comprising: a supporting means for supporting body parts, wherein the waist region of the body is freely movable, a base for supporting forces on the ground and/or on a wall, a kinematic device for connecting the supporting means and said base, wherein said kinematic device is adapted to allow a movement of the body about a virtual longitudinal axis and about a virtual lateral axis, characterized by that said supporting means for supporting the body parts comprises: two arm shells for respectively supporting a forearm of the body, as well as two leg shells for respectively supporting a lower leg of the body. a supporting means for supporting body parts, wherein the waist region of the body is freely movable, a base for supporting forces on the ground and/or on a wall, a kinematic device for connecting the supporting means and said base, wherein said kinematic device is adapted to allow a movement of the body about a virtual longitudinal axis and about a virtual lateral axis, characterized by that said supporting means for supporting the body parts comprises: two arm shells for respectively supporting a forearm of the body, as well as two leg shells for respectively supporting a lower leg of the body.
A method for treating one or more ends of a machine-woven stent to manufacture a woven stent, the method comprising the steps of: providing a machine-woven stent defining a body having a tubular body portion, a first end portion, and a second end portion defined by a plurality of wires extending in a first helical direction around the body and extending in a second helical direction around the body, the first helical direction being transverse to the second helical direction, wherein the plurality of wires define a plurality of wire ends terminating at the first end portion, wherein the plurality of wires are woven together to define a plurality of cells and a plurality of intersections; characterized by: bending a first loose wire portion of the plurality of wires around a bend point to define a first crown portion, and weaving the first loose wire portion into the body of the machine-woven stent along a weave path in the second helical direction; and bending a second loose wire portion of the plurality of wires around said bend point to define a second crown portion, and weaving the second loose wire portion into the body of the machine-woven stent along a weave path in the first helical direction. providing a machine-woven stent defining a body having a tubular body portion, a first end portion, and a second end portion defined by a plurality of wires extending in a first helical direction around the body and extending in a second helical direction around the body, the first helical direction being transverse to the second helical direction, wherein the plurality of wires define a plurality of wire ends terminating at the first end portion, wherein the plurality of wires are woven together to define a plurality of cells and a plurality of intersections; characterized by: bending a first loose wire portion of the plurality of wires around a bend point to define a first crown portion, and weaving the first loose wire portion into the body of the machine-woven stent along a weave path in the second helical direction; and bending a second loose wire portion of the plurality of wires around said bend point to define a second crown portion, and weaving the second loose wire portion into the body of the machine-woven stent along a weave path in the first helical direction. bending a first loose wire portion of the plurality of wires around a bend point to define a first crown portion, and weaving the first loose wire portion into the body of the machine-woven stent along a weave path in the second helical direction; and bending a second loose wire portion of the plurality of wires around said bend point to define a second crown portion, and weaving the second loose wire portion into the body of the machine-woven stent along a weave path in the first helical direction.
A light emitting device comprising: a substrate having a first main surface, a second main surface that is opposite the first main surface, and a mounting surface that is adjacent to and intersecting at least the second main surface, and that includes an insulating base material, a pair of connection terminals disposed on the second main surface, and a heat dissipation terminal disposed on the second main surface between the pair of connection terminals, a light emitting element that is mounted on the first main surface characterised in that a light blocking sealing member that seals the light emitting element is formed substantially in the same plane as the substrate on the mounting surface, and a height of the heat dissipation terminal is smaller than a height of the connection terminals, wherein a height is a distance with respect to the mounting surface. a substrate having a first main surface, a second main surface that is opposite the first main surface, and a mounting surface that is adjacent to and intersecting at least the second main surface, and that includes an insulating base material, a pair of connection terminals disposed on the second main surface, and a heat dissipation terminal disposed on the second main surface between the pair of connection terminals, a second main surface that is opposite the first main surface, and a mounting surface that is adjacent to and intersecting at least the second main surface, and that includes an insulating base material, a pair of connection terminals disposed on the second main surface, and a heat dissipation terminal disposed on the second main surface between the pair of connection terminals, a light emitting element that is mounted on the first main surface characterised in that a light blocking sealing member that seals the light emitting element is formed substantially in the same plane as the substrate on the mounting surface, and a height of the heat dissipation terminal is smaller than a height of the connection terminals, wherein a height is a distance with respect to the mounting surface.
A channel sensing method, comprising: performing, by a sending device, LBT; and sending, by the sending device, a first channel occupancy signal after the LBT succeeds, wherein the first channel occupancy signal is used to indicate, to a first receiving device that receives the first channel occupancy signal, a to-be-protected channel occupancy time on a channel occupied by the sending device after the LBT succeeds, wherein the first channel occupancy signal comprises first information, and the first information is used to indicate a part of the first receiving device to respond to the first channel occupancy signal, so that the first receiving device sends a second channel occupancy signal, and the second channel occupancy signal is used to indicate, to a second receiving device that receives the second channel occupancy signal, the to-be-protected channel occupancy time on the channel occupied by the sending device after the LBT succeeds. performing, by a sending device, LBT; and sending, by the sending device, a first channel occupancy signal after the LBT succeeds, wherein the first channel occupancy signal is used to indicate, to a first receiving device that receives the first channel occupancy signal, a to-be-protected channel occupancy time on a channel occupied by the sending device after the LBT succeeds, wherein the first channel occupancy signal comprises first information, and the first information is used to indicate a part of the first receiving device to respond to the first channel occupancy signal, so that the first receiving device sends a second channel occupancy signal, and the second channel occupancy signal is used to indicate, to a second receiving device that receives the second channel occupancy signal, the to-be-protected channel occupancy time on the channel occupied by the sending device after the LBT succeeds.
First network node for a wireless communication system, the first network node comprising: a processor configured to: obtain channel quality information for a user device; obtain a load information for first radio access resources; determine a first association of the first radio access resources to the user device based on the channel quality information and the load information, the first association being valid during a first validity time period, wherein the first association indicates the first radio access resources associated to the user device to be used for transmissions; compute first user data rates for the first radio access resources based on the channel quality information; determine a utilization of the first radio access resources based on the first association and the first user data rates, wherein the utilization of the first radio access resources indicates selected radio access resources to be used for transmission or reception of data to or from the user device, and the first radio access resources are selected based on the user device's expected instantaneous user throughput as follows: j * s * * = arg max j, s W ^ j s c ^ i, j s t / ρ ^ j s t, ∀ j s ∈ K i wherein ρ ^ j s t denotes an estimation of the instantaneous load expected in radio access resource ( j, s) at time t, W ^ j s is the available bandwidth of radio access resources ( j, s), and c ^ i, j s t is the spectral efficiency at the tth time transmission interval achievable by using Shannon bound, wherein i denotes the i th user device, j denotes the j th network node and K i denotes i th user devices associated to K i radio access resources. obtain channel quality information for a user device; obtain a load information for first radio access resources; determine a first association of the first radio access resources to the user device based on the channel quality information and the load information, the first association being valid during a first validity time period, wherein the first association indicates the first radio access resources associated to the user device to be used for transmissions; compute first user data rates for the first radio access resources based on the channel quality information; determine a utilization of the first radio access resources based on the first association and the first user data rates, wherein the utilization of the first radio access resources indicates selected radio access resources to be used for transmission or reception of data to or from the user device, and the first radio access resources are selected based on the user device's expected instantaneous user throughput as follows: j * s * * = arg max j, s W ^ j s c ^ i, j s t / ρ ^ j s t, ∀ j s ∈ K i wherein ρ ^ j s t denotes an estimation of the instantaneous load expected in radio access resource ( j, s) at time t, W ^ j s is the available bandwidth of radio access resources ( j, s), and c ^ i, j s t is the spectral efficiency at the tth time transmission interval achievable by using Shannon bound, wherein i denotes the i th user device, j denotes the j th network node and K i denotes i th user devices associated to K i radio access resources.
A method performed by a communication node, comprising: obtaining random access information, wherein the random access information comprises a first sequence number of an initial subframe of a preamble transmission, a second sequence number of an initial radio frame of the preamble transmission, and a random access, RA, response window length; and determining a random access radio network temporary identity, RA-RNTI, according to the first sequence number of the initial subframe of the preamble transmission, the second sequence number of the initial radio frame of the preamble transmission, and the RA response window length. obtaining random access information, wherein the random access information comprises a first sequence number of an initial subframe of a preamble transmission, a second sequence number of an initial radio frame of the preamble transmission, and a random access, RA, response window length; and determining a random access radio network temporary identity, RA-RNTI, according to the first sequence number of the initial subframe of the preamble transmission, the second sequence number of the initial radio frame of the preamble transmission, and the RA response window length.