mhurhangee/ep-ind-claims huggingface dataset:
An elongated support member (352, 452) adapted to be connected to a wall portion or roof portion defining a space for housing at least a part of an extendable or movable covering, wherein the support member is adapted for supporting a plate shaped cover (390, 490) in a way that the cover projects from the support member so that it at least partly can conceal the space for the covering, wherein the support member comprises a pivot means (309, 409) for forming a pivot axis so that the cover may be pivoted between a non-connected state and a connected state in relation to the support member, wherein the pivot means (309,409) has the shape of a hook in cross section and wherein the pivot means (309,409) is elongated and extends in parallel with the longitudinal direction of the support member wherein the support member (352,452) comprises an elongated projection (354,454) extending from a plate shaped element (358,458) of the support member and in parallel with a longitudinal direction of the support member, wherein that the projection (354,454) has a curved shape forming an elongated receptacle (356,456) for an edge section of the cover (390,490) during connection and disconnection, wherein that the receptacle (356,456) is defined by the projection in one direction and by the plate shaped element (358,458) of the support member in the other direction, wherein that the receptacle (356,456) is open downwards for receiving an edge section of the cover (390,490) during connection and disconnection characterized in that the projection comprises the hook (309,409) at the free end, wherein the hook extends into the receptacle.
A method for producing the compound represented by the formula, the method comprising (i) the step 4 of: removing the protecting group from the hydroxyl group in the compound represented by the formula below: (wherein P represents a protecting group, R 3 represents an alkyl group containing 1 to 4 carbon atoms, and A represents an alkyl group containing 1 to 10 carbon atoms, an aryl group containing 6 to 12 carbon atoms, an alkyloxy group containing 1 to 4 carbon atoms, or an aralkyloxy group containing 7 to 20 carbon atoms) to synthesize the compound represented by the formula below: (wherein R 3 represents an alkyl group containing 1 to 4 carbon atoms, and A represents an alkyl group containing 1 to 10 carbon atoms, an aryl group containing 6 to 12 carbon atoms, an alkyloxy group containing 1 to 4 carbon atoms, or an aralkyloxy group containing 7 to 20 carbon atoms). (wherein P represents a protecting group, R 3 represents an alkyl group containing 1 to 4 carbon atoms, and A represents an alkyl group containing 1 to 10 carbon atoms, an aryl group containing 6 to 12 carbon atoms, an alkyloxy group containing 1 to 4 carbon atoms, or an aralkyloxy group containing 7 to 20 carbon atoms) to synthesize the compound represented by the formula below: (wherein R 3 represents an alkyl group containing 1 to 4 carbon atoms, and A represents an alkyl group containing 1 to 10 carbon atoms, an aryl group containing 6 to 12 carbon atoms, an alkyloxy group containing 1 to 4 carbon atoms, or an aralkyloxy group containing 7 to 20 carbon atoms).
An injection device trainer for training a user to use an injection device, the injection device trainer comprising: a body portion; an actuator positioned towards a proximal end of the body portion, the actuator moveable from a proximal position to a distal position; a shield positioned towards a distal end of the body portion, the shield moveable between: an initial position; a retracted position that is more proximal relative to the body portion than the initial position; and an extended position that is more distal relative to the body portion than the initial position; and a locking member adapted to be rotatable between a first orientation in which the locking member resists movement of the actuator from the proximal position to the distal position; and a second orientation in which the locking member permits the actuator to move from the proximal position to the distal position; wherein the first orientation of the locking member is configured to hold the shield in the initial position such that the shield is prevented from moving from the initial position to the extended position, and permits movement of the shield from the initial position to the retracted position; wherein the shield is configured to contact with the locking member when moving from the initial position to the retracted position in order to move the locking member from the first orientation to the second orientation; and wherein movement of the actuator by a first distance towards the distal position is configured to unlock the shield from the locking member such that the shield is allowed to move towards the extended position. a body portion; an actuator positioned towards a proximal end of the body portion, the actuator moveable from a proximal position to a distal position; a shield positioned towards a distal end of the body portion, the shield moveable between: an initial position; a retracted position that is more proximal relative to the body portion than the initial position; and an extended position that is more distal relative to the body portion than the initial position; and a locking member adapted to be rotatable between a first orientation in which the locking member resists movement of the actuator from the proximal position to the distal position; and a second orientation in which the locking member permits the actuator to move from the proximal position to the distal position; wherein the first orientation of the locking member is configured to hold the shield in the initial position such that the shield is prevented from moving from the initial position to the extended position, and permits movement of the shield from the initial position to the retracted position; wherein the shield is configured to contact with the locking member when moving from the initial position to the retracted position in order to move the locking member from the first orientation to the second orientation; and wherein movement of the actuator by a first distance towards the distal position is configured to unlock the shield from the locking member such that the shield is allowed to move towards the extended position.
A light emitting diode, comprising: an n-type Group III nitride layer consisting of a silicon doped gallium nitride (GaN) layer; a superlattice structure comprising alternating layers of silicon doped GaN and/or InGaN; a Group III nitride light emitting diode active region on the superlattice structure, the light emitting diode active region including a multi-quantum well structure that includes multiple InGaN quantum well layers separated by barrier layers; a Group III nitride capping layer on the light emitting diode active region opposite from the n-type Group III nitride layer, wherein the Group III nitride capping layer is an indium aluminium gallium nitride (InAlGaN) layer including a first capping layer having a composition of In x Al y Ga 1-x-y N, where 0<x≤0.2 and 0≤y≤0.4 and having a thickness of from 1 to 20 nm and a second capping layer having a composition of In w Al z Ga 1-w-z N, where 0<w≤0.2 and y≤z≤1 and having a thickness of from 1 to 12 nm; and a p-type Group III nitride layer consisting of a p-doped aluminum gallium nitride (AlGaN) layer on the Group III nitride capping layer and remote from the light emitting diode active region. an n-type Group III nitride layer consisting of a silicon doped gallium nitride (GaN) layer; a superlattice structure comprising alternating layers of silicon doped GaN and/or InGaN; a Group III nitride light emitting diode active region on the superlattice structure, the light emitting diode active region including a multi-quantum well structure that includes multiple InGaN quantum well layers separated by barrier layers; a Group III nitride capping layer on the light emitting diode active region opposite from the n-type Group III nitride layer, wherein the Group III nitride capping layer is an indium aluminium gallium nitride (InAlGaN) layer including a first capping layer having a composition of In x Al y Ga 1-x-y N, where 0<x≤0.2 and 0≤y≤0.4 and having a thickness of from 1 to 20 nm and a second capping layer having a composition of In w Al z Ga 1-w-z N, where 0<w≤0.2 and y≤z≤1 and having a thickness of from 1 to 12 nm; and a p-type Group III nitride layer consisting of a p-doped aluminum gallium nitride (AlGaN) layer on the Group III nitride capping layer and remote from the light emitting diode active region.
Method for controlling the piloting of an aircraft comprising the following steps of: - receiving at least one first instruction for modification of the orientation of a current velocity vector of the aircraft, - determining a target velocity vector of the aircraft, on the basis of said at least one first instruction received, and - determining, on the basis at least of said target velocity vector, of at least one actuation command intended for at least one actuator of the aircraft in order to modify the movement of the aircraft according to said at least one first instruction received, the method being characterized in that it further comprises the following steps of: - receiving an instruction for modification of the orientation of the determined target velocity vector, and - modifying the target velocity vector as a function of said instruction received, said actuation command being determined on the basis of the thus-modified target velocity vector. - receiving at least one first instruction for modification of the orientation of a current velocity vector of the aircraft, - determining a target velocity vector of the aircraft, on the basis of said at least one first instruction received, and - determining, on the basis at least of said target velocity vector, of at least one actuation command intended for at least one actuator of the aircraft in order to modify the movement of the aircraft according to said at least one first instruction received, - receiving an instruction for modification of the orientation of the determined target velocity vector, and - modifying the target velocity vector as a function of said instruction received, said actuation command being determined on the basis of the thus-modified target velocity vector.
A fuel assembly for use in a nuclear reactor, the fuel assembly comprising: a seed subassembly comprising a seed frame and a plurality of seed fuel elements supported by the seed frame; a blanket subassembly comprising a blanket frame and a plurality of blanket fuel elements supported by the blanket frame; and a locking mechanism that releasably locks the seed and blanket frames together, the seed subassembly being detachable from the blanket subassembly when the locking mechanism is released. a seed subassembly comprising a seed frame and a plurality of seed fuel elements supported by the seed frame; a blanket subassembly comprising a blanket frame and a plurality of blanket fuel elements supported by the blanket frame; and a locking mechanism that releasably locks the seed and blanket frames together, the seed subassembly being detachable from the blanket subassembly when the locking mechanism is released.
A lighting device, including a flexible ribbon-like substrate with electrically-powered light radiation sources thereon as well as electrically conductive portions (16a, 16b, 16c) providing electrically conductive lines for the light radiation sources, wherein: - the device is embedded in an elastomer providing ingress protection of the device, - the flexible ribbon-like substrate includes approximately rectangular laminar support portions for light radiation sources arranged thereon and bridge-like portions extending between said laminar support portions, - the electrically conductive portions (16a, 16b, 16c) have at said bridge-like portions a lower cross-sectional area than at said laminar support portions, - the shape of the outer edge of the substrate follows the external profile of the electrically conductive portions (16a, 16b, 16c), - the device includes electrically conductive portions (16a, 16b, 16c) having longitudinal slots therein. - the device is embedded in an elastomer providing ingress protection of the device, - the flexible ribbon-like substrate includes approximately rectangular laminar support portions for light radiation sources arranged thereon and bridge-like portions extending between said laminar support portions, - the electrically conductive portions (16a, 16b, 16c) have at said bridge-like portions a lower cross-sectional area than at said laminar support portions, - the shape of the outer edge of the substrate follows the external profile of the electrically conductive portions (16a, 16b, 16c), - the device includes electrically conductive portions (16a, 16b, 16c) having longitudinal slots therein.
Assembly comprising a sweeper for cleaning a rail track, and a remote control centre, the sweeper comprising: - a cleaning device configured to clean the rail track; and - a traction device (40 for the sweeper; the sweeper comprising, furthermore, a control system, the control system being of the type comprising a central module and a plurality of peripheral modules (80, 82, 84, 86, 88, 90, 92, 94) connected to the central module, one module of the plurality of peripheral modules (80, 82, 84, 86, 88, 90, 92, 94) being a communication module, configured to establish a communication with the remote control centre, the control system being configured to control the parameters of the cleaning device and of the traction device, the sweeper being an autonomous vehicle, without a driver, the traction device and the cleaning device being steered by the control system, characterised in that the assembly comprises a system for supervision of the traffic of the tramways on the rail track, the control centre being interfaced with the supervision system in order to transmit to it a current position of the sweeper at any moment of the travel of the sweeper on the rail track. - a cleaning device configured to clean the rail track; and - a traction device (40 for the sweeper;
An apparatus, comprising: a first material support member configured to removably attach to a tile tray and a second material support member, characterised in that: the second material support member is configured to removably attach to the tile tray, wherein opposing edges of the respective first material support member and second material support member define a first linear saw blade slot through which a saw blade of a saw extends while cutting a planar material, wherein a distance between the opposing edges of the respective first material support member and second material support member is adjustable and defines a width of the first linear saw blade slot, and the first material support member and the second material support member are configured to support the planar material while the planar material is positioned over the first linear saw blade slot; and in that the apparatus further comprises: a first paddle configured to engage a first portion of the planar material positioned on a first side of the first linear saw blade slot, interposing the first portion of the planar material between the first material support member and the first paddle, the first paddle configured to engage the first material support member using at least a first alignment pin that fixes a position of the first paddle relative to a position of the first material support member; and a second paddle configured to engage a second portion of the planar material positioned on a second side of the first linear saw blade slot, interposing the second portion of the planar materia between the second material support member and the second paddle, the second paddle configured to engage the second material support member using at least a second alignment pin that fixes a position of the second paddle relative to the position of the second material support member. a first paddle configured to engage a first portion of the planar material positioned on a first side of the first linear saw blade slot, interposing the first portion of the planar material between the first material support member and the first paddle, the first paddle configured to engage the first material support member using at least a first alignment pin that fixes a position of the first paddle relative to a position of the first material support member; and a second paddle configured to engage a second portion of the planar material positioned on a second side of the first linear saw blade slot, interposing the second portion of the planar materia between the second material support member and the second paddle, the second paddle configured to engage the second material support member using at least a second alignment pin that fixes a position of the second paddle relative to the position of the second material support member.
A computer-implemented method for digitization of papercraft folding for creation of a papercraft model comprising: - monitoring, via an RFID reader, a sheet provided with an array of RFID tags, - determining, based on RFID reader output, the occurrence of a fold performed on the sheet, - determining fold properties of the occurred fold, and - storing the fold properties as a fold dataset of the occurred fold. - monitoring, via an RFID reader, a sheet provided with an array of RFID tags, - determining, based on RFID reader output, the occurrence of a fold performed on the sheet, - determining fold properties of the occurred fold, and - storing the fold properties as a fold dataset of the occurred fold.
A method of manufacturing three-dimensional objects, the method comprising: generating a plan for printing a plurality of 3D objects in a 3D printing medium at least in part by: identifying at least one unprinted area of the 3D printing medium for insertion of at least one cooling device; and determining where at least some of the plurality of 3D objects are to be printed in the 3D printing medium such that none of the at least some of the plurality of 3D objects, when printed, intersect the identified at least one unprinted area for the insertion of the at least one cooling device; printing, using a 3D printer, the at least some of the plurality of 3D objects in accordance with the plan; after the printing, inserting, through a brace (410, 600, 700) configured to support the at least one cooling device in the 3D printing medium, the at least one cooling device (402, 500) into the at least one unprinted area of the 3D printing medium; and cooling the 3D printing medium using the at least one cooling device (402, 500). generating a plan for printing a plurality of 3D objects in a 3D printing medium at least in part by: identifying at least one unprinted area of the 3D printing medium for insertion of at least one cooling device; and determining where at least some of the plurality of 3D objects are to be printed in the 3D printing medium such that none of the at least some of the plurality of 3D objects, when printed, intersect the identified at least one unprinted area for the insertion of the at least one cooling device; identifying at least one unprinted area of the 3D printing medium for insertion of at least one cooling device; and determining where at least some of the plurality of 3D objects are to be printed in the 3D printing medium such that none of the at least some of the plurality of 3D objects, when printed, intersect the identified at least one unprinted area for the insertion of the at least one cooling device; printing, using a 3D printer, the at least some of the plurality of 3D objects in accordance with the plan; after the printing, inserting, through a brace (410, 600, 700) configured to support the at least one cooling device in the 3D printing medium, the at least one cooling device (402, 500) into the at least one unprinted area of the 3D printing medium; and cooling the 3D printing medium using the at least one cooling device (402, 500).
A method in a Network Virtualization Authority, NVA, node that provides reachability and forwarding information to one or more Network Virtualization Edge, NVE, nodes in a network employing a Network Virtualization Overlay, NVO, wherein each NVE node implements Layer 2 and/or Layer 3 network virtualization functions for one or more tenant system elements, the method comprising: receiving virtual machine, VM, configuration information for one or more VMs; and the method being characterized by: configuring at least a first NVE to enable load balancing, LB, by sending a LB enable message to the first NVE node; and updating configuration information for one or more remote NVEs to allow load balancing traffic for the one or more VMs to be sent to the first NVE node. receiving virtual machine, VM, configuration information for one or more VMs; and the method being characterized by: configuring at least a first NVE to enable load balancing, LB, by sending a LB enable message to the first NVE node; and updating configuration information for one or more remote NVEs to allow load balancing traffic for the one or more VMs to be sent to the first NVE node. configuring at least a first NVE to enable load balancing, LB, by sending a LB enable message to the first NVE node; and updating configuration information for one or more remote NVEs to allow load balancing traffic for the one or more VMs to be sent to the first NVE node.
Method for patinating components made of copper-containing metal, in particular made of bronze or brass, wherein a portion of a component to be patinated is immersed into a patina liquid, characterized in that the component, as seen over the length of the portion to be patinated, is moved relative to the patina liquid during a predefined period of time of at least three minutes with continuously varying immersion depth and without standing still, in order to achieve, over the length of the portion to be patinated, a colour gradient between strongly and less strongly patinated sections of the component without stripes and without transverse markings.
A method performed by a client station, the method comprising: receiving, by the client station, persistent resource allocation information (430-K), the persistent resource allocation information (430-K) including an indication of downlink, DL, persistent resources, a first identifier associated with the client station, an indication of a DL allocation period, an indication of uplink, UL, persistent resources, and an indication of an UL allocation period, wherein the DL allocation period is separately indicated from the UL allocation period; periodically receiving, by the client station, DL user data associated with the first identifier, the DL user data being received via the DL persistent resources and based on the DL allocation period, and the DL persistent resources repeating at an interval defined by the DL allocation period; and persistently transmitting, by the client station, UL user data via the UL persistent resources and based on the UL allocation period, the UL persistent resources repeating at an interval defined by the UL allocation period. receiving, by the client station, persistent resource allocation information (430-K), the persistent resource allocation information (430-K) including an indication of downlink, DL, persistent resources, a first identifier associated with the client station, an indication of a DL allocation period, an indication of uplink, UL, persistent resources, and an indication of an UL allocation period, wherein the DL allocation period is separately indicated from the UL allocation period; periodically receiving, by the client station, DL user data associated with the first identifier, the DL user data being received via the DL persistent resources and based on the DL allocation period, and the DL persistent resources repeating at an interval defined by the DL allocation period; and persistently transmitting, by the client station, UL user data via the UL persistent resources and based on the UL allocation period, the UL persistent resources repeating at an interval defined by the UL allocation period.