mhurhangee/patent-ind-claim-en huggingface dataset:
An optical fiber distribution element comprising: a chassis defining an interior; a movable tray portion slidably movable from within the chassis to a position at least partially outside the chassis ; a slide mechanism which connects the movable tray portion to the chassis , the slide mechanism including a radius limiter portion which moves with synchronized movement relative to the chassis and the tray portion during slidable movement of the tray portion , wherein a cable entering and/or exiting the movable tray portion follows an S-shaped pathway ; characterized by further comprising a pivotable snap-fit cover provided on the tray portion , the cover movable between an open position and a closed position for closing at least a portion of the S-shaped pathway to retain the cable therein; and a mechanism for preventing slidable closure of the tray portion with respect to the chassis when the pivotable snap-fit cover is in the open position, wherein the mechanism is configured to allow slidable closure of the tray portion with respect to the chassis via abutment of the cover with the radius limiter portion to disengage the radius limiter portion from the tray portion to allow movement of the tray portion with respect to the chassis . a chassis defining an interior; a movable tray portion slidably movable from within the chassis to a position at least partially outside the chassis ; a slide mechanism which connects the movable tray portion to the chassis , the slide mechanism including a radius limiter portion which moves with synchronized movement relative to the chassis and the tray portion during slidable movement of the tray portion , wherein a cable entering and/or exiting the movable tray portion follows an S-shaped pathway ; characterized by further comprising a pivotable snap-fit cover provided on the tray portion , the cover movable between an open position and a closed position for closing at least a portion of the S-shaped pathway to retain the cable therein; and a mechanism for preventing slidable closure of the tray portion with respect to the chassis when the pivotable snap-fit cover is in the open position, wherein the mechanism is configured to allow slidable closure of the tray portion with respect to the chassis via abutment of the cover with the radius limiter portion to disengage the radius limiter portion from the tray portion to allow movement of the tray portion with respect to the chassis .
An elevator control apparatus comprising: at least one processor ; and at least one memory comprising computer program code for one or more programs, the at least one memory and the computer program code operating together with the at least one processor to cause the apparatus to: control an elevator group comprising at least a first elevator and a second elevator determine threshold loads for the first and second elevator separately for up and down direction for each elevator, a threshold load being dependent of a counterweight balance of the corresponding elevator and being a load for which consumed energy per up-down run is approximately zero; and control, when allocating an elevator in response to a destination call, route determination for the first and second elevators by minimizing a load difference of the first and second elevators from the threshold loads; characterized in that the counterweight balance of the first elevator differs from a counterweight balance of the second elevator . at least one processor ; and at least one memory comprising computer program code for one or more programs, the at least one memory and the computer program code operating together with the at least one processor to cause the apparatus to: control an elevator group comprising at least a first elevator and a second elevator determine threshold loads for the first and second elevator separately for up and down direction for each elevator, a threshold load being dependent of a counterweight balance of the corresponding elevator and being a load for which consumed energy per up-down run is approximately zero; and control, when allocating an elevator in response to a destination call, route determination for the first and second elevators by minimizing a load difference of the first and second elevators from the threshold loads; control an elevator group comprising at least a first elevator and a second elevator determine threshold loads for the first and second elevator separately for up and down direction for each elevator, a threshold load being dependent of a counterweight balance of the corresponding elevator and being a load for which consumed energy per up-down run is approximately zero; and control, when allocating an elevator in response to a destination call, route determination for the first and second elevators by minimizing a load difference of the first and second elevators from the threshold loads; characterized in that the counterweight balance of the first elevator differs from a counterweight balance of the second elevator .
Device for retaining dust created by a drilling operation, comprising a closed envelope defining a space for receiving said dust, said envelope comprising a rear face for applying to a wall to be drilled, and a front face opposite the rear face , through which a drill bit penetrates for the actual drilling operation, the envelope contains a gel suitable for being mixed, by the rotation of the drill bit, with the dust from the drilling operation, characterized in that the device comprises means for guiding the drill bit, in the form of a recess formed within the front face of the envelope, suitable for receiving and guiding the drill bit.
A tissue graft product comprising two or more sheets of material wherein each sheet comprises extracellular matrix (ECM) or polymeric material and wherein the sheets are laminated together by interlocking portions of one sheet with portions of another sheet, wherein a first sheet of material has multiple lugs and a second sheet of material has multiple holes, each lug of the first sheet being located through a hole in the second sheet , to interlock the first sheet with the second sheet.
An operating method of a medical imaging system, comprising: performing exposure setting of a next object during image processing of medical image data of a current object; characterised in that the performing exposure setting of a next object comprises performing the exposure setting of the next object on the basis of estimated time required for the image processing. performing exposure setting of a next object during image processing of medical image data of a current object; characterised in that the performing exposure setting of a next object comprises performing the exposure setting of the next object on the basis of estimated time required for the image processing.
A vessel having: at least two hulls ; a body ; a suspension system for supporting at least a portion of the body above the at least two hulls , the suspension system including at least one support means between each hull and the body , and the suspension system including locating means between each hull and the body , each respective locating means locating a respective hull relative to the body ; characterised in that the vessel further includes at least one gyroscopic stabiliser for providing a respective stabilising torque on the body to attenuate rotation of the body about a respective stabilising axis , the or each at least one gyroscopic stabiliser including a flywheel connected to a spin shaft such that the flywheel is able to spin about a spin axis , the spin shaft being connected to a gimbal frame , the gimbal frame being rotatably connected to the body of the vessel such that the gimbal frame is able to rotate about a precession axis , the spin axis being substantially perpendicular to the precession axis , the stabilising axis being substantially perpendicular to both the spin axis and the precession axis ; wherein the vessel comprises a control device that enables a stiffness or position of the suspension system in a roll or pitch mode to be controlled in dependence on an operational state of the gyroscopic stabiliser . at least two hulls ; a body ; a suspension system for supporting at least a portion of the body above the at least two hulls , the suspension system including at least one support means between each hull and the body , and the suspension system including locating means between each hull and the body , each respective locating means locating a respective hull relative to the body ; at least one gyroscopic stabiliser for providing a respective stabilising torque on the body to attenuate rotation of the body about a respective stabilising axis , the or each at least one gyroscopic stabiliser including a flywheel connected to a spin shaft such that the flywheel is able to spin about a spin axis , the spin shaft being connected to a gimbal frame , the gimbal frame being rotatably connected to the body of the vessel such that the gimbal frame is able to rotate about a precession axis , the spin axis being substantially perpendicular to the precession axis , the stabilising axis being substantially perpendicular to both the spin axis and the precession axis ; wherein the vessel comprises a control device that enables a stiffness or position of the suspension system in a roll or pitch mode to be controlled in dependence on an operational state of the gyroscopic stabiliser .
A method of performing multifactor user authentication in a computing device, comprising: continuously monitoring an activity of a software application operating on the computing device to collect behavior information; using the collected behavior information to generate a behavior vector that characterizes the monitored activity of the software application; applying the generated behavior vector to a classifier model to generate an analysis result; using the generated analysis result to compute at least one value, wherein the computed at least one value is one or more of a transaction type criticality value, a user confidence value, a software integrity confidence value, and a historical behavior value; using the computed at least one value to determine a number of authentication factors that are to be evaluated when authenticating a user of the computing device, wherein the number of authentication factors is determined based on machine learning; using the computed at least one value to determine the authentication factors that are to be evaluated when authenticating the user of the computing device, wherein the authentication factors are determined based on machine learning; and authenticating the user by evaluating the determined number of the determined authentication factors. continuously monitoring an activity of a software application operating on the computing device to collect behavior information; using the collected behavior information to generate a behavior vector that characterizes the monitored activity of the software application; applying the generated behavior vector to a classifier model to generate an analysis result; using the generated analysis result to compute at least one value, wherein the computed at least one value is one or more of a transaction type criticality value, a user confidence value, a software integrity confidence value, and a historical behavior value; using the computed at least one value to determine a number of authentication factors that are to be evaluated when authenticating a user of the computing device, wherein the number of authentication factors is determined based on machine learning; using the computed at least one value to determine the authentication factors that are to be evaluated when authenticating the user of the computing device, wherein the authentication factors are determined based on machine learning; and authenticating the user by evaluating the determined number of the determined authentication factors.
A hydrophilic polyurethane foam material comprising nucleating particles, which are present at a concentration of from 5 to 25% by weight of said foam material, relative to the overall weight of the foam material, wherein at least 85% of all foam cells in said foam material have an average cell size of 0.01 mm 2 or less, as measured by image analysis based on ISO 13322-1:2014, wherein said nucleating particles have a particle size in the range of from 1 to 30 μm.
A vane cooling system for a gas turbine engine, the vane cooling system comprising: a vane arranged on a stator and having a cavity extending continuously from a radially inner end to a radially outer end of the vane , wherein the vane has a radially inner inlet 24,54,424,554 and a radially outer inlet ; a second cooling fluid feed in communication with the radially inner inlet and a first cooling fluid feed in communication with the radially outer inlet ; wherein the second cooling fluid feed has a higher pressure than the first cooling fluid feed ; characterised in that : the radially outer inlet crosses an axially extending annular cavity between a radially outer casing and the radially outer end of the vane and the radially outer inlet is arranged in fluid communication with the axially extending annular cavity , wherein downstream of the vane , the axially extending annular cavity is defined by a radially outer casing and a segmented annular blade ring , segments of the annular blade ring being suspended from a radially inner surface of the radially outer casing ; and the vane cooling system has a flow adjustment device arranged for adjusting a flow of the first cooling fluid feed into the radially outer inlet . a vane arranged on a stator and having a cavity extending continuously from a radially inner end to a radially outer end of the vane , wherein the vane has a radially inner inlet 24,54,424,554 and a radially outer inlet ; a second cooling fluid feed in communication with the radially inner inlet and a first cooling fluid feed in communication with the radially outer inlet ; wherein the second cooling fluid feed has a higher pressure than the first cooling fluid feed ; characterised in that : the radially outer inlet crosses an axially extending annular cavity between a radially outer casing and the radially outer end of the vane and the radially outer inlet is arranged in fluid communication with the axially extending annular cavity , wherein downstream of the vane , the axially extending annular cavity is defined by a radially outer casing and a segmented annular blade ring , segments of the annular blade ring being suspended from a radially inner surface of the radially outer casing ; and the vane cooling system has a flow adjustment device arranged for adjusting a flow of the first cooling fluid feed into the radially outer inlet .
Method of transmitting information in a wireless network having packet losses and comprising a plurality of nodes , the plurality of nodes comprising a source node and other nodes (12b... 12i) including at least one intermediate relay node and at least one destination node, in which the plurality of nodes in the network can overhear and store information that they receive with a sufficiently high signal to noise plus interference ratio and wherein random linear network coding is used by the at least one intermediate relay node to combine packets that the at least one intermediate relay node receives from other nodes, before repromulgating the received information, the method comprising: transmitting a random linear combination of coded packets from the source node to the other nodes (12b...12i) in the network ; characterized in that it also comprises : at all nodes within reception range of the at least one intermediate relay node, determining how many degrees of freedom the at least one intermediate relay node has already received based upon information which has been overheard or directly transmitted from other nodes, node location information or a probabilistic channel model knowledge; based upon the determined degrees of freedom, transmitting a new random linear combination of coded packets from one or more nodes within reception range of the at least one intermediate node to one or more of the other nodes in the network wherein the number of degrees of freedom received by the other nodes, or from blocks from other flows of which the at least one intermediate relay node has knowledge are piggybacked on the new random linear combination of coded packets . at all nodes within reception range of the at least one intermediate relay node, determining how many degrees of freedom the at least one intermediate relay node has already received based upon information which has been overheard or directly transmitted from other nodes, node location information or a probabilistic channel model knowledge; based upon the determined degrees of freedom, transmitting a new random linear combination of coded packets from one or more nodes within reception range of the at least one intermediate node to one or more of the other nodes in the network wherein the number of degrees of freedom received by the other nodes, or from blocks from other flows of which the at least one intermediate relay node has knowledge are piggybacked on the new random linear combination of coded packets .
The logically controlled computer network for logically connecting global computer users and mobile users and providing centralized features and services to the computer users , comprising the architecture of: • global operating systems , • regional operating systems , and • local operating systems , wherein local operating system is designed to logically network computer users in the area, and wherein the routing within the network is fixed so that: • any two global operating systems can communicate with each other directly in the country or globally, • any global operating system can communicate with every regional operating system in its country; • any two regional operating systems within the country can communicate with each other directly, • any regional operating system can communicate with all local operating systems in the region, and • any two local operating systems can communicate with each other directly in the region, wherein, for global transmission of data, the sender's local operating system is configured to only determine the routing within the sender's country, and the global operating system in the receiver's country is configured to determine the fixed routing in the receiver's country, characterized in that the sender's local operating system and the global operating system are configured to include the sender's address, the receiver's address and all the addresses for the routing in the headers of data packets during the encapsulation process, and the sender's local operating system and the global operating system in the receiver's country are configured to determine the fixed routing per session of application, rather than per packet. • global operating systems , • regional operating systems , and • local operating systems , • any two global operating systems can communicate with each other directly in the country or globally, • any global operating system can communicate with every regional operating system in its country; • any two regional operating systems within the country can communicate with each other directly, • any regional operating system can communicate with all local operating systems in the region, and • any two local operating systems can communicate with each other directly in the region,
A cardiac pacing device to be disposed in a heart between an atrium and an atrial appendage, the atrial appendage protruding from the atrium and having an opening that communicates with the atrium and that defines a boundary between the atrium and the atrial appendage, said cardiac pacing device comprising: a blocker configured to occlude the atrial appendage, said blocker including: a self-expandable metallic stent configured to be jammed into the opening of the atrial appendage when said blocker is positioned, said self-expandable metallic stent including a plurality of barbs that are disposed around a periphery of said self-expandable metallic stent and that are configured for said self-expandable metallic stent to be caught on an inner wall of the atrial appendage, and a mesh screen covering a portion of an outer surface of said self-expandable metallic stent ; and a regulator attached to said blocker , and configured to contact the heart when said blocker is positioned between the atrium and the atrial appendage to occlude the atrial appendage in order to regulate cardiac rhythm of the heart, said regulator including: a controlling module positioned inside said self-expandable metallic stent , and a stimulation element which is electrically connected to said controlling module , and which is to contact the atrial appendage when said blocker is positioned. a blocker configured to occlude the atrial appendage, said blocker including: a self-expandable metallic stent configured to be jammed into the opening of the atrial appendage when said blocker is positioned, said self-expandable metallic stent including a plurality of barbs that are disposed around a periphery of said self-expandable metallic stent and that are configured for said self-expandable metallic stent to be caught on an inner wall of the atrial appendage, and a mesh screen covering a portion of an outer surface of said self-expandable metallic stent ; and a self-expandable metallic stent configured to be jammed into the opening of the atrial appendage when said blocker is positioned, said self-expandable metallic stent including a plurality of barbs that are disposed around a periphery of said self-expandable metallic stent and that are configured for said self-expandable metallic stent to be caught on an inner wall of the atrial appendage, and a mesh screen covering a portion of an outer surface of said self-expandable metallic stent ; and a regulator attached to said blocker , and configured to contact the heart when said blocker is positioned between the atrium and the atrial appendage to occlude the atrial appendage in order to regulate cardiac rhythm of the heart, said regulator including: a controlling module positioned inside said self-expandable metallic stent , and a stimulation element which is electrically connected to said controlling module , and which is to contact the atrial appendage when said blocker is positioned. a controlling module positioned inside said self-expandable metallic stent , and a stimulation element which is electrically connected to said controlling module , and which is to contact the atrial appendage when said blocker is positioned.