mhurhangee/patent-ind-claim-en huggingface dataset:
An intelligent remote sensor enabled apparatus comprising: - a wireless communication device configured to communicate with a mobile device and an environment coordinator located at a site; and - a memory, the apparatus being characterized in that it further comprises: - an operating condition selector capable of enabling a manual selection of an operating condition of a network connected device at the site; - a processor configured to: ∘ process a selection of the operating condition selector to determine an operating condition, mode or state for altering a setting of the network connected device , ∘ detect a connection of the mobile device to the wireless communication device and initiate communicating of setting information to the mobile device, which is configured to communicate with the network connected device, to alter an operating condition of the network connected device; and/or o initiate communication of setting information to the environment coordinator , which is configured to communicate with the network connected device, to alter the operating condition of the network connected device ; and - wherein the memory is configured to store the setting information used by the processor . - a wireless communication device configured to communicate with a mobile device and an environment coordinator located at a site; and - a memory, - an operating condition selector capable of enabling a manual selection of an operating condition of a network connected device at the site; - a processor configured to: ∘ process a selection of the operating condition selector to determine an operating condition, mode or state for altering a setting of the network connected device , ∘ detect a connection of the mobile device to the wireless communication device and initiate communicating of setting information to the mobile device, which is configured to communicate with the network connected device, to alter an operating condition of the network connected device; and/or o initiate communication of setting information to the environment coordinator , which is configured to communicate with the network connected device, to alter the operating condition of the network connected device ; and ∘ process a selection of the operating condition selector to determine an operating condition, mode or state for altering a setting of the network connected device , ∘ detect a connection of the mobile device to the wireless communication device and initiate communicating of setting information to the mobile device, which is configured to communicate with the network connected device, to alter an operating condition of the network connected device; and/or o initiate communication of setting information to the environment coordinator , which is configured to communicate with the network connected device, to alter the operating condition of the network connected device ; and - wherein the memory is configured to store the setting information used by the processor .
A method for deploying a task in a computer cluster forming a supercomputer that comprises: - computers , each having at least one network interface forming a node (1...16); and - a network interconnecting the nodes (1...16), comprising: • switches (1.1...4.8), each having network interfaces; and • links , each connecting either a node (1...16) and a network interface of a switch (1.1...1.8), or two network interfaces of two respective switches (2.1...4.8), the method comprising: - allocating nodes (1...16) to the task, the method being characterized in that it further comprises: - determining , in the network , a subnetwork interconnecting the allocated nodes, said subnetwork satisfying a plurality of predefined determination criteria comprising a first criterion according to which the subnetwork determined is the one, from at least two subnetworks satisfying the criterion or criteria other than the first criterion, using the most switches already allocated, each to at least one already deployed task; - allocating the subnetwork, and in particular the links belonging to this subnetwork, to the task; and - implementing inter-node communication routes in the allocated subnetwork. - computers , each having at least one network interface forming a node (1...16); and - a network interconnecting the nodes (1...16), comprising: • switches (1.1...4.8), each having network interfaces; and • links , each connecting either a node (1...16) and a network interface of a switch (1.1...1.8), or two network interfaces of two respective switches (2.1...4.8), • switches (1.1...4.8), each having network interfaces; and • links , each connecting either a node (1...16) and a network interface of a switch (1.1...1.8), or two network interfaces of two respective switches (2.1...4.8), the method comprising: - allocating nodes (1...16) to the task, - allocating nodes (1...16) to the task, the method being characterized in that it further comprises: - determining , in the network , a subnetwork interconnecting the allocated nodes, said subnetwork satisfying a plurality of predefined determination criteria comprising a first criterion according to which the subnetwork determined is the one, from at least two subnetworks satisfying the criterion or criteria other than the first criterion, using the most switches already allocated, each to at least one already deployed task; - allocating the subnetwork, and in particular the links belonging to this subnetwork, to the task; and - implementing inter-node communication routes in the allocated subnetwork. - determining , in the network , a subnetwork interconnecting the allocated nodes, said subnetwork satisfying a plurality of predefined determination criteria comprising a first criterion according to which the subnetwork determined is the one, from at least two subnetworks satisfying the criterion or criteria other than the first criterion, using the most switches already allocated, each to at least one already deployed task; - allocating the subnetwork, and in particular the links belonging to this subnetwork, to the task; and - implementing inter-node communication routes in the allocated subnetwork.
A water heat exchanger accommodation unit comprising: a water heat exchanger through which a flammable refrigerant flows; a casing accommodating the water heat exchanger ; and an inner cover member disposed in the casing and configured to cover at least a refrigerant pipe connection portion of a refrigerant circuit and to guide a leaking flammable refrigerant to an outside of the casing , characterized in that the inner cover member includes a guide portion engaged with a connection port provided in the casing and configured to guide the leaking flammable refrigerant to the connection port . a water heat exchanger through which a flammable refrigerant flows; a casing accommodating the water heat exchanger ; and an inner cover member disposed in the casing and configured to cover at least a refrigerant pipe connection portion of a refrigerant circuit and to guide a leaking flammable refrigerant to an outside of the casing , characterized in that the inner cover member includes a guide portion engaged with a connection port provided in the casing and configured to guide the leaking flammable refrigerant to the connection port .
A by-pass turbojet defining an axis and forward and aft directions, comprising a nacelle , a primary stream passing through a compressor , a combustion chamber downstream from which the primary stream gas is ejected via a turbine in a primary nozzle cowl ; a secondary stream ; and a thrust reverser ; wherein the thrust reverser comprises deflector means suitable, in a thrust-reversal position, for deflecting all or part of the primary stream gas in the vicinity of or downstream from a aft end of the nacelle; such that in the thrust-reversal position, the deflected primary stream gas encounters the secondary stream, thereby reducing the speed of ejection thereof in the aft direction, and thus generating a reverse-thrust effect; the by-pass turbojet being characterized by being configured so that: during thrust-reversal, the secondary stream escapes from the aft of the nacelle; and in the thrust-reversal position, the deflector means are inscribed radially substantially inside the section of the primary nozzle cowl at the aft end of the nacelle ; an outer periphery of the nacelle being constituted of parts which remain stationary during thrust-reversal. during thrust-reversal, the secondary stream escapes from the aft of the nacelle; and in the thrust-reversal position, the deflector means are inscribed radially substantially inside the section of the primary nozzle cowl at the aft end of the nacelle ; an outer periphery of the nacelle being constituted of parts which remain stationary during thrust-reversal.
A method implemented by computer for sharing resources between connected objects (202 1 -202 3 ) forming a local network , said method implementing a management unit connected to said connected objects (202 1 -202 3 ) within said local network and controlling the sharing of resources using a list of shared resource(s) (LRP1, LRP2) that are shared by each of said connected objects (202 1 -202 3 ) within said local network , said method comprising at least one iteration of the following steps for at least one of said connected objects (202 i ), said steps being implemented by said management unit - monitoring the connection status, to said management unit , of each connected object (202 i ) to determine whether said connected object (202 i ) is reachable or not, and - in the event of a change in the connection status of each connected object (202 i ), updating said list (LRP1, LRP2) when said list (LRP1, LRP2) mentions a shared resource related to said connected object . - monitoring the connection status, to said management unit , of each connected object (202 i ) to determine whether said connected object (202 i ) is reachable or not, and - in the event of a change in the connection status of each connected object (202 i ), updating said list (LRP1, LRP2) when said list (LRP1, LRP2) mentions a shared resource related to said connected object .
A sensor unit for measuring and monitoring a plurality of parameters associated with an asset or equipment having a fixing connected thereto, said sensor unit having: a housing having a portion for receiving the fixing therethrough, wherein said portion of the housing functions as a clamping region , said clamping region being tubular, in part, or fork-shaped, through which part of a fastener is extendable and applying, in use, a clamping force to the clamping region to secure the housing in position; a resilient member ; a protrusion in the form of a piston , displaceable by said fixing, in use, towards or through a sensor against the resilient member therebetween, the displacement of the piston being proportional to the force applied to the clamping region of the sensor unit via the piston, wherein said fixing is biased against the resilient member located in the housing for providing a quantifiable degree of displacement; sensors arranged to measure and/or monitor (i) parameters associated with the fixing that is secured to the asset or equipment via the housing and/or (ii) parameters influencing the performance of the asset or equipment, wherein at least one sensor is configured to measure parameters associated with the displacement of the piston caused by the clamp force between said fixing and said asset or equipment; a processor configured to process data from the sensors; and a communicator adapted to transmit said data to a remote device. a housing having a portion for receiving the fixing therethrough, wherein said portion of the housing functions as a clamping region , said clamping region being tubular, in part, or fork-shaped, through which part of a fastener is extendable and applying, in use, a clamping force to the clamping region to secure the housing in position; a resilient member ; a protrusion in the form of a piston , displaceable by said fixing, in use, towards or through a sensor against the resilient member therebetween, the displacement of the piston being proportional to the force applied to the clamping region of the sensor unit via the piston, wherein said fixing is biased against the resilient member located in the housing for providing a quantifiable degree of displacement; sensors arranged to measure and/or monitor (i) parameters associated with the fixing that is secured to the asset or equipment via the housing and/or (ii) parameters influencing the performance of the asset or equipment, wherein at least one sensor is configured to measure parameters associated with the displacement of the piston caused by the clamp force between said fixing and said asset or equipment; a processor configured to process data from the sensors; and a communicator adapted to transmit said data to a remote device.
A urethane-based adhesive composition containing a urethane-based adhesive, a curing agent and a hydrophilic plasticizing agent as essential components, wherein a composition ratio of the urethane-based adhesive, the curing agent and the solid content is, based on 100 parts by mass of solid content of the urethane-based adhesive, 0.5 to 15 parts by mass of the solid content of the curing agent and 10 to 80 parts by mass of the solid content of the hydrophilic plasticizing agent.
An apparatus for delivering a flow of gas comprising: a housing having an elbow retainer and comprising a chamber bay for receipt of a removable liquid chamber ; a removable elbow that defines a gasflow passage for a flow of gas; and a removable retention cover removably engageable with the housing ; wherein the removable elbow is configured to removably engage with the elbow retainer wherein the elbow retainer is configured to receive at least a part of the removable elbow to removably engage therewith, wherein when engaged with the housing , the removable retention cover is configured to prevent removal of the removable elbow from the elbow retainer , wherein the removable elbow comprises a PCB electrical connector for coupling to a complementary connector in the housing when the removable elbow is connected to the housing , and wherein a first end of the removable elbow comprises a gases inlet port for coupling with an outlet gas port on a liquid chamber , and a second end of the removable elbow comprises a patient outlet port for coupling to a patient breathing conduit , and wherein, following receipt of the liquid chamber by the chamber bay and engagement of the removable elbow with the elbow retainer and engagement of the removable retention cover with the housing , the removable elbow is configured to remain engaged with the elbow retainer when the liquid chamber is removed from the chamber bay . a housing having an elbow retainer and comprising a chamber bay for receipt of a removable liquid chamber ; a removable elbow that defines a gasflow passage for a flow of gas; and a removable retention cover removably engageable with the housing ; wherein the removable elbow is configured to removably engage with the elbow retainer wherein the elbow retainer is configured to receive at least a part of the removable elbow to removably engage therewith, wherein when engaged with the housing , the removable retention cover is configured to prevent removal of the removable elbow from the elbow retainer , wherein the removable elbow comprises a PCB electrical connector for coupling to a complementary connector in the housing when the removable elbow is connected to the housing , and wherein a first end of the removable elbow comprises a gases inlet port for coupling with an outlet gas port on a liquid chamber , and a second end of the removable elbow comprises a patient outlet port for coupling to a patient breathing conduit , and wherein, following receipt of the liquid chamber by the chamber bay and engagement of the removable elbow with the elbow retainer and engagement of the removable retention cover with the housing , the removable elbow is configured to remain engaged with the elbow retainer when the liquid chamber is removed from the chamber bay .
An injection molding machine comprising: a mold clamping unit to which a mold unit is attached; and a control unit , characterized in that the control unit is configured to perform other setup work during a change of the mold unit attached to the mold clamping unit . a mold clamping unit to which a mold unit is attached; and a control unit , characterized in that the control unit is configured to perform other setup work during a change of the mold unit attached to the mold clamping unit .
Holding device usable for holding a plurality of substrates in a substrate treatment plant, comprising the following components: - a flange , which is designed as a circular plate with supports mounted radially on the plate, - at least one segment which is detachably arranged on the flange and removably arranged on the holding device; - wherein at least the supports of the flange have connecting surfaces for arranging the at least one segment on the flange ; - wherein the at least one segment has a segment support structure , - whereby the detachable connection of the at least one segment to the flange is made by means of the segment support structure; - at least one carrier for receiving one or more substrates , which is mounted on the segment support structure , - wherein a carrier or the segment support structure of the at least one segment or both components are designed to at least partially cover the connecting surfaces on the flange when the carrier is held by the holding device . - a flange , which is designed as a circular plate with supports mounted radially on the plate, - at least one segment which is detachably arranged on the flange and removably arranged on the holding device; - wherein at least the supports of the flange have connecting surfaces for arranging the at least one segment on the flange ; - wherein the at least one segment has a segment support structure , - whereby the detachable connection of the at least one segment to the flange is made by means of the segment support structure; - at least one carrier for receiving one or more substrates , which is mounted on the segment support structure , - wherein a carrier or the segment support structure of the at least one segment or both components are designed to at least partially cover the connecting surfaces on the flange when the carrier is held by the holding device .
A method of interaction using augmented reality, the method comprising: generating on a device of a local user a local augmented reality, AR, view and generating on a device of a remote user a remote AR view, wherein the local AR view and the remote AR view each comprise an independent physical camera view within the respective device; wherein the device of the local user and the device of the remote user generate AR coordinates and update a virtual camera view of AR content within the AR view according to the generated AR coordinates; aligning , by the device of the local user , the local AR view to the remote AR view of the remote user with respect to a marker or point of reference on which to display the AR content; receiving, at the device of the local user , remote annotations from the remote user ; sending , from the device of the local user , local annotations registered to the local AR view to the remote user ; manipulating , by the device of the local user , the local AR view with the remote annotations and the local annotations; showing the AR content in the local AR view or in the remote AR view and locking the AR content into position on a real-world object; and viewing , on the device of the local user , the local AR view, remote annotations, and local annotations according to the remote AR view of the remote user ; wherein the device of the local user and the device of the remote user are each chosen from a group including a tablet, a mobile phone, a laptop computer, a head-mounted display and a virtual-reality display. generating on a device of a local user a local augmented reality, AR, view and generating on a device of a remote user a remote AR view, wherein the local AR view and the remote AR view each comprise an independent physical camera view within the respective device; wherein the device of the local user and the device of the remote user generate AR coordinates and update a virtual camera view of AR content within the AR view according to the generated AR coordinates; aligning , by the device of the local user , the local AR view to the remote AR view of the remote user with respect to a marker or point of reference on which to display the AR content; receiving, at the device of the local user , remote annotations from the remote user ; sending , from the device of the local user , local annotations registered to the local AR view to the remote user ; manipulating , by the device of the local user , the local AR view with the remote annotations and the local annotations; showing the AR content in the local AR view or in the remote AR view and locking the AR content into position on a real-world object; and viewing , on the device of the local user , the local AR view, remote annotations, and local annotations according to the remote AR view of the remote user ; wherein the device of the local user and the device of the remote user are each chosen from a group including a tablet, a mobile phone, a laptop computer, a head-mounted display and a virtual-reality display.