mhurhangee/patent-ind-claim-en huggingface dataset:
A thermal bonding assembly for sheets made of polymeric material, of the type comprising at least one pair of jaws that can be moved mutually closer, at least one of which is provided with a heater at its surface for abutment against a corresponding complementary surface of the other jaw of the pair, wherein it comprises a shaft that can rotate by virtue of the action of a respective motor, said shaft comprising at least two eccentric rings which are arranged side by side so that the eccentric portion that protrudes the most with respect to the rotation axis is substantially mutually opposite, characterized in that each jaw of said pair comprises a respective through hole for the accommodation of said shaft , with the interposition of a rotatable disk , the hole of a first jaw accommodating rotatably a first disk , said first disk being provided with an eccentric hole the shape and dimensions of which are complementary to those of a respective eccentric ring that is integral with said shaft and the hole of a second jaw accommodating rotatably a second disk , said second disk being provided with an eccentric hole the shape and dimensions of which are complementary to those of a respective eccentric ring that is integral with said shaft , the rotation of said shaft causing a mutual approach/spacing motion of said abutment surfaces of said jaws by virtue of the action of said eccentric rings in the corresponding disk that can rotate in said hole of a respective jaw .
A method of enhancing images obtained by at least two viewing elements in an endoscope system using a contrast limited adaptive histogram equalization (CLAHE) algorithm wherein said endoscope system includes a controller having a baseboard module comprising a field programmable gate array (FPGA) configured to implement said algorithm, said method comprising the steps of: inputting YCbCr color space video streams to an adapter on said FPGA; converting said YCbCr color space video streams to Lab color space video streams within said adapter; pushing said Lab color space video streams to a frame grabber on said FPGA; grabbing said Lab color space video streams as Lab color space frames within said frame grabber; pulling said Lab color space frames from the frame grabber using a fetching module on said FPGA; rearranging Lab color space frame data within said fetching module to generate delayed Lab streams; pushing said delayed Lab streams to separate modules within an interpolation algorithm on said FPGA; and processing said delayed Lab streams with said CLAHE algorithm within said separate modules to generate contrast enhanced Lab streams. inputting YCbCr color space video streams to an adapter on said FPGA; converting said YCbCr color space video streams to Lab color space video streams within said adapter; pushing said Lab color space video streams to a frame grabber on said FPGA; grabbing said Lab color space video streams as Lab color space frames within said frame grabber; pulling said Lab color space frames from the frame grabber using a fetching module on said FPGA; rearranging Lab color space frame data within said fetching module to generate delayed Lab streams; pushing said delayed Lab streams to separate modules within an interpolation algorithm on said FPGA; and processing said delayed Lab streams with said CLAHE algorithm within said separate modules to generate contrast enhanced Lab streams.
A method for coordinating contamination removal from a surface of an aircraft, the method comprising: receiving an electronic contamination removal request directly from an aircraft pilot device at a computer request module of a system for coordinating contamination removal from a surface of an aircraft, the electronic contamination removal request including aircraft information, such as an aircraft Civil ID, associated with an aircraft transmitting the electronic contamination removal request; determining, by the computer request module , a physical location within the airport for performing contamination removal treatment, the determination being based on available contamination removal locations; electronically transmitting , via the computer request module or a computer coordination module of the system, the physical location for contamination removal treatment to the aircraft; electronically receiving progress, at a computer de-icing module of the system, of contamination removal treatment; and electronically transmitting progress of contamination removal treatment, via the computer de-icing module , to the aircraft pilot device and/or a central tower manager (CTM) device ; wherein the progress of contamination removal treatment is displayed on multiple displays to allow for close monitoring of the contamination removal treatment by the aircraft pilot, a central tower manager and contamination removal personnel . receiving an electronic contamination removal request directly from an aircraft pilot device at a computer request module of a system for coordinating contamination removal from a surface of an aircraft, the electronic contamination removal request including aircraft information, such as an aircraft Civil ID, associated with an aircraft transmitting the electronic contamination removal request; determining, by the computer request module , a physical location within the airport for performing contamination removal treatment, the determination being based on available contamination removal locations; electronically transmitting , via the computer request module or a computer coordination module of the system, the physical location for contamination removal treatment to the aircraft; electronically receiving progress, at a computer de-icing module of the system, of contamination removal treatment; and electronically transmitting progress of contamination removal treatment, via the computer de-icing module , to the aircraft pilot device and/or a central tower manager (CTM) device ; wherein the progress of contamination removal treatment is displayed on multiple displays to allow for close monitoring of the contamination removal treatment by the aircraft pilot, a central tower manager and contamination removal personnel .
A method of wireless communication, comprising: receiving, by a first wireless communication device from a central entity of a multi-hop wireless network, a first transmission timing adjustment command being a timing advance command instructing the first wireless communication device to communicate with a second wireless communication device and a third wireless communication device of the multi-hop wireless network at an earlier time than an expected scheduled transmit time; communicating, by the first wireless communication device with the second wireless communication device of the multi-hop wireless network based on at least the first transmission timing adjustment command, a first communication signal including backhaul data; and communicating, by the first wireless communication device with the third wireless communication device of the multi-hop wireless network based on the at least the first transmission timing adjustment command, a second communication signal. receiving, by a first wireless communication device from a central entity of a multi-hop wireless network, a first transmission timing adjustment command being a timing advance command instructing the first wireless communication device to communicate with a second wireless communication device and a third wireless communication device of the multi-hop wireless network at an earlier time than an expected scheduled transmit time; communicating, by the first wireless communication device with the second wireless communication device of the multi-hop wireless network based on at least the first transmission timing adjustment command, a first communication signal including backhaul data; and communicating, by the first wireless communication device with the third wireless communication device of the multi-hop wireless network based on the at least the first transmission timing adjustment command, a second communication signal.
A method comprising: identifying , by a network device in a multicast network, a network topology of the multicast network, the method being characterized in that identifying includes identifying whether the network topology includes a layer 2 network topology and/or a layer 3 network topology; enabling , by the network device, a multicast protocol on the network device based on the network topology of the multicast network, wherein in response to the identification that the network topology of the multicast network includes a layer 2 topology, enabling Internet Group Management Protocol, IGMP, snooping on the network device, and wherein in response to the identification that the network topology of the multicast network includes a layer 3 topology, enabling both IGMP protocol and Protocol Independent Multicast, PIM, protocol on the network device; determining , by the network device, a network parameter related to the multicast network; and auto-configuring , on the network device, a multicast parameter related to the multicast protocol, based on the network parameter related to the multicast network. identifying , by a network device in a multicast network, a network topology of the multicast network, the method being characterized in that identifying includes identifying whether the network topology includes a layer 2 network topology and/or a layer 3 network topology; enabling , by the network device, a multicast protocol on the network device based on the network topology of the multicast network, wherein in response to the identification that the network topology of the multicast network includes a layer 2 topology, enabling Internet Group Management Protocol, IGMP, snooping on the network device, and wherein in response to the identification that the network topology of the multicast network includes a layer 3 topology, enabling both IGMP protocol and Protocol Independent Multicast, PIM, protocol on the network device; determining , by the network device, a network parameter related to the multicast network; and auto-configuring , on the network device, a multicast parameter related to the multicast protocol, based on the network parameter related to the multicast network.
A screen-printing paste composition for producing an electrical conductor arrangement comprising - particulate noble metal comprising platinum and/or palladium, - metal oxides, and - organic binding agents and/or solvents, wherein the proportion of metal oxides in the screen-printing paste composition is from 5 to 15 wt.% relative to the total quantity of platinum and metal oxides, and wherein SiO 2 , Al 2 O 3 , and BaO amount to a proportion of at least 60 wt.% of the metallic oxides in the screen-printing paste composition. - particulate noble metal comprising platinum and/or palladium, - metal oxides, and - organic binding agents and/or solvents,
A process for flexographic printing of ink onto a polymeric film substrate in a central impression cylinder press, wherein the width of printed substrate is greater than 800 mm, to provide high opacity printing, the printing process comprising: transferring ink from an ink reservoir to an anilox roll; transferring the ink from the anilox roll to a printing plate; and applying the ink to the surface of the substrate by applying pressure between the printing plate and an impression surface and passing the substrate between the printing plate and the impression surface; wherein the ink is white ink comprising pigment selected from the group consisting of: titanium dioxide, zinc oxide, lithopone and zinc sulfide; wherein the thickness of the polymeric film substrate is from 12 to 100 micrometers and the ink volume transferred by the anilox roll is from 9-20 cm 3 /m 2 , and wherein the printing plate is a high definition printing plate comprising at least 40 lines per centimeter, wherein the high definition printing plate comprises an array of dots which are round top dots with microcell structures; wherein the opacity of the polymeric film substrate before the printing process, measured according to ISO 6504-03, is less than 80% and the opacity of the printed film substrate after printing of the white ink is greater than 92%, measured according to ISO 6504-03. transferring ink from an ink reservoir to an anilox roll; transferring the ink from the anilox roll to a printing plate; and applying the ink to the surface of the substrate by applying pressure between the printing plate and an impression surface and passing the substrate between the printing plate and the impression surface; wherein the ink is white ink comprising pigment selected from the group consisting of: titanium dioxide, zinc oxide, lithopone and zinc sulfide; wherein the thickness of the polymeric film substrate is from 12 to 100 micrometers and the ink volume transferred by the anilox roll is from 9-20 cm 3 /m 2 , and wherein the printing plate is a high definition printing plate comprising at least 40 lines per centimeter, wherein the high definition printing plate comprises an array of dots which are round top dots with microcell structures; wherein the opacity of the polymeric film substrate before the printing process, measured according to ISO 6504-03, is less than 80% and the opacity of the printed film substrate after printing of the white ink is greater than 92%, measured according to ISO 6504-03.
A system for controlling message routing within a wireless network comprising a plurality of nodes (1,11-15), said system comprising: - at least one processor configured to: - determine a first subset of said plurality of nodes (1,11-15), said first subset comprising one or more devices that are assigned a radio frequency-based presence and/or location detection function, - determine a plurality of routes from a source node to a destination node , at least one of said plurality of routes comprising one or more intermediate nodes , and - select one of said plurality of routes based on how many of said intermediate nodes of each of said plurality of routes are part of said first subset of said plurality of nodes (1,11-15); and - an interface to said wireless network configured to: - transmit one or more messages to cause said wireless network to perform message routing according to said selected route. - at least one processor configured to: - determine a first subset of said plurality of nodes (1,11-15), said first subset comprising one or more devices that are assigned a radio frequency-based presence and/or location detection function, - determine a plurality of routes from a source node to a destination node , at least one of said plurality of routes comprising one or more intermediate nodes , and - select one of said plurality of routes based on how many of said intermediate nodes of each of said plurality of routes are part of said first subset of said plurality of nodes (1,11-15); and - determine a first subset of said plurality of nodes (1,11-15), said first subset comprising one or more devices that are assigned a radio frequency-based presence and/or location detection function, - determine a plurality of routes from a source node to a destination node , at least one of said plurality of routes comprising one or more intermediate nodes , and - select one of said plurality of routes based on how many of said intermediate nodes of each of said plurality of routes are part of said first subset of said plurality of nodes (1,11-15); and - an interface to said wireless network configured to: - transmit one or more messages to cause said wireless network to perform message routing according to said selected route. - transmit one or more messages to cause said wireless network to perform message routing according to said selected route.
A method in a wireless terminal (26 1 ) which communicates with a node of a radio access network over a radio interface , the method comprising: when the wireless terminal (26 1 ) is in Radio Resource Control, RRC, Connected state, receiving from the node a first indication which indicates that, for device-to-device, D2D, communication with another wireless terminal (26 2 ), the wireless terminal (26 1 ) is to use network-allocated radio resources; and when the wireless terminal (26 1 ) is in RRC Idle state, and the wireless terminal is in-coverage, receiving from the node a second indication which indicates that, for D2D communication with another wireless terminal , the wireless terminal is to use radio resources which are selected by the wireless terminal (26 1 ) from a preconfigured radio resource pool . when the wireless terminal (26 1 ) is in Radio Resource Control, RRC, Connected state, receiving from the node a first indication which indicates that, for device-to-device, D2D, communication with another wireless terminal (26 2 ), the wireless terminal (26 1 ) is to use network-allocated radio resources; and when the wireless terminal (26 1 ) is in RRC Idle state, and the wireless terminal is in-coverage, receiving from the node a second indication which indicates that, for D2D communication with another wireless terminal , the wireless terminal is to use radio resources which are selected by the wireless terminal (26 1 ) from a preconfigured radio resource pool .
An aqueous dispersion comprising a microcapsule and water, the microcapsule comprising: a shell having a three-dimensional cross-linked structure comprising: at least one bond selected from the group consisting of a urethane bond and a urea bond; and an anionic group and a nonionic group as hydrophilic groups; and a core, the nonionic group being a monovalent group having a polyether structure, the shell comprising a photopolymerization initiating group that is a residue obtained by removal of at least one hydrogen atom from at least one active hydrogen group of a photopolymerization initiator having an at least one active hydrogen group, the active hydrogen group being a hydroxyl group, a primary amino group, a secondary amino group, or a mercapto group, and at least one of the shell comprising a polymerizable group or the core comprising a polymerizable compound being satisfied. a shell having a three-dimensional cross-linked structure comprising: at least one bond selected from the group consisting of a urethane bond and a urea bond; and an anionic group and a nonionic group as hydrophilic groups; and a core, the nonionic group being a monovalent group having a polyether structure, the shell comprising a photopolymerization initiating group that is a residue obtained by removal of at least one hydrogen atom from at least one active hydrogen group of a photopolymerization initiator having an at least one active hydrogen group, the active hydrogen group being a hydroxyl group, a primary amino group, a secondary amino group, or a mercapto group, and at least one of the shell comprising a polymerizable group or the core comprising a polymerizable compound being satisfied.
A water intake and flow monitoring device for hydraulic dam , shaped to be partly positioned between a fixed part and a movable sealing part of a dam drain valve , the latter being disposed in said dam, the device comprising: - at least one catchment pipe of section wider than it is high, each catchment pipe having an inlet mouth which allows water catchment and an outlet mouth which is connected to a manifold into which it opens out, - at least one distributor pipe , connected to said manifold or to one of said manifolds , this distributor pipe being provided with at least one water distribution valve on the downstream side of the dam, such as a solenoid valve, - at least one remote central unit for controlling the operation of said distribution valve . - at least one catchment pipe of section wider than it is high, each catchment pipe having an inlet mouth which allows water catchment and an outlet mouth which is connected to a manifold into which it opens out, - at least one distributor pipe , connected to said manifold or to one of said manifolds , this distributor pipe being provided with at least one water distribution valve on the downstream side of the dam, such as a solenoid valve, - at least one remote central unit for controlling the operation of said distribution valve .
A conveyor for aluminium cans , comprising: a first conveyor belt for conveying aluminium cans along a product path moving in a first direction ; a second conveyor belt moving in a second direction ; a guide device for touchlessly guiding the aluminium cans along the product path without mechanically contacting the aluminium cans ; wherein the touchless guide is disposed below the product path to motivate the aluminium cans from the bottom direction; a junction zone between the first and second conveyor belts ; a low friction surface ; characterized in that , the touchless guide comprises a plurality of curved rails ; wherein the junction zone comprises the plurality of curved rails below the product path in the junction zone ; the low friction surface is directly above the curved rails to form the product path in the junction zone ; wherein each curved rail comprises a linear induction motor; and wherein the curved linear induction motors are activated to propel the aluminium cans around and through the 90° junction zone . a first conveyor belt for conveying aluminium cans along a product path moving in a first direction ; a second conveyor belt moving in a second direction ; a guide device for touchlessly guiding the aluminium cans along the product path without mechanically contacting the aluminium cans ; wherein the touchless guide is disposed below the product path to motivate the aluminium cans from the bottom direction; a junction zone between the first and second conveyor belts ; the touchless guide comprises a plurality of curved rails ; wherein the junction zone comprises the plurality of curved rails below the product path in the junction zone ; the low friction surface is directly above the curved rails to form the product path in the junction zone ; wherein each curved rail comprises a linear induction motor; and wherein the curved linear induction motors are activated to propel the aluminium cans around and through the 90° junction zone .
An optical sensor comprising: an optical cavity defined by a dielectric body and responsive to one or more physical environmental conditions; a waveguide having a terminal end spaced apart from the optical cavity such that light is optically coupled from the terminal end of the waveguide to the optical cavity; and a spacer comprising a hollow tube extending between the dielectric body at a proximal end of the spacer and towards the terminal end of the waveguide , the spacer arranged such that the distance between the terminal end of the waveguide and the optical cavity is greater than 1 mm and the distance is sufficient such that, when the optical sensor is in use, the waveguide is maintained at a first temperature that would not damage the mechanical or optical properties of the waveguide whilst the dielectric body is at a second temperature, higher than the first temperature, that would be sufficient to damage the mechanical or optical properties of the waveguide . an optical cavity defined by a dielectric body and responsive to one or more physical environmental conditions; a waveguide having a terminal end spaced apart from the optical cavity such that light is optically coupled from the terminal end of the waveguide to the optical cavity; and a spacer comprising a hollow tube extending between the dielectric body at a proximal end of the spacer and towards the terminal end of the waveguide , the spacer arranged such that the distance between the terminal end of the waveguide and the optical cavity is greater than 1 mm and the distance is sufficient such that, when the optical sensor is in use, the waveguide is maintained at a first temperature that would not damage the mechanical or optical properties of the waveguide whilst the dielectric body is at a second temperature, higher than the first temperature, that would be sufficient to damage the mechanical or optical properties of the waveguide .