mhurhangee/patent-ind-claim-en huggingface dataset:
A light emitting device comprising: a substrate ; a plurality of light emitting elements mounted on the substrate ; light transmissive members each disposed on an upper surface of each of the plurality of light emitting elements ; an underfill covering an upper surface of the substrate , a lateral surface of each of the plurality of light emitting elements , and a lateral surface of each of the light transmissive members between the light transmissive members ; and a cover member covering the side surface of each of the light emitting elements and the side surface of each of the light transmissive members to seal the light emitting elements together with the underfill ; wherein the cover member covers an upper surface of the underfill between the light emitting elements and has a hardness greater than a hardness of the underfill ; and in a plan view, at least a portion of a periphery of the cover member coincides with a periphery of the substrate , and a portion of the underfill arranged on the periphery of the substrate that coincides the at least the portion of periphery of the cover member has a thickness of 10 μm or smaller. a substrate ; a plurality of light emitting elements mounted on the substrate ; light transmissive members each disposed on an upper surface of each of the plurality of light emitting elements ; an underfill covering an upper surface of the substrate , a lateral surface of each of the plurality of light emitting elements , and a lateral surface of each of the light transmissive members between the light transmissive members ; and a cover member covering the side surface of each of the light emitting elements and the side surface of each of the light transmissive members to seal the light emitting elements together with the underfill ; wherein the cover member covers an upper surface of the underfill between the light emitting elements and has a hardness greater than a hardness of the underfill ; and in a plan view, at least a portion of a periphery of the cover member coincides with a periphery of the substrate , and a portion of the underfill arranged on the periphery of the substrate that coincides the at least the portion of periphery of the cover member has a thickness of 10 μm or smaller. a cover member covering the side surface of each of the light emitting elements and the side surface of each of the light transmissive members to seal the light emitting elements together with the underfill ; wherein the cover member covers an upper surface of the underfill between the light emitting elements and has a hardness greater than a hardness of the underfill ; and in a plan view, at least a portion of a periphery of the cover member coincides with a periphery of the substrate , and a portion of the underfill arranged on the periphery of the substrate that coincides the at least the portion of periphery of the cover member has a thickness of 10 μm or smaller.
A method for radio access virtualization in a wireless network , the method comprising: signaling , by a first network device to the network , a cooperative transmission capability or a cooperative reception capability of the first network device, receiving , by the first network device in the network, a selected operation mode, wherein the selected operation mode is selected in accordance with the cooperative transmission capability or the cooperative reception capability, and the selected operation mode is one of one or more operation modes, wherein the one or more operation modes includes a hyper transceiver mode where multiple transmitting nodes cooperatively communicate with multiple receiving nodes, and wherein the hyper transceiver mode configures a virtual transmission point formed from plural transmitting nodes to cooperatively communicate with a virtual reception point formed from cooperating receiving nodes in accordance with neighborhood relations of a target radio node, wherein the plural transmitting nodes are base stations and the cooperating receiving nodes are UEs; and communicating with a second network device in the network in accordance with the selected operation mode. signaling , by a first network device to the network , a cooperative transmission capability or a cooperative reception capability of the first network device, receiving , by the first network device in the network, a selected operation mode, wherein the selected operation mode is selected in accordance with the cooperative transmission capability or the cooperative reception capability, and the selected operation mode is one of one or more operation modes, wherein the one or more operation modes includes a hyper transceiver mode where multiple transmitting nodes cooperatively communicate with multiple receiving nodes, and wherein the hyper transceiver mode configures a virtual transmission point formed from plural transmitting nodes to cooperatively communicate with a virtual reception point formed from cooperating receiving nodes in accordance with neighborhood relations of a target radio node, wherein the plural transmitting nodes are base stations and the cooperating receiving nodes are UEs; and communicating with a second network device in the network in accordance with the selected operation mode.
An apparatus for alleviating obstruction of an airway, comprising: a therapy appliance comprising a peripheral surface configured to mate with and thereby enclose an external area of the throat overlying the upper respiratory passage, whereby, when mated, said therapy appliance provides a space-filled chamber lying between the inner surface of the therapy appliance and the throat having an enclosed volume of between 8.19×10 -6 and 1.97×10 -4 m 3 (0.5 and 12 in 3 ), wherein said peripheral edge is configured to provide a pressure along the contact surface with the user's skin of 8 kPa (60 mm Hg) or less at a partial vacuum level within said enclosed volume of between 2. P 0.75 kPa to 5.98 kPa (7.6 cm to 61 cm of water); ; and an air pump operably connected to the chamber and configured to maintain a partial vacuum within said chamber, a pressure sensor which is connected to a controller for controlling the air pump, wherein the pressure sensor is adapted to determine the differential between a partial vacuum in the space-filled chamber and the ambient atmospheric pressure, and wherein the controller is adapted to control the air pump in response to the differential which is determined by the pressure sensor, to maintain a partial vacuum in the space-filled chamber at a desired level. a therapy appliance comprising a peripheral surface configured to mate with and thereby enclose an external area of the throat overlying the upper respiratory passage, whereby, when mated, said therapy appliance provides a space-filled chamber lying between the inner surface of the therapy appliance and the throat having an enclosed volume of between 8.19×10 -6 and 1.97×10 -4 m 3 (0.5 and 12 in 3 ), wherein said peripheral edge is configured to provide a pressure along the contact surface with the user's skin of 8 kPa (60 mm Hg) or less at a partial vacuum level within said enclosed volume of between 2. P 0.75 kPa to 5.98 kPa (7.6 cm to 61 cm of water); ; and an air pump operably connected to the chamber and configured to maintain a partial vacuum within said chamber, a pressure sensor which is connected to a controller for controlling the air pump, wherein the pressure sensor is adapted to determine the differential between a partial vacuum in the space-filled chamber and the ambient atmospheric pressure, and wherein the controller is adapted to control the air pump in response to the differential which is determined by the pressure sensor, to maintain a partial vacuum in the space-filled chamber at a desired level.
A network switching method performed by a terminal, comprising: determining, through sending a test data packet, whether a target wireless access network to be switched to is capable of establishing a connection with an IP Multimedia Subsystem, IMS, network ; and switching a wireless access network corresponding to the terminal to the target wireless access network if it is determined that the target wireless access network is capable of establishing the connection with the IMS network . determining, through sending a test data packet, whether a target wireless access network to be switched to is capable of establishing a connection with an IP Multimedia Subsystem, IMS, network ; and switching a wireless access network corresponding to the terminal to the target wireless access network if it is determined that the target wireless access network is capable of establishing the connection with the IMS network .
A vacuum compaction device for compacting a charge of composite material on a supporting surface , wherein the device is configured to be positioned on the supporting surface to define an enclosed volume, the device comprising: a barrier structure that includes a first side and an opposed second side; a sealing structure that is configured to form a fluid seal between the supporting surface and the barrier structure when compressed therebetween; and a vacuum distribution manifold that is in fluid communication with and configured to selectively apply a vacuum to the enclosed volume; wherein the barrier structure is defined by a first planar wall , a second planar wall , and a plurality of elongate webs that extend between the first planar wall and the second planar wall, wherein the first planar wall, the second planar wall, and the plurality of elongate webs define a plurality of elongate channels , and further wherein the plurality of elongate channels defines at least a portion of the vacuum distribution manifold . a barrier structure that includes a first side and an opposed second side; a sealing structure that is configured to form a fluid seal between the supporting surface and the barrier structure when compressed therebetween; and a vacuum distribution manifold that is in fluid communication with and configured to selectively apply a vacuum to the enclosed volume; wherein the barrier structure is defined by a first planar wall , a second planar wall , and a plurality of elongate webs that extend between the first planar wall and the second planar wall, wherein the first planar wall, the second planar wall, and the plurality of elongate webs define a plurality of elongate channels , and further wherein the plurality of elongate channels defines at least a portion of the vacuum distribution manifold .
A method for selecting a treatment for a mammal having skin cancer, wherein said method comprises: (a) determining a tumor-node-metastasis (TNM) stage of said skin cancer using a TNM staging system, (b) determining the expression levels of ITGB3, TP53, LAMB1, and PLAT (ITLP) in skin cancer cells obtained from a mammal having skin cancer, (c) classifying said skin cancer as being ITLP negative or ITLP positive based on said expression levels, and (d) selecting a cancer treatment for said mammal, wherein when said skin cancer is ITLP positive, a cancer treatment for a stage one greater than said TNM stage is selected. (a) determining a tumor-node-metastasis (TNM) stage of said skin cancer using a TNM staging system, (b) determining the expression levels of ITGB3, TP53, LAMB1, and PLAT (ITLP) in skin cancer cells obtained from a mammal having skin cancer, (c) classifying said skin cancer as being ITLP negative or ITLP positive based on said expression levels, and (d) selecting a cancer treatment for said mammal, wherein when said skin cancer is ITLP positive, a cancer treatment for a stage one greater than said TNM stage is selected.
A gas supply system that supplies a demander with a mixed gas (G3) obtained by mixing a first gas (G1) generated by vaporization of a first low-temperature liquefied gas (L1) and a second gas (G2) generated by vaporization of a second low-temperature liquefied gas (L2) that is lower in temperature than the first low-temperature liquefied gas (L1), the gas supply system comprising: a first tank configured to store the first low-temperature liquefied gas (L1); a first path into which the first gas (G1) generated by vaporization of the first low-temperature liquefied gas (L1) in the first tank flows, a gas boosting mechanism configured to boost the first gas (G1) being disposed in the first path ; a second path that is a path configured to extract the first low-temperature liquefied gas (L1) from the first tank , a pump configured to boost the first low-temperature liquefied gas (L1) and a vaporization mechanism configured to vaporize the first low-temperature liquefied gas (L1) boosted by the pump being disposed in the second path ; and a reliquefaction path that is a path configured to liquefy at least part of the first gas (G1) extracted from an upstream side of the gas boosting mechanism in the first path and to cause the liquefied first gas (G1) to flow into an upstream side of the pump in the second path , a cooling heat exchanger configured to cool the first gas (G1) by the second low-temperature liquefied gas (L2) or the second gas (G2) being disposed in the reliquefaction path . a first tank configured to store the first low-temperature liquefied gas (L1); a first path into which the first gas (G1) generated by vaporization of the first low-temperature liquefied gas (L1) in the first tank flows, a gas boosting mechanism configured to boost the first gas (G1) being disposed in the first path ; a second path that is a path configured to extract the first low-temperature liquefied gas (L1) from the first tank , a pump configured to boost the first low-temperature liquefied gas (L1) and a vaporization mechanism configured to vaporize the first low-temperature liquefied gas (L1) boosted by the pump being disposed in the second path ; and a reliquefaction path that is a path configured to liquefy at least part of the first gas (G1) extracted from an upstream side of the gas boosting mechanism in the first path and to cause the liquefied first gas (G1) to flow into an upstream side of the pump in the second path , a cooling heat exchanger configured to cool the first gas (G1) by the second low-temperature liquefied gas (L2) or the second gas (G2) being disposed in the reliquefaction path .
Organic peroxide composition that is solid at room temperature, said composition comprising: - at least 40 wt% - based on the weight of the entire composition - of an organic peroxide that is solid at room temperature, said organic peroxide being selected from peroxydicarbonates and diacylperoxides, - 0.001-5 wt% - based on the weight of organic peroxide in the composition - of an HCI scavenger that is solid at room temperature. - at least 40 wt% - based on the weight of the entire composition - of an organic peroxide that is solid at room temperature, said organic peroxide being selected from peroxydicarbonates and diacylperoxides, - 0.001-5 wt% - based on the weight of organic peroxide in the composition - of an HCI scavenger that is solid at room temperature.
A display device comprising: a display region in which a plurality of pixels are arranged two -dimensionally, wherein each of the plurality of pixels includes a light-emitting layer and a lens that refracts light from the light-emitting layer, in an orthographic projection of a first lens included in a first pixel with respect to the light-emitting layer , a position of an apex of the first lens and a position of a center of the first lens are separated by a first distance , the plurality of pixels include a second pixel that is located nearer than the first pixel to a periphery in the display region , in an orthographic projection of a second lens included in the second pixel with respect to the light-emitting layer , a position of an apex of the second lens and a position of a center of the second lens are separated by a second distance, characterized in that the second distance is longer than the first distance. a display region in which a plurality of pixels are arranged two -dimensionally, wherein each of the plurality of pixels includes a light-emitting layer and a lens that refracts light from the light-emitting layer, in an orthographic projection of a first lens included in a first pixel with respect to the light-emitting layer , a position of an apex of the first lens and a position of a center of the first lens are separated by a first distance , the plurality of pixels include a second pixel that is located nearer than the first pixel to a periphery in the display region , in an orthographic projection of a second lens included in the second pixel with respect to the light-emitting layer , a position of an apex of the second lens and a position of a center of the second lens are separated by a second distance, characterized in that the second distance is longer than the first distance.
Modular bodyshell of a railway vehicle, characterised in that it is formed from at least two bodyshell parts which are interleaved one in the other in a telescopic manner, so that this modular bodyshell has a variable length.
A communication method for use in a battery management system comprising a main battery management unit (BMU) (M 1 ), a backup BMU (M 2 ) and a plurality of managed units (So, S 1 , S n ), characterized in that the method comprises: determining, by the main BMU (M 1 ), from the plurality of managed units (So, S 1 , S n ) a first fault unit that communicates abnormally with the main BMU (M 1 ), and transmitting, by the main BMU (M 1 ), to the backup BMU (M 2 ) a fault frequency at which the first fault unit communicates abnormally with the main BMU (M 1 ) (S510); selecting, by the backup BMU (M 2 ), from the plurality of managed units (So, S 1 , S n ) a managed unit that communicates normally with both the backup BMU (M 2 ) and the first fault unit as a first target unit (S520); transmitting, by the backup BMU (M 2 ), first frequency conversion information to the first fault unit through the first target unit based on the fault frequency, wherein the first frequency conversion information is to instruct the first fault unit to convert its frequency to a first frequency (S530); converting, by the first fault unit, its frequency to the first frequency based on the first frequency conversion information (S540); transmitting, by the backup BMU (M 2 ), the first frequency to the main BMU (M 1 ) if the backup BMU (M 2 ) communicates normally with the first fault unit using the first frequency (S550); and communicating, by the main BMU (M 1 ), with the first fault unit using the first frequency (S560). determining, by the main BMU (M 1 ), from the plurality of managed units (So, S 1 , S n ) a first fault unit that communicates abnormally with the main BMU (M 1 ), and transmitting, by the main BMU (M 1 ), to the backup BMU (M 2 ) a fault frequency at which the first fault unit communicates abnormally with the main BMU (M 1 ) (S510); selecting, by the backup BMU (M 2 ), from the plurality of managed units (So, S 1 , S n ) a managed unit that communicates normally with both the backup BMU (M 2 ) and the first fault unit as a first target unit (S520); transmitting, by the backup BMU (M 2 ), first frequency conversion information to the first fault unit through the first target unit based on the fault frequency, wherein the first frequency conversion information is to instruct the first fault unit to convert its frequency to a first frequency (S530); converting, by the first fault unit, its frequency to the first frequency based on the first frequency conversion information (S540); transmitting, by the backup BMU (M 2 ), the first frequency to the main BMU (M 1 ) if the backup BMU (M 2 ) communicates normally with the first fault unit using the first frequency (S550); and communicating, by the main BMU (M 1 ), with the first fault unit using the first frequency (S560).
Process for the treatment of wastewater containing sulfate salts of cations susceptible of forming soluble sulfides, comprising the steps of: - providing a bioreactor (A) suitable for the reduction of sulfates to sulfides; - providing an electrochemical cell (B) through which a current is passed, having a central compartment (B2) connected by cation exchange membranes to an adjacent cathode compartment (B1), and to an adjacent anode compartment (B3), thereby generating H 2 in the cathode compartment, and O 2 in the anode compartment; - passing a cation-bearing aqueous solution through the central compartment (B2); - providing an acidic aqueous solution in the anode compartment (B3); - circulating a sulfidic solution in a first loop (L1) over a path passing through the bioreactor (A) and the cathode compartment (B1), whereby the pH of the solution is maintained between 6 and 9 by adjusting the current through the electrochemical cell (B); - adding the wastewater to the first loop (L1) at a set flow rate; and, - bleeding a minor part of the solution from the first loop (L1) at a rate corresponding to the flow rate of feeding the wastewater . - providing a bioreactor (A) suitable for the reduction of sulfates to sulfides; - providing an electrochemical cell (B) through which a current is passed, having a central compartment (B2) connected by cation exchange membranes to an adjacent cathode compartment (B1), and to an adjacent anode compartment (B3), thereby generating H 2 in the cathode compartment, and O 2 in the anode compartment; - passing a cation-bearing aqueous solution through the central compartment (B2); - providing an acidic aqueous solution in the anode compartment (B3); - circulating a sulfidic solution in a first loop (L1) over a path passing through the bioreactor (A) and the cathode compartment (B1), whereby the pH of the solution is maintained between 6 and 9 by adjusting the current through the electrochemical cell (B); - adding the wastewater to the first loop (L1) at a set flow rate; and, - bleeding a minor part of the solution from the first loop (L1) at a rate corresponding to the flow rate of feeding the wastewater .
Floor protection system comprising (i) optionally at least one epoxy resin primer, (ii) at least one polyurethane coating, (iii) optionally quartz sand, scattered into and/or onto the polyurethane coating, and (iv) an epoxy resin seal obtained from a resin component containing at least one liquid epoxy resin and a curing agent component containing at least one amine of the formula (I) Z-NH-A-NH-CH 2 -Y (I) where A is a divalent C 2 to C 15 alkylene, cycloalkylene or arylalkylene radical optionally containing one or more nitrogen atoms or ether groups, Z is H or ---CH 2 -Y, and Y is H or a C 1 to C 11 alkyl, cycloalkyl, arylalkyl or aryl radical, wherein the two nitrogen atoms to which the A radical is bonded are separated from one another by at least two carbon atoms, and the amine of the formula (I) contains a total of at least 8 carbon atoms. (i) optionally at least one epoxy resin primer, (ii) at least one polyurethane coating, (iii) optionally quartz sand, scattered into and/or onto the polyurethane coating, and (iv) an epoxy resin seal obtained from a resin component containing at least one liquid epoxy resin and a curing agent component containing at least one amine of the formula (I) Z-NH-A-NH-CH 2 -Y (I) where A is a divalent C 2 to C 15 alkylene, cycloalkylene or arylalkylene radical optionally containing one or more nitrogen atoms or ether groups, Z is H or ---CH 2 -Y, and Y is H or a C 1 to C 11 alkyl, cycloalkyl, arylalkyl or aryl radical, wherein the two nitrogen atoms to which the A radical is bonded are separated from one another by at least two carbon atoms, and the amine of the formula (I) contains a total of at least 8 carbon atoms. A is a divalent C 2 to C 15 alkylene, cycloalkylene or arylalkylene radical optionally containing one or more nitrogen atoms or ether groups, Z is H or ---CH 2 -Y, and Y is H or a C 1 to C 11 alkyl, cycloalkyl, arylalkyl or aryl radical, wherein the two nitrogen atoms to which the A radical is bonded are separated from one another by at least two carbon atoms, and the amine of the formula (I) contains a total of at least 8 carbon atoms.