mhurhangee/patent-ind-claim-en huggingface dataset:
A method of encoding image or video data comprising two or more views of a scene, the method comprising: obtaining , for each of the two or more views, a respective block segmentation mask of the view and block image data of the view; generating at least one packed frame containing the two or more block segmentation masks and the block image data of the two or more views; and encoding the at least one packed frame into at least one bitstream , wherein each view is divided into blocks of pixels , wherein each block of pixels in each of the views is represented by a pixel in the respective block segmentation mask of that view; wherein the block segmentation mask indicates which blocks of pixels belong to an area of interest in the view, wherein the area of interest comprises only a part of the view, wherein the block image data consists solely of the blocks of pixels that belong to the area of interest. obtaining , for each of the two or more views, a respective block segmentation mask of the view and block image data of the view; generating at least one packed frame containing the two or more block segmentation masks and the block image data of the two or more views; and encoding the at least one packed frame into at least one bitstream , wherein each view is divided into blocks of pixels , wherein each block of pixels in each of the views is represented by a pixel in the respective block segmentation mask of that view; wherein the block segmentation mask indicates which blocks of pixels belong to an area of interest in the view, wherein the area of interest comprises only a part of the view, wherein the block image data consists solely of the blocks of pixels that belong to the area of interest.
An aqueous ink composition for writing instruments, comprising: water, colored microspheres each comprising a matrix composed of a polymer and a water-insoluble dye, and non-colored microspheres, wherein the average particle diameter of the colored microspheres is 0.5 to 2.0 μm when measured by a laser diffraction method, the average particle diameter is the value of D50 calculated by volume reference in the laser diffraction method, and wherein the polymer that composes the matrices is an epoxy polymer, melamine polymer, urethane polymer, urea polymer or combination thereof. water, colored microspheres each comprising a matrix composed of a polymer and a water-insoluble dye, and non-colored microspheres, wherein the average particle diameter of the colored microspheres is 0.5 to 2.0 μm when measured by a laser diffraction method, the average particle diameter is the value of D50 calculated by volume reference in the laser diffraction method, and wherein the polymer that composes the matrices is an epoxy polymer, melamine polymer, urethane polymer, urea polymer or combination thereof.
Lubricant grease composition comprising: a) 20% to 96.5% by weight, based on the total weight of the lubricant grease composition, of a main oil, where the main oil includes a base oil A in a proportion of at least 50% by weight based on the total weight of the main oil, where the base oil A is an ester and/or a polyglycol, preferably a polyglycol containing unsubstituted ethylene units as carbon group in the repeat unit, b) 0.5% to 80% by weight, based on the total weight of the lubricant grease composition, of an ionic liquid wherein the anion is bis(fluorosulfonyl)-imide, c) 3% to 35% by weight, based on the total weight of the lubricant grease composition, of a thickener selected from urea, simple lithium soaps, metal complex soaps of the elements of main groups 1 and 2 of the periodic table, especially lithium complex soaps and mixtures thereof. a) 20% to 96.5% by weight, based on the total weight of the lubricant grease composition, of a main oil, where the main oil includes a base oil A in a proportion of at least 50% by weight based on the total weight of the main oil, where the base oil A is an ester and/or a polyglycol, preferably a polyglycol containing unsubstituted ethylene units as carbon group in the repeat unit, b) 0.5% to 80% by weight, based on the total weight of the lubricant grease composition, of an ionic liquid wherein the anion is bis(fluorosulfonyl)-imide, c) 3% to 35% by weight, based on the total weight of the lubricant grease composition, of a thickener selected from urea, simple lithium soaps, metal complex soaps of the elements of main groups 1 and 2 of the periodic table, especially lithium complex soaps and mixtures thereof.
Handover method between base stations, called nodes, identified by an identifier, of an IAB access system to a core network (CN), the access system comprising an interconnection backbone in a tree structure comprising wireless links and a single wired link, the wired link connecting a single one of the base stations of the access system to the core network, this station being called a donor node (D-BS), the interconnections between the base stations of the access system being based solely on wireless links, the tree structure and the identifier of the nodes of this structure defining a topology of the access system, each node knowing the topology, the method comprising: - a base station, called source base station (S-BS), of the access system, to which a terminal (UE) is attached, sending a handover request (HO req) to a base station, called target base station (T-BS), of the access system, the request comprising an identifier, respectively, of the source and target base stations and an identifier of the terminal, the source and target base stations being interconnected via at least one base station called a decider node (P3-BS), different from the donor node, said base station comprising a wireless connection interface (X2 IAB) for receiving and transmitting messages transmitted respectively from and to another base station of the access system, the method being characterized in that it comprises the following steps accomplished via said wireless connection interface (X2 IAB): - interception of the handover request (HO req) by the decider node, - the decider node (P3-BS) sending a determined agreement message to the source base station, - sending of a message (HO trigger) for triggering a handover, to the target base station. - a base station, called source base station (S-BS), of the access system, to which a terminal (UE) is attached, sending a handover request (HO req) to a base station, called target base station (T-BS), of the access system, the request comprising an identifier, respectively, of the source and target base stations and an identifier of the terminal, the source and target base stations being interconnected via at least one base station called a decider node (P3-BS), different from the donor node, said base station comprising a wireless connection interface (X2 IAB) for receiving and transmitting messages transmitted respectively from and to another base station of the access system, the method being characterized in that it comprises the following steps accomplished via said wireless connection interface (X2 IAB): - interception of the handover request (HO req) by the decider node, - the decider node (P3-BS) sending a determined agreement message to the source base station, - sending of a message (HO trigger) for triggering a handover, to the target base station. - interception of the handover request (HO req) by the decider node, - the decider node (P3-BS) sending a determined agreement message to the source base station, - sending of a message (HO trigger) for triggering a handover, to the target base station.
A varnish composition comprising: from about 20 wt% to about 50 wt% on an epoxy resin weight basis of a multi-functional epoxy resin; from about 25 wt% to about 60 wt% on an epoxy resin weight basis of an eight-functional bisphenol-A novolac epoxy resin; from about 20 wt% to about 50 wt% on an epoxy resin weight basis of a bifunctional epoxy resin; and a hardener, wherein the multi-functional epoxy resin and the eight functional bisphenol-A novolac epoxy resin are present in the varnish at a weight ratio ranging from about 1:1.8 to about 1:2.0. from about 20 wt% to about 50 wt% on an epoxy resin weight basis of a multi-functional epoxy resin; from about 25 wt% to about 60 wt% on an epoxy resin weight basis of an eight-functional bisphenol-A novolac epoxy resin; from about 20 wt% to about 50 wt% on an epoxy resin weight basis of a bifunctional epoxy resin; and a hardener, wherein the multi-functional epoxy resin and the eight functional bisphenol-A novolac epoxy resin are present in the varnish at a weight ratio ranging from about 1:1.8 to about 1:2.0.
A vehicle electrical system designed for a motor vehicle and having a branched structure with a first part , with a second part and with a field bus for transmitting user data between the first part and the second part , wherein a bus node is arranged in the second part and a control and evaluation unit connected to the bus node via the field bus is arranged in the first part , wherein the motor vehicle has a module with several auxiliary units configured as sensors and/or as actuators , which are part of the second part , and wherein an airbag is arranged in the module , which can be controlled only via the field bus and the bus node . wherein a bus node is arranged in the second part and a control and evaluation unit connected to the bus node via the field bus is arranged in the first part , wherein the motor vehicle has a module with several auxiliary units configured as sensors and/or as actuators , which are part of the second part , and wherein an airbag is arranged in the module , which can be controlled only via the field bus and the bus node .
An aircraft comprising: a fuselage defining a cabin interior including at least first and second zones, and an environmental control system that includes a source of air, wherein air flows between the source of air and the cabin interior along an airflow path (P1), a mixer unit in airflow communication with the source of air and positioned downstream from the source of air in the airflow path, wherein the mixer unit is configured to be fed air from said source of air and mix said air from said source of air with recirculated cabin air; at least first and second air ducts positioned in the airflow path between the mixer unit and the cabin interior, a first fragrance dispensing unit positioned between the mixer unit and the cabin interior along the airflow path, wherein the first fragrance dispensing unit is configured to dispense a first fragrance into the first duct along the airflow path and into the first zone, and a second fragrance dispensing unit positioned between the mixer unit and the cabin interior along the airflow path, wherein the second fragrance dispensing unit is configured to dispense the first fragrance into the second duct along the airflow path and into the second zone. a fuselage defining a cabin interior including at least first and second zones, and an environmental control system that includes a source of air, wherein air flows between the source of air and the cabin interior along an airflow path (P1), a mixer unit in airflow communication with the source of air and positioned downstream from the source of air in the airflow path, wherein the mixer unit is configured to be fed air from said source of air and mix said air from said source of air with recirculated cabin air; at least first and second air ducts positioned in the airflow path between the mixer unit and the cabin interior, a first fragrance dispensing unit positioned between the mixer unit and the cabin interior along the airflow path, wherein the first fragrance dispensing unit is configured to dispense a first fragrance into the first duct along the airflow path and into the first zone, and a second fragrance dispensing unit positioned between the mixer unit and the cabin interior along the airflow path, wherein the second fragrance dispensing unit is configured to dispense the first fragrance into the second duct along the airflow path and into the second zone.
A computer-implemented method of location-based call forwarding, the method comprising: attempting to initiate a call with an intended call recipient associated with a mobile device, in response to determining that the intended call recipient is unavailable to receive the call, identifying an alternate call recipient by determining a name of an establishment where the intended call recipient is located, wherein the name of the establishment is determined by reverse geocoding current or last known location coordinates of the intended call recipient within a predetermined time threshold, obtaining speed data of the mobile device associated with the intended call recipient and identifying that the intended call recipient remained at the establishment within a predefined range based on the speed data, and then determining a telephone number associated with the establishment by accessing a directory lookup module for looking up telephone numbers; and forwarding the call to the establishment as the alternate call recipient. attempting to initiate a call with an intended call recipient associated with a mobile device, in response to determining that the intended call recipient is unavailable to receive the call, identifying an alternate call recipient by determining a name of an establishment where the intended call recipient is located, wherein the name of the establishment is determined by reverse geocoding current or last known location coordinates of the intended call recipient within a predetermined time threshold, obtaining speed data of the mobile device associated with the intended call recipient and identifying that the intended call recipient remained at the establishment within a predefined range based on the speed data, and then determining a telephone number associated with the establishment by accessing a directory lookup module for looking up telephone numbers; and determining a name of an establishment where the intended call recipient is located, wherein the name of the establishment is determined by reverse geocoding current or last known location coordinates of the intended call recipient within a predetermined time threshold, obtaining speed data of the mobile device associated with the intended call recipient and identifying that the intended call recipient remained at the establishment within a predefined range based on the speed data, and then determining a telephone number associated with the establishment by accessing a directory lookup module for looking up telephone numbers; and forwarding the call to the establishment as the alternate call recipient.
A fibre-containing composition obtainable from biomaterial of a plant of the species Brassica oleracea by a process comprising the steps of: (a) providing said biomaterial; (b) preparing an aqueous slurry having a pH in a range of from 7.5 to 8.5 from said biomaterial; and (c) subjecting the aqueous slurry to separation so as to obtain a liquid fraction and a solid fraction; wherein the solid fraction is said fibre-containing composition; wherein said steps (b) and (c) are carried out at a temperature in a range of from 0°C to 20°C; wherein the biomaterial essentially consists of leaves; wherein said fibre-containing composition comprises at most 30 wt% of protein as compared of the dry weight of the composition; and wherein said protein is in its native form. (a) providing said biomaterial; (b) preparing an aqueous slurry having a pH in a range of from 7.5 to 8.5 from said biomaterial; and (c) subjecting the aqueous slurry to separation so as to obtain a liquid fraction and a solid fraction; wherein the solid fraction is said fibre-containing composition; wherein said steps (b) and (c) are carried out at a temperature in a range of from 0°C to 20°C; wherein the biomaterial essentially consists of leaves; wherein said fibre-containing composition comprises at most 30 wt% of protein as compared of the dry weight of the composition; and wherein said protein is in its native form.
Use of an aqueous dispersion comprising: at least one essentially hydrophilic clay nanoparticle component; and a fluorochemical selected from the group consisting of fluorochemical allophanates, fluorochemical polyacrylates, fluorochemical urethanes, fluorochemical carbodiimides, and fluorochemical guanidines, for soil repellent surface treatment of a fiber. at least one essentially hydrophilic clay nanoparticle component; and a fluorochemical selected from the group consisting of fluorochemical allophanates, fluorochemical polyacrylates, fluorochemical urethanes, fluorochemical carbodiimides, and fluorochemical guanidines,
A method of producing a biodegradable alloy that is austenitic in structure and includes iron, at least one additional metallic element, and an iron reactive component, wherein the iron reactive component is a halogen containing salt equally dispersed within the biodegradable alloy at a concentration between about 0.1 ppm to about 500 ppm, and wherein the degradation rate of the biodegradable alloy, when implanted in a biological subject, is greater than the degradation rate of an alloy having the same composition as the biodegradable alloy except the absence of the iron reactive component, the method comprising: melting iron, the at least one additional metallic element, and the iron reactive component to produce a mixture; and contacting the mixture with a gaseous iron reactive component to produce the biodegradable alloy. melting iron, the at least one additional metallic element, and the iron reactive component to produce a mixture; and contacting the mixture with a gaseous iron reactive component to produce the biodegradable alloy.
A fixing member for use in an image forming apparatus using electrophotography, comprising a substrate , an elastic layer , and a release layer on the elastic layer , in this order, the release layer containing a tetrafluoroethylene-perfluoroalkyl vinyl ether copolymer (PFA), wherein a content of the perfluoroalkyl vinyl ether (PAVE) based on all tetrafluoroethylene-perfluoroalkyl vinyl ether copolymers (PFA) in the release layer is 3.0 mol% to 5.8 mol%, and wherein the elastic layer has an indentation elastic modulus E ITs at the surface on the side in contact with the release layer and an indentation elastic modulus E ITc at a position in a depth of 50 μm from the surface, E ITs and E ITc being measured at a temperature of 150°C, E ITs is larger than E ITc and E ITc is 17 MPa to 24 MPa. a substrate , an elastic layer , and a release layer on the elastic layer , in this order, the elastic layer has an indentation elastic modulus E ITs at the surface on the side in contact with the release layer and an indentation elastic modulus E ITc at a position in a depth of 50 μm from the surface, an indentation elastic modulus E ITs at the surface on the side in contact with the release layer and an indentation elastic modulus E ITc at a position in a depth of 50 μm from the surface, E ITs and E ITc being measured at a temperature of 150°C, E ITs is larger than E ITc and E ITc is 17 MPa to 24 MPa.
A secondary tube tray (1'; 1") for an automated processing system, the secondary tube tray (1'; 1") comprising a base module and a secondary tube insert (200'; 200"), the secondary tube insert (200'; 200") being adapted for holding a plurality of secondary tubes in parallel, and the secondary tube insert (200'; 200") being inserted into said base module , wherein the base module comprises a substantially closed bottom side with at least one discharge opening for discharging secondary tubes , the secondary tube insert (200'; 200") is a hollow body with at least one insert opening (203'; 203") in its bottom side (201'; 201"); the secondary tube insert (200'; 200") comprises a blocking mechanism in the form of a blocking bar (300'; 300") movably arranged on an inside of the secondary tube insert (200'; 200"), said blocking mechanism blocking the discharge opening in the bottom side of the base module when not operated, wherein the blocking mechanism is adapted to be openable from the outside. the base module comprises a substantially closed bottom side with at least one discharge opening for discharging secondary tubes , the secondary tube insert (200'; 200") is a hollow body with at least one insert opening (203'; 203") in its bottom side (201'; 201"); the secondary tube insert (200'; 200") comprises a blocking mechanism in the form of a blocking bar (300'; 300") movably arranged on an inside of the secondary tube insert (200'; 200"), said blocking mechanism blocking the discharge opening in the bottom side of the base module when not operated, wherein the blocking mechanism is adapted to be openable from the outside.
A method of wireless communication of a base station, comprising: determining a first set of resources to be used for establishing network access for a set of user equipments, UEs ; and determining a second set of resources for establishing backhaul links with a set of base stations, wherein a resource schedule of the base station comprises the first set of resources and the second set of resources , characterised in that the first set of resources is a first set of beam reference signal, BRS, resources and the second set of resources is a second set of BRS resources, the base station transmits BRS during each of the first set of BRS resources, during the second set of BRS resources, the base station performs one or more of receiving BRS, switching between receiving and sending BRS during a resource of the second set of BRS resources, or sending BRS with a modified configuration, and the modified configuration comprises one or more of a modified set of beams to be swept during BRS transmission or modified resources allocated for the BRS transmission. determining a first set of resources to be used for establishing network access for a set of user equipments, UEs ; and determining a second set of resources for establishing backhaul links with a set of base stations, wherein a resource schedule of the base station comprises the first set of resources and the second set of resources , characterised in that the first set of resources is a first set of beam reference signal, BRS, resources and the second set of resources is a second set of BRS resources, the base station transmits BRS during each of the first set of BRS resources, during the second set of BRS resources, the base station performs one or more of receiving BRS, switching between receiving and sending BRS during a resource of the second set of BRS resources, or sending BRS with a modified configuration, and the modified configuration comprises one or more of a modified set of beams to be swept during BRS transmission or modified resources allocated for the BRS transmission.