mhurhangee/patent-ind-claim-en huggingface dataset:
One or more hardware-based computer-readable memory devices storing instructions which, when executed by one or more processors disposed in an enterprise edge device associated with a cloud-service provider, cause the enterprise edge device to: provide computing services to customer devices over a network, by which multiple virtual machines operate on a remote server to perform operations and functions, the enterprise edge device being in communication with the remote server; create a first tunnel to the remote server, in which the first tunnel comprises a single tunnel between the enterprise edge device and each of the multiple virtual machines operating on the remote server , and in which the single tunnel is utilized to transmit data packets from the enterprise edge device to each of the multiple virtual machines operating on the remote server; create a second tunnel to a gateway which is utilized to route data packets from the enterprise edge device to the virtual machines on the remote server ; and utilize the first and second tunnels to forward data packets to the virtual machines, wherein the enterprise edge device is configured to transmit data packets to the virtual machines using data paths on the first and second tunnels. provide computing services to customer devices over a network, by which multiple virtual machines operate on a remote server to perform operations and functions, the enterprise edge device being in communication with the remote server; create a first tunnel to the remote server, in which the first tunnel comprises a single tunnel between the enterprise edge device and each of the multiple virtual machines operating on the remote server , and in which the single tunnel is utilized to transmit data packets from the enterprise edge device to each of the multiple virtual machines operating on the remote server; create a second tunnel to a gateway which is utilized to route data packets from the enterprise edge device to the virtual machines on the remote server ; and utilize the first and second tunnels to forward data packets to the virtual machines, wherein the enterprise edge device is configured to transmit data packets to the virtual machines using data paths on the first and second tunnels.
A device for disassembling office furniture quickly and easily comprising: a cylindrical upper assembly ; a cylindrical lower assembly arranged below the upper assembly on an axis (X) common to the upper and lower assemblies; and a handle which is mounted to move between a first position and a second position, wherein movement of the handle from the first position to the second position imparts axial displacement of the upper and lower assemblies away from each other along the axis; wherein the lower assembly moves downward along the axis when the lower assembly is axially displaced away from the upper assembly; characterised in that : the upper assembly includes: a cylindrical sleeve ; a nut threadably engaged to the sleeve; and a bearing surface carried below the nut. a cylindrical upper assembly ; a cylindrical lower assembly arranged below the upper assembly on an axis (X) common to the upper and lower assemblies; and a handle which is mounted to move between a first position and a second position, wherein movement of the handle from the first position to the second position imparts axial displacement of the upper and lower assemblies away from each other along the axis; wherein the lower assembly moves downward along the axis when the lower assembly is axially displaced away from the upper assembly; characterised in that : the upper assembly includes: a cylindrical sleeve ; a nut threadably engaged to the sleeve; and a bearing surface carried below the nut. a cylindrical sleeve ; a nut threadably engaged to the sleeve; and a bearing surface carried below the nut.
Use of a refrigerating machine oil with a refrigerant with a global warming potential of 700 or less comprising difluoromethane, the refrigerating machine oil comprising: a base oil comprising at least one selected from the group consisting of a polyol ester obtainable by synthesis from a linear or branched fatty acid with 4 or more and 9 or less carbon atoms and a polyhydric alcohol with 4 or more and 12 or less carbon atoms, a polyalkylene glycol, a compound obtainable by etherifying hydroxyl groups at both ends of a polyalkylene glycol, and a polyvinyl ether, wherein the branched fatty acid is selected from the group consisting of isobutanoic acid, 2-methylbutanoic acid, 2-methylpentanoic acid, 2-methylhexanoic acid, 2-ethylpentanoic acid, 2-methylheptanoic acid and 3,5,5-trimethylhexanoic acid; a sulfide compound; an orthophosphoric acid ester, and pentaerythritol tetra(2-ethylhexanoate) having an acid value according to JIS K2501 of 0.1 mg KOH/g or less and a hydroxyl value of 10 mg KOH/g or less, wherein a content of the sulfide compound is 0.01 to 2.0% by mass, a content of the orthophosphoric acid ester is 0.1 to 5.0% by mass, and a content of pentaerythritol tetra(2-ethylhexanoate) is 2 to 20% by mass, based on a total amount of the refrigerating machine oil, and the refrigerating machine oil having a kinematic viscosity at 40°C of 3 to 500 mm 2 /s; with the proviso that a refrigeration machine oil containing 10 to 500 ppm by mass of a gallate and an orthophosporic acid ester in an amount of 0.1 to 3 % by mass, based on a total amount of the refrigerating machine oil, is excluded. a base oil comprising at least one selected from the group consisting of a polyol ester obtainable by synthesis from a linear or branched fatty acid with 4 or more and 9 or less carbon atoms and a polyhydric alcohol with 4 or more and 12 or less carbon atoms, a polyalkylene glycol, a compound obtainable by etherifying hydroxyl groups at both ends of a polyalkylene glycol, and a polyvinyl ether, wherein the branched fatty acid is selected from the group consisting of isobutanoic acid, 2-methylbutanoic acid, 2-methylpentanoic acid, 2-methylhexanoic acid, 2-ethylpentanoic acid, 2-methylheptanoic acid and 3,5,5-trimethylhexanoic acid; a sulfide compound; an orthophosphoric acid ester, and pentaerythritol tetra(2-ethylhexanoate) having an acid value according to JIS K2501 of 0.1 mg KOH/g or less and a hydroxyl value of 10 mg KOH/g or less, wherein a content of the sulfide compound is 0.01 to 2.0% by mass, a content of the orthophosphoric acid ester is 0.1 to 5.0% by mass, and a content of pentaerythritol tetra(2-ethylhexanoate) is 2 to 20% by mass, based on a total amount of the refrigerating machine oil, and the refrigerating machine oil having a kinematic viscosity at 40°C of 3 to 500 mm 2 /s; with the proviso that a refrigeration machine oil containing 10 to 500 ppm by mass of a gallate and an orthophosporic acid ester in an amount of 0.1 to 3 % by mass, based on a total amount of the refrigerating machine oil, is excluded.
A User Equipment, UE, device for transmitting Hybrid Automatic Repeat reQuest, HARQ, for uplink data in support of multi-subframe scheduling, the UE device comprising: a data receiving unit, a processing unit and a data sending unit; wherein the data receiving unit is configured to receive Physical HARQ Indicator CHannel, PHICH, information and a multi-subframe scheduling uplink grant signaling which schedules uplink subframes, sent from a base station ; the processing unit is configured to, according to a timing relationship between the multi-subframe scheduling uplink grant signaling and a scheduled uplink subframe which is scheduled by the multi-subframe scheduling uplink grant signaling, determine timing positions of the scheduled uplink subframe and a retransmission of the scheduled uplink subframe according to a Synchronous HARQ ,SHARQ, process; and for the scheduled uplink subframe, determine parameters comprising an allocated channel resource, according to a relative position between a PHICH channel and the multi-subframe scheduling uplink grant signaling which schedules the SHARQ process of the scheduled uplink subframe, wherein if the UE does not detect the multi-subframe scheduling uplink grant signaling which schedules the SHARQ process, the UE performs the determining according to the PHICH information corresponding to the SHARQ process; the data sending unit is configured to perform data transmission or stop a current transmission in the scheduled uplink subframe according to the parameters . a data receiving unit, a processing unit and a data sending unit; wherein the data receiving unit is configured to receive Physical HARQ Indicator CHannel, PHICH, information and a multi-subframe scheduling uplink grant signaling which schedules uplink subframes, sent from a base station ; the processing unit is configured to, according to a timing relationship between the multi-subframe scheduling uplink grant signaling and a scheduled uplink subframe which is scheduled by the multi-subframe scheduling uplink grant signaling, determine timing positions of the scheduled uplink subframe and a retransmission of the scheduled uplink subframe according to a Synchronous HARQ ,SHARQ, process; and for the scheduled uplink subframe, determine parameters comprising an allocated channel resource, according to a relative position between a PHICH channel and the multi-subframe scheduling uplink grant signaling which schedules the SHARQ process of the scheduled uplink subframe, wherein if the UE does not detect the multi-subframe scheduling uplink grant signaling which schedules the SHARQ process, the UE performs the determining according to the PHICH information corresponding to the SHARQ process; the data sending unit is configured to perform data transmission or stop a current transmission in the scheduled uplink subframe according to the parameters .
A power management method applicable to a foldable terminal device, the method comprising: obtaining a configuration change signal of the terminal device (S300) in response to a configuration change of a terminal device (S200); searching a preset output power level truth table of the terminal device based on the configuration change signal of the terminal device, wherein the output power level truth table comprises a power level and a fallback power of the terminal device in the configuration; obtaining the power level and the fallback power of the terminal device based on the output power level truth table (S410); setting an output power of the terminal device based on the fallback power of the terminal device, wherein the output power is a maximum power that meets regulatory requirements in a current configuration; and outputting a corresponding power value based on the power level (S500). obtaining a configuration change signal of the terminal device (S300) in response to a configuration change of a terminal device (S200); searching a preset output power level truth table of the terminal device based on the configuration change signal of the terminal device, wherein the output power level truth table comprises a power level and a fallback power of the terminal device in the configuration; obtaining the power level and the fallback power of the terminal device based on the output power level truth table (S410); setting an output power of the terminal device based on the fallback power of the terminal device, wherein the output power is a maximum power that meets regulatory requirements in a current configuration; and outputting a corresponding power value based on the power level (S500).
A method of forming an electrode structure for a capacitive touch sensor in a transparent conductive layer located on a transparent non-conductive layer by a direct write laser scribing process using a pulsed solid state laser, the laser wavelength and pulse length being selected as follows: i) a wavelength in the range 257nm to 266nm ii) a pulse length in the range 50fs to 50ns whereby grooves are formed in the transparent conductive layer to electrically isolate areas of the transparent conductive layer on opposite sides of each groove , characterized in that , during the forming of the grooves by the direct write laser scribing process: the transparent non-conductive layer is located on a colour filter layer; and the beam profile of the laser at the substrate consists of a top hat beam profile consisting of a central uniform region in which an energy density, defined as the energy per unit area provided by the laser, is everywhere above a threshold energy density for ablation of the transparent conductive layer and a region outside of the central uniform region where the energy density is below the threshold energy density for ablation of the transparent conductive layer, wherein the energy density in the central uniform region satisfies (Emax - Emin)/(Emax + Emin) < 10%, where Emax is a maximum energy density in the central uniform region and Emin is a minimum energy density in the central uniform region, whereby the grooves are formed with no damage to the transparent non-conductive layer or the colour filter layer beneath the transparent conductive layer . i) a wavelength in the range 257nm to 266nm ii) a pulse length in the range 50fs to 50ns the transparent non-conductive layer is located on a colour filter layer; and the beam profile of the laser at the substrate consists of a top hat beam profile consisting of a central uniform region in which an energy density, defined as the energy per unit area provided by the laser, is everywhere above a threshold energy density for ablation of the transparent conductive layer and a region outside of the central uniform region where the energy density is below the threshold energy density for ablation of the transparent conductive layer, wherein the energy density in the central uniform region satisfies (Emax - Emin)/(Emax + Emin) < 10%, where Emax is a maximum energy density in the central uniform region and Emin is a minimum energy density in the central uniform region, whereby the grooves are formed with no damage to the transparent non-conductive layer or the colour filter layer beneath the transparent conductive layer .
A right-holder terminal configured to be used by a right holder of content and to transmit permission data for the content to a user of the content, wherein data of the content is registered in a file management system ; and an identifier of the user in the file management system is registered in a distributed ledger (B); the right-holder terminal comprising: a permission request receiving unit configured to receive, from the file management system, permission request data for the content including the identifier of the user; a verification unit configured to verify that the identifier of the user registered in the distributed ledger corresponds to the identifier of the user included in the permission request data; and a permission issuing unit configured to transmit, to the file management system, the permission data for permitting a use of the content by the user. data of the content is registered in a file management system ; and an identifier of the user in the file management system is registered in a distributed ledger (B); the right-holder terminal comprising: a permission request receiving unit configured to receive, from the file management system, permission request data for the content including the identifier of the user; a verification unit configured to verify that the identifier of the user registered in the distributed ledger corresponds to the identifier of the user included in the permission request data; and a permission issuing unit configured to transmit, to the file management system, the permission data for permitting a use of the content by the user. a permission request receiving unit configured to receive, from the file management system, permission request data for the content including the identifier of the user; a verification unit configured to verify that the identifier of the user registered in the distributed ledger corresponds to the identifier of the user included in the permission request data; and a permission issuing unit configured to transmit, to the file management system, the permission data for permitting a use of the content by the user.
External cladding component of a vehicle , comprising a penetration section that is permeable to electromagnetic waves (λ) in the range between 50 and 200 GHz, the penetration section either comprising - a plastic body having a first surface and a second surface , - a basic lacquer applied to the first surface , - a top lacquer applied on the basic lacquer , and - a plastic foil applied on the top lacquer , or comprising - a plastic body having a first surface and a second surface , - a basic lacquer , - a top lacquer and - a plastic foil, either ∘ applied on the first surface between the plastic body and the basic lacquer , wherein the top lacquer is applied to the basic lacquer , or ∘ applied between the basic lacquer and the top lacquer , wherein the basic lacquer is applied to the first surface . - a plastic body having a first surface and a second surface , - a basic lacquer applied to the first surface , - a top lacquer applied on the basic lacquer , and - a plastic foil applied on the top lacquer , or comprising - a plastic body having a first surface and a second surface , - a basic lacquer , - a top lacquer and - a plastic foil, either ∘ applied on the first surface between the plastic body and the basic lacquer , wherein the top lacquer is applied to the basic lacquer , or ∘ applied between the basic lacquer and the top lacquer , wherein the basic lacquer is applied to the first surface . ∘ applied on the first surface between the plastic body and the basic lacquer , wherein the top lacquer is applied to the basic lacquer , or ∘ applied between the basic lacquer and the top lacquer , wherein the basic lacquer is applied to the first surface .
A hair styling flat iron , the flat iron comprising: a first arm comprising a first gripping portion and a first styling portion ; a second arm comprising a second gripping portion and a second styling portion ; a pivotable member coupled with the first gripping portion of the first arm and the second gripping portion of the second arm to move the second arm away from and towards the first arm ; a first heating plate located on a surface of the first styling portion facing the second arm , the first heating plate comprising a first heat transmissive plate and a first coating disposed on the first heat transmissive plate, the first coating having a ceramic and a lava rock incorporated therein; and a second heating plate located on a surface of the second styling portion facing the first arm , the second heating plate comprising a second heat transmissive plate and a second coating disposed on the second heat transmissive plate, the second coating having a ceramic and a lava rock incorporated therein, wherein the lava rock of one or more of the first coating and the second coating is in the form of particulates; characterized in that the particulates have diameters ranging from about 10 nm to about 25 μm. a first arm comprising a first gripping portion and a first styling portion ; a second arm comprising a second gripping portion and a second styling portion ; a pivotable member coupled with the first gripping portion of the first arm and the second gripping portion of the second arm to move the second arm away from and towards the first arm ; a first heating plate located on a surface of the first styling portion facing the second arm , the first heating plate comprising a first heat transmissive plate and a first coating disposed on the first heat transmissive plate, the first coating having a ceramic and a lava rock incorporated therein; and a second heating plate located on a surface of the second styling portion facing the first arm , the second heating plate comprising a second heat transmissive plate and a second coating disposed on the second heat transmissive plate, the second coating having a ceramic and a lava rock incorporated therein, wherein the lava rock of one or more of the first coating and the second coating is in the form of particulates; characterized in that the particulates have diameters ranging from about 10 nm to about 25 μm.
Method for converting a starting material containing at least 40 wt.-% of calcium silicon (hydr)oxide phases and calcium aluminium (hydr)oxide phases into an SiO 2 rich supplementary cementitious material and a calcium carbonate additive comprising the steps - providing the starting material with a D 90 of ≤ 1 mm - mixing the starting material with water or adjusting the water content to provide a starting material slurry having a solid:liquid ratio from 2:1 to 1:100 - passing the starting material slurry into a gravity separation reactor together with carbon dioxide - subjecting the starting material slurry and carbon dioxide to centrifugal motion inside the reactor and - removing a heavy slurry of higher density particles comprising the calcium carbonate additive formed by reaction of carbon dioxide with calcium ions dissolved or leached from the starting material from a first outlet of the reactor, removing a light slurry of lower density particles comprising the undissolved SiO 2 rich remains of the starting material from a second outlet of the reactor, and removing liquid from a third outlet of the reactor. - providing the starting material with a D 90 of ≤ 1 mm - mixing the starting material with water or adjusting the water content to provide a starting material slurry having a solid:liquid ratio from 2:1 to 1:100 - passing the starting material slurry into a gravity separation reactor together with carbon dioxide - subjecting the starting material slurry and carbon dioxide to centrifugal motion inside the reactor and - removing a heavy slurry of higher density particles comprising the calcium carbonate additive formed by reaction of carbon dioxide with calcium ions dissolved or leached from the starting material from a first outlet of the reactor, removing a light slurry of lower density particles comprising the undissolved SiO 2 rich remains of the starting material from a second outlet of the reactor, and removing liquid from a third outlet of the reactor.