mhurhangee/patent-ind-claim-en huggingface dataset:
A tin plating solution for barrel plating or high-speed rotary plating comprising: (A) stannous ions selected from a tin salt of alkane sulfonic acids or alkanol sulfonic acids; (B) an acid or a salt selected from methane sulfonic acid, ethane sulfonic acid, propane sulfonic acid, 2-hydroxy ethane-1-sulfonic acid, 2-hydroxy propane-1-sulfonic acid, and 1-hydroxy propane-2 sulfonic acid; (C) a complexing agent selected from gluconic acid, citric acid, malonic acid, succinic acid, tartaric acid, or a salt thereof; and (D) a diamine having a polyoxyalkylene chain described by the following chemical formula: wherein R 1 is a straight-chain or branched-chain alkylene group with a carbon number between 1 and 6, each of R 2 through R 5 is, independently, a branched-chain alkylene group with a carbon number between 1 and 6, each of n, m, o, and p is an integer between 1 and 8, wherein a pH is in a range between 4 and 8. (A) stannous ions selected from a tin salt of alkane sulfonic acids or alkanol sulfonic acids; (B) an acid or a salt selected from methane sulfonic acid, ethane sulfonic acid, propane sulfonic acid, 2-hydroxy ethane-1-sulfonic acid, 2-hydroxy propane-1-sulfonic acid, and 1-hydroxy propane-2 sulfonic acid; (C) a complexing agent selected from gluconic acid, citric acid, malonic acid, succinic acid, tartaric acid, or a salt thereof; and (D) a diamine having a polyoxyalkylene chain described by the following chemical formula:
A refrigerator appliance comprising: • a cabinet configured to store food items, said cabinet comprising an inner casing and an outer casing spaced apart from each other so as to define a cavity filled with a thermally insulating material; • a closed cooling circuit operably connected to the cabinet , said closed cooling circuit comprising an evaporator , a compressor 140 and a condenser , wherein a refrigerant fluid is made to circulate; wherein said condenser is configured as a skin condenser having a tube associated with a thermally conductive layer , said tube having at least a portion with a serpentine shape and wherein a defrost water drain pipe configured to drain condensation water from the evaporator is in thermal exchange contact with the skin condenser , the refrigerator appliance being characterised in that : • said thermally conductive layer is made up of a plurality of plates arranged such that a tail portion of a first plate is superimposed to and connected with a front portion of a second plate , • said serpentine tube has substantially straight portions clinched between the tail portion of the first plate and the front portion of the second plate superimposed to and connected with each other and • the defrost water drain pipe has a serpentine shape. • a cabinet configured to store food items, said cabinet comprising an inner casing and an outer casing spaced apart from each other so as to define a cavity filled with a thermally insulating material; • a closed cooling circuit operably connected to the cabinet , said closed cooling circuit comprising an evaporator , a compressor 140 and a condenser , wherein a refrigerant fluid is made to circulate; • said thermally conductive layer is made up of a plurality of plates arranged such that a tail portion of a first plate is superimposed to and connected with a front portion of a second plate , • said serpentine tube has substantially straight portions clinched between the tail portion of the first plate and the front portion of the second plate superimposed to and connected with each other and • the defrost water drain pipe has a serpentine shape.
Wet-rotor motor pump with a stator surrounded by a motor housing and a rotor separated from the stator by a plastic separating can , which runs in a rotor chamber formed by the separating can and is connected to a pump impeller by a shaft , characterised in that the separating can at its end facing the pump impeller having a moulded, outward-oriented separating can flange , that the motor housing at its end facing the pump impeller forming an inward-oriented motor housing flange , wherein which the separating can flange on the hydraulic side contacts the outer surface of the inward-oriented motor housing flange that faces the pump impeller .
A solid-state radio frequency (SSRF) water heating apparatus , comprising: a radio frequency (RF)-shielded enclosure ; at least one tank disposed within the RF-shielded enclosure , the tank configured to hold a volume of water and comprising: at least one first RF-transparent exterior surface at a first end; and at least one second RF-transparent exterior surface at a second end opposite the first end; a solid-state RF (SSRF) array disposed within the enclosure at a first end of the tank, the SSRF array operatively coupled to a power supply and configured to: generate RF energy in the microwave frequency range; and heat the volume of water by transmitting the RF energy through the tank between the first RF-transparent exterior surface and the second RF-transparent exterior surface ; and control processors in communication with the SSRF array , the control processors configured to adjust the transmitted RF energy. a radio frequency (RF)-shielded enclosure ; at least one tank disposed within the RF-shielded enclosure , the tank configured to hold a volume of water and comprising: at least one first RF-transparent exterior surface at a first end; and at least one second RF-transparent exterior surface at a second end opposite the first end; a solid-state RF (SSRF) array disposed within the enclosure at a first end of the tank, the SSRF array operatively coupled to a power supply and configured to: generate RF energy in the microwave frequency range; and heat the volume of water by transmitting the RF energy through the tank between the first RF-transparent exterior surface and the second RF-transparent exterior surface ; and control processors in communication with the SSRF array , the control processors configured to adjust the transmitted RF energy. at least one first RF-transparent exterior surface at a first end; and at least one second RF-transparent exterior surface at a second end opposite the first end; a solid-state RF (SSRF) array disposed within the enclosure at a first end of the tank, the SSRF array operatively coupled to a power supply and configured to: generate RF energy in the microwave frequency range; and heat the volume of water by transmitting the RF energy through the tank between the first RF-transparent exterior surface and the second RF-transparent exterior surface ; and control processors in communication with the SSRF array , the control processors configured to adjust the transmitted RF energy. generate RF energy in the microwave frequency range; and heat the volume of water by transmitting the RF energy through the tank between the first RF-transparent exterior surface and the second RF-transparent exterior surface ; and control processors in communication with the SSRF array , the control processors configured to adjust the transmitted RF energy.
A management method for using one or more subscriber identity module, SIM, cards, comprising steps of: a server in a mobile virtual network enabler, MVNE , the server being on a cloud and being connected to an infrastructure of a mobile network operator, MNO , receiving registration information for registering one or more SIM cards from a user of a mobile virtual network operator, MVNO , using the one or more SIM cards; and the server associating the one or more SIM cards, one or more identification numbers of which are specified by the received registration information, with a user ID of the user of the MVNO using the one or more SIM cards, and the server perfoming management of a communication quality, the server providing a management screen for the user ID, wherein the communication quality for each identification number is at least one of speed limit and capacity limit, and the communication quality is changeable by the user of said MVNO on the management screen provided for the user ID. a server in a mobile virtual network enabler, MVNE , the server being on a cloud and being connected to an infrastructure of a mobile network operator, MNO , receiving registration information for registering one or more SIM cards from a user of a mobile virtual network operator, MVNO , using the one or more SIM cards; and the server associating the one or more SIM cards, one or more identification numbers of which are specified by the received registration information, with a user ID of the user of the MVNO using the one or more SIM cards, and the server perfoming management of a communication quality, the server providing a management screen for the user ID, wherein the communication quality for each identification number is at least one of speed limit and capacity limit, and the communication quality is changeable by the user of said MVNO on the management screen provided for the user ID.
A flat-packing machine for producing a package of compressed innerspring units , the flat-packing machine comprising: a press device comprising: - a first pressing tool ; - a second pressing tool ; - a first drive configured to move the first pressing tool along a compression direction of the innerspring units ; - a second drive configured to move the second pressing tool along the compression direction; - a third drive configured to move the first pressing tool along a first retraction direction perpendicular to the compression direction; and - a fourth drive configured to move the second pressing tool along a second retraction direction perpendicular to the compression direction, wherein the press device is configured to compress an innerspring unit between the first pressing tool and the second pressing tool while one of the first pressing tool and the second pressing tool holds one or more further previously compressed innerspring units in a compressed state. a press device comprising: - a first pressing tool ; - a second pressing tool ; - a first drive configured to move the first pressing tool along a compression direction of the innerspring units ; - a second drive configured to move the second pressing tool along the compression direction; - a third drive configured to move the first pressing tool along a first retraction direction perpendicular to the compression direction; and - a fourth drive configured to move the second pressing tool along a second retraction direction perpendicular to the compression direction, - a first pressing tool ; - a second pressing tool ; - a first drive configured to move the first pressing tool along a compression direction of the innerspring units ; - a second drive configured to move the second pressing tool along the compression direction; - a third drive configured to move the first pressing tool along a first retraction direction perpendicular to the compression direction; and - a fourth drive configured to move the second pressing tool along a second retraction direction perpendicular to the compression direction, wherein the press device is configured to compress an innerspring unit between the first pressing tool and the second pressing tool while one of the first pressing tool and the second pressing tool holds one or more further previously compressed innerspring units in a compressed state.
Use of a compound of general formula (I) wherein B is an aromatic hydrocarbon group, A is a linear or branched aliphatic C 3 -C 10 alkylene group, each R 1 is independently a branched or linear aliphatic C 1 -C 15 alkylene group, n is an integer greater than or equal to 0, and m is an integer greater than or equal to 3 to increase the bond stress of a cured fixing composition. B is an aromatic hydrocarbon group, A is a linear or branched aliphatic C 3 -C 10 alkylene group, each R 1 is independently a branched or linear aliphatic C 1 -C 15 alkylene group, n is an integer greater than or equal to 0, and m is an integer greater than or equal to 3 to increase the bond stress of a cured fixing composition.
A method performed by an application executing on a computing device, characterized in that the method comprises: sending a request from the application to an operating system, OS, executing on the computing device for information relating to one or more OS accessibility settings defining one or more of OS-level accessibility features that facilitate a user's interaction with the computing device; receiving a response at the application from the operating system that includes the information relating to the one or more OS accessibility settings; determining, based on the received response, a correspondence between one or more of OS-level accessibility features and one or more application-level accessibility features, wherein the one or more application-level accessibility features facilitate the user's interaction with the application; determining at the application, based on the determined correspondence, one or more application accessibility settings defining the one or more application-level accessibility features; and applying the one or more application accessibility settings to a user interface associated with the application . sending a request from the application to an operating system, OS, executing on the computing device for information relating to one or more OS accessibility settings defining one or more of OS-level accessibility features that facilitate a user's interaction with the computing device; receiving a response at the application from the operating system that includes the information relating to the one or more OS accessibility settings; determining, based on the received response, a correspondence between one or more of OS-level accessibility features and one or more application-level accessibility features, wherein the one or more application-level accessibility features facilitate the user's interaction with the application; determining at the application, based on the determined correspondence, one or more application accessibility settings defining the one or more application-level accessibility features; and applying the one or more application accessibility settings to a user interface associated with the application .
A cylindrical wall for filtering solid particles in a fluid, through which said fluid is capable of circulating, said wall comprising at least one perforated plate having a finite radius of curvature, and at least one grid element superposed on said perforated plate, said grid element comprising a plurality of rigid wires extending in a longitudinal direction and arranged adjacent to each other in order to filter out solid particles, characterised in that the grid element is arranged so that the wires are rigidly interconnected only by means of connections between adjacent wires, each connection between two adjacent wires occupying only a portion of the length of said wires, and having a thickness less than or equal to the thickness of said wires near said connection.
A method for bypassing a voltage regulator on a system on a chip, SOC , the method comprising: powering a first power domain of the system on a chip, SOC using the voltage regulator of the SOC ; powering a second power domain of the SOC using the voltage regulator of the SOC ; coupling a third power domain of the SOC with an external voltage source ; raising an external voltage supply from the external voltage source above a threshold level of the voltage regulator of the SOC ; coupling the first power domain of the SOC and the second power domain of the SOC to the external voltage source ; turning OFF the voltage regulator of the SOC after coupling the first power domain of the SOC and the second power domain of the SOC to the external voltage source ; and powering the first power domain of the SOC , the second power domain of the SOC , and the third power domain of the SOC with the external voltage source , the external voltage source bypassing the voltage regulator , wherein a RUN switch couples the second power domain of the SOC to the third power domain of the SOC , and the first power domain of the SOC is powered by the external voltage source through a coupling of the first power domain of the SOC to the second power domain of the SOC by a first switch and through the coupling of the second power domain of the SOC to the third power domain of the SOC by the RUN switch . powering a first power domain of the system on a chip, SOC using the voltage regulator of the SOC ; powering a second power domain of the SOC using the voltage regulator of the SOC ; coupling a third power domain of the SOC with an external voltage source ; raising an external voltage supply from the external voltage source above a threshold level of the voltage regulator of the SOC ; coupling the first power domain of the SOC and the second power domain of the SOC to the external voltage source ; turning OFF the voltage regulator of the SOC after coupling the first power domain of the SOC and the second power domain of the SOC to the external voltage source ; and powering the first power domain of the SOC , the second power domain of the SOC , and the third power domain of the SOC with the external voltage source , the external voltage source bypassing the voltage regulator ,
An uplink transmission method, applied to user equipment, comprising: receiving a scheduling instruction transmitted by a network-side device, wherein the scheduling instruction comprises a set of interlace indices of resource blocks and a scheduled bandwidth, and an interlace of resource blocks in the scheduled bandwidth indicated by the set of interlace indices of resource blocks comprises a guard band physical resource block, PRB; performing clear channel detection for the scheduled bandwidth; determining a PRB for data transmission in the interlace of resource blocks based on a detection result of the clear channel detection; and transmitting data by using the PRB for data transmission; wherein a plurality of interlaces of resource blocks are indexed in terms of all PRBs on an entire carrier bandwidth; and the determining a PRB for data transmission in the interlace of resource blocks based on a detection result of the clear channel detection comprises: selecting, from the interlace of resource blocks indicated by the set of interlace indices of resource blocks in the entire carrier bandwidth, candidate PRBs in the scheduled bandwidth; and determining the PRB for data transmission from the candidate PRBs based on the detection result of the clear channel detection. receiving a scheduling instruction transmitted by a network-side device, wherein the scheduling instruction comprises a set of interlace indices of resource blocks and a scheduled bandwidth, and an interlace of resource blocks in the scheduled bandwidth indicated by the set of interlace indices of resource blocks comprises a guard band physical resource block, PRB; performing clear channel detection for the scheduled bandwidth; determining a PRB for data transmission in the interlace of resource blocks based on a detection result of the clear channel detection; and transmitting data by using the PRB for data transmission; wherein a plurality of interlaces of resource blocks are indexed in terms of all PRBs on an entire carrier bandwidth; and the determining a PRB for data transmission in the interlace of resource blocks based on a detection result of the clear channel detection comprises: selecting, from the interlace of resource blocks indicated by the set of interlace indices of resource blocks in the entire carrier bandwidth, candidate PRBs in the scheduled bandwidth; and determining the PRB for data transmission from the candidate PRBs based on the detection result of the clear channel detection. selecting, from the interlace of resource blocks indicated by the set of interlace indices of resource blocks in the entire carrier bandwidth, candidate PRBs in the scheduled bandwidth; and determining the PRB for data transmission from the candidate PRBs based on the detection result of the clear channel detection.
Glass substrate for chemical strengthening having first and second major opposing sides where at least a part of the first side of the substrate is provided with first implanted ions that reduce the extent of ion exchange upon chemical strengthening, and where the first implantation profile of the first implanted ions is such that the part of the first side provided with the first implanted ions shows a first controlled curvature upon chemical strengthening and where: i) at least a part of the first side of the substrate is provided with second implanted ions that reduce the extent of ion exchange upon chemical strengthening and where the second implantation profile of the second implanted ions is different from the first implantation profile and where the second implantation profile is such that the part of the first side provided with the second implanted ions shows a second controlled curvature upon chemical strengthening, and/or ii) at least part of the second side of the substrate is provided with third implanted ions that reduce the extent of ion exchange upon chemical strengthening, and where the third implantation profile of the third implanted ions is such that the part of the second side provided with the third implanted ions shows a third controlled curvature upon chemical strengthening, iii) the first, second and third implanted ions are ions of O, Ar, N or He. i) at least a part of the first side of the substrate is provided with second implanted ions that reduce the extent of ion exchange upon chemical strengthening and where the second implantation profile of the second implanted ions is different from the first implantation profile and where the second implantation profile is such that the part of the first side provided with the second implanted ions shows a second controlled curvature upon chemical strengthening, and/or ii) at least part of the second side of the substrate is provided with third implanted ions that reduce the extent of ion exchange upon chemical strengthening, and where the third implantation profile of the third implanted ions is such that the part of the second side provided with the third implanted ions shows a third controlled curvature upon chemical strengthening, iii) the first, second and third implanted ions are ions of O, Ar, N or He.