mhurhangee/patent-ind-claim-en huggingface dataset:
A polymer substrate with a hard coat layer in which a polymer substrate, a cured underlayer, and a silicon oxide layer are directly laminated in this order, wherein the cured underlayer has a thickness of 1 to 20 μm, and the cured underlayer comprises 10 to 90 parts by weight of a multi-functional acrylate and 90 to 10 parts by weight of inorganic oxide fine particles and/or a silicon compound hydrolysis-condensation product, or comprises a silicon compound hydrolysis-condensation product as a main component thereof, the silicon oxide layer has a thickness of from 0.1 μm to 9 μm, and the silicon oxide layer satisfies the following (a 1 ) at a position 0.04 μm from the interface between the cured underlayer and the silicon oxide layer in the thickness direction and satisfies the following (a 3 ) on a surface on a side opposite the interface: (a 1 ) when the chemical composition is represented by SiO x C y H z , x is in the range of 1.93 to 1.98, y is in the range of 0.04 to 0.15, and z is in the range of 0.10 to 0.50, and (a 3 ) when the chemical composition is represented by SiO x C y H z , x is in the range of 1.94 to 2.02, y is in the range of 0.05 to 0.16, and z is in the range of 0.20 to 0.50, wherein y of (a 3 ) is 0.02 to 0.10 greater than y of (a 1 ), and z of (a 3 ) is 0.05 to 0.25 greater than z of (a 1 ), wherein the chemical composition is determined as indicated in the description. the cured underlayer has a thickness of 1 to 20 μm, and the cured underlayer comprises 10 to 90 parts by weight of a multi-functional acrylate and 90 to 10 parts by weight of inorganic oxide fine particles and/or a silicon compound hydrolysis-condensation product, or comprises a silicon compound hydrolysis-condensation product as a main component thereof, the silicon oxide layer has a thickness of from 0.1 μm to 9 μm, and the silicon oxide layer satisfies the following (a 1 ) at a position 0.04 μm from the interface between the cured underlayer and the silicon oxide layer in the thickness direction and satisfies the following (a 3 ) on a surface on a side opposite the interface: (a 1 ) when the chemical composition is represented by SiO x C y H z , x is in the range of 1.93 to 1.98, y is in the range of 0.04 to 0.15, and z is in the range of 0.10 to 0.50, and (a 3 ) when the chemical composition is represented by SiO x C y H z , x is in the range of 1.94 to 2.02, y is in the range of 0.05 to 0.16, and z is in the range of 0.20 to 0.50, (a 1 ) when the chemical composition is represented by SiO x C y H z , x is in the range of 1.93 to 1.98, y is in the range of 0.04 to 0.15, and z is in the range of 0.10 to 0.50, and (a 3 ) when the chemical composition is represented by SiO x C y H z , x is in the range of 1.94 to 2.02, y is in the range of 0.05 to 0.16, and z is in the range of 0.20 to 0.50,
A rotary actuator to be installed between a dipper arm and an excavator tool of an excavator , said rotary actuator comprising a first actuator part adapted to be fixed to said dipper arm or to said excavator tool , wherein said first actuator part is formed with an inner cylindrical orifice comprising first part guide means , a second actuator part adapted to be fixed to the other of said dipper arm or said excavator tool , wherein at least a part of said second actuator part is arranged inside said inner cylindrical orifice and wherein said second actuator part is rotatably supported by said first actuator part while being substantially axially fixed in relation to said first actuator part , wherein an outer cylindrical surface of said second actuator part comprises second part guide means , and a piston part arranged inside said inner cylindrical orifice and around at least a part of said a second actuator part , wherein said piston part is axially displaceable in relation to said a first actuator part and said a second actuator part , wherein an outer cylindrical piston part surface is provided with outer piston part guide means arranged to mesh with said first part guide means and an inner cylindrical piston part surface is provided with inner piston part guide means arranged to mesh with said second part guide means , wherein said second actuator part is formed as a cantilever and wherein piston means of said piston part extends all the way across the free end of said second actuator part , wherein the effective area of said piston part is substantially equal in both directions. a first actuator part adapted to be fixed to said dipper arm or to said excavator tool , wherein said first actuator part is formed with an inner cylindrical orifice comprising first part guide means , a second actuator part adapted to be fixed to the other of said dipper arm or said excavator tool , wherein at least a part of said second actuator part is arranged inside said inner cylindrical orifice and wherein said second actuator part is rotatably supported by said first actuator part while being substantially axially fixed in relation to said first actuator part , wherein an outer cylindrical surface of said second actuator part comprises second part guide means , and a piston part arranged inside said inner cylindrical orifice and around at least a part of said a second actuator part , wherein said piston part is axially displaceable in relation to said a first actuator part and said a second actuator part , wherein an outer cylindrical piston part surface is provided with outer piston part guide means arranged to mesh with said first part guide means and an inner cylindrical piston part surface is provided with inner piston part guide means arranged to mesh with said second part guide means , wherein said second actuator part is formed as a cantilever and wherein piston means of said piston part extends all the way across the free end of said second actuator part , wherein the effective area of said piston part is substantially equal in both directions.
A packet forwarding method, comprising: receiving (S101), by a first scheduler, a target packet, wherein the target packet comprises a packet length, a queue identifier, and egress port information; sending (SI02), by the first scheduler, the target packet to a destination physical egress port corresponding to the egress port information, increasing, according to the queue identifier, a queue length of a virtual queue corresponding to the queue identifier by the packet length, and determining, a total amount of needed bandwidth according to the queue length, wherein the total amount of needed bandwidth is used to represent a bandwidth required by the first scheduler to send a packet having the queue identifier; after the sending (S102), by the first scheduler, the target packet to the destination physical egress port corresponding to the egress port information, sending (SI03), by the first scheduler, update information to a port controller, wherein the update information comprises that the queue length of the virtual queue is increased by the packet length; receiving, by the first scheduler, a bandwidth scheduling result sent by the port controller, wherein the bandwidth scheduling result is a bandwidth scheduling result generated by the port controller according to the update information; and decreasing (S104), by the first scheduler, the queue length of the virtual queue by the packet length according to the bandwidth scheduling result that is corresponding to the update information and sent by the port controller. receiving (S101), by a first scheduler, a target packet, wherein the target packet comprises a packet length, a queue identifier, and egress port information; sending (SI02), by the first scheduler, the target packet to a destination physical egress port corresponding to the egress port information, increasing, according to the queue identifier, a queue length of a virtual queue corresponding to the queue identifier by the packet length, and determining, a total amount of needed bandwidth according to the queue length, wherein the total amount of needed bandwidth is used to represent a bandwidth required by the first scheduler to send a packet having the queue identifier; after the sending (S102), by the first scheduler, the target packet to the destination physical egress port corresponding to the egress port information, sending (SI03), by the first scheduler, update information to a port controller, wherein the update information comprises that the queue length of the virtual queue is increased by the packet length; receiving, by the first scheduler, a bandwidth scheduling result sent by the port controller, wherein the bandwidth scheduling result is a bandwidth scheduling result generated by the port controller according to the update information; and decreasing (S104), by the first scheduler, the queue length of the virtual queue by the packet length according to the bandwidth scheduling result that is corresponding to the update information and sent by the port controller.
A method of producing a film with void spaces comprising: silicon compound microporous particles that form a structure with minute void spaces in the range from 5 nm to 10 cm, wherein the method comprises steps of: preparing a liquid containing silicon compound microporous particles; adding to the liquid a catalyst for directly chemically bonding the silicon compound microporous particles without involving binder components ; and directly chemically bonding the microporous particles by catalysis, wherein void spaces are measured by setting 0.1 g of sample in the capillary of a surface area measurement apparatus, dying under reduced temperature at room temperature for 24 hours, creating an adsorption isotherm by adsorbing nitrogen gas to the sample and thereby obtaining a pore size distribution. preparing a liquid containing silicon compound microporous particles; adding to the liquid a catalyst for directly chemically bonding the silicon compound microporous particles without involving binder components ; and directly chemically bonding the microporous particles by catalysis, wherein void spaces are measured by setting 0.1 g of sample in the capillary of a surface area measurement apparatus, dying under reduced temperature at room temperature for 24 hours, creating an adsorption isotherm by adsorbing nitrogen gas to the sample and thereby obtaining a pore size distribution.
A method of reducing moisture content of a cooling compartment comprising a conveyor system configured to transport products during cooling of the same in the cooling compartment , the method comprising: a step of defrosting the cooling compartment or a step of applying a cleaning agent comprising water to an interior of the cooling compartment , either step resulting in interior wet surfaces of the cooling compartment ; increasing an air temperature of the cooling compartment having the interior wet surfaces to a first temperature level (T air (min)) needed to load energy into air, moisture, and structure of the cooling compartment within the cooling compartment , after the air temperature of the cooling compartment reaches the first temperature level (T air (min)), decreasing, by a coil assembly , the air temperature of the cooling compartment to a second temperature level (T air (max)) needed to condense evaporated moisture onto the coil assembly to produce cooler drier air, and to evaporate at least some moisture from the interior wet surfaces into the cooler drier air within the cooling compartment , and draining any condensed moisture from the cooling compartment . a step of defrosting the cooling compartment or a step of applying a cleaning agent comprising water to an interior of the cooling compartment , either step resulting in interior wet surfaces of the cooling compartment ; increasing an air temperature of the cooling compartment having the interior wet surfaces to a first temperature level (T air (min)) needed to load energy into air, moisture, and structure of the cooling compartment within the cooling compartment , after the air temperature of the cooling compartment reaches the first temperature level (T air (min)), decreasing, by a coil assembly , the air temperature of the cooling compartment to a second temperature level (T air (max)) needed to condense evaporated moisture onto the coil assembly to produce cooler drier air, and to evaporate at least some moisture from the interior wet surfaces into the cooler drier air within the cooling compartment , and draining any condensed moisture from the cooling compartment .
1. A negative electrode material for lithium ion battery, the negative electrode material comprising a composite material, wherein the composite material comprises silicon-containing particles, graphitic carbon material particles, and a carbonaceous carbon material and has a ratio (A/B) of an area (A) of a peak Si2p near 100 eV derived from metal Si to an area (B) of a peak Si2p near 103 eV derived from silicon oxide, as measured by X-ray photoelectron spectroscopy with a X-Ray source of Al monochrome and a take-off angle of 45°, of not less than 0.10 and not more than 2.30.
A system, comprising: a plurality of computing nodes each hosting respective replicas of a distributed database, the plurality of computing nodes configured to: receive a first write request at a first node of a plurality of nodes; determine, by the first node, whether to perform or forward the received first write request according to a first type of write consistency associated with the first write request, the first type of write consistency being one of a plurality of different types of write consistency provided by the distributed database; forward the first write request to a second node of the plurality of nodes, the second node hosting a master replica of the distributed database; wherein said forwarding is performed responsive to a determination that the first type of write consistency indicates that the first write request should be forwarded instead of performed, and responsive to the first node not hosting the master replica; receive a second write request at the first node; and perform the second write request at the first node responsive to the second write request being associated with a second type of write consistency among the plurality of types of write consistency provided by the distributed database, wherein the second type of write consistency is eventual consistency. receive a first write request at a first node of a plurality of nodes; determine, by the first node, whether to perform or forward the received first write request according to a first type of write consistency associated with the first write request, the first type of write consistency being one of a plurality of different types of write consistency provided by the distributed database; forward the first write request to a second node of the plurality of nodes, the second node hosting a master replica of the distributed database; wherein said forwarding is performed responsive to a determination that the first type of write consistency indicates that the first write request should be forwarded instead of performed, and responsive to the first node not hosting the master replica; receive a second write request at the first node; and perform the second write request at the first node responsive to the second write request being associated with a second type of write consistency among the plurality of types of write consistency provided by the distributed database, wherein the second type of write consistency is eventual consistency.
A manufacturing method of a spark plug which includes an insulator having a through-hole in an axial direction, a center electrode inserted into and fixed to a leading end side of the through-hole , a terminal electrode inserted into and fixed to a rear end side of the through-hole , a first conductive sealing material layer fixed to the center electrode in the through-hole , a second conductive sealing material layer fixed to the terminal electrode in the through-hole , and a resistor interposed between the first and second conductive sealing material layers in the through-hole and fixed to both of them, the manufacturing method comprising: a first process of inserting the center electrode into the leading end side of the through-hole , sequentially charging from the rear end side of the through-hole , predetermined amounts of a first powder material that is to be the first conductive sealing material layer , a second powder material that is to be the resistor , and a third powder material that is to be the second conductive sealing material layer to be compacted and solidified, and inserting the terminal electrode from the rear end side of the through-hole until the terminal electrode abuts the third powder material and stops; and a second process of inserting the terminal electrode to a predetermined press completion position in a state where the insulator after finishing the first process is heated to a temperature equal to or greater than the softening temperatures of the first to third powder materials such that the first powder material becomes the first conductive sealing material layer , the second powder material becomes the resistor , and the third powder material becomes the second conductive sealing material layer , wherein a speed at which the terminal electrode is inserted is reduced between the start and the end of the second process. a first process of inserting the center electrode into the leading end side of the through-hole , sequentially charging from the rear end side of the through-hole , predetermined amounts of a first powder material that is to be the first conductive sealing material layer , a second powder material that is to be the resistor , and a third powder material that is to be the second conductive sealing material layer to be compacted and solidified, and inserting the terminal electrode from the rear end side of the through-hole until the terminal electrode abuts the third powder material and stops; and a second process of inserting the terminal electrode to a predetermined press completion position in a state where the insulator after finishing the first process is heated to a temperature equal to or greater than the softening temperatures of the first to third powder materials such that the first powder material becomes the first conductive sealing material layer , the second powder material becomes the resistor , and the third powder material becomes the second conductive sealing material layer , wherein a speed at which the terminal electrode is inserted is reduced between the start and the end of the second process.
An electronic device , comprising: an antenna node configured to communicatively couple to an antenna ; and an interface circuit , communicatively coupled to the antenna node, configured to communicate with a second electronic device (110-1), wherein the interface circuit is configured to: provide , from the interface circuit, a frame addressed to the second electronic device, wherein the frame comprises a media access control, MAC, header including an encrypted Aggregate, A,-control subfield that includes control information for one or more features associated with a wireless communication protocol, and wherein the MAC header comprises a counter mode cipher block chaining, CBC,-MAC protocol, CCMP, header, characterised in that the encrypted A-control subfield is located in the MAC header before and adjacent to the CCMP header. an antenna node configured to communicatively couple to an antenna ; and an interface circuit , communicatively coupled to the antenna node, configured to communicate with a second electronic device (110-1), wherein the interface circuit is configured to: provide , from the interface circuit, a frame addressed to the second electronic device, wherein the frame comprises a media access control, MAC, header including an encrypted Aggregate, A,-control subfield that includes control information for one or more features associated with a wireless communication protocol, and wherein the MAC header comprises a counter mode cipher block chaining, CBC,-MAC protocol, CCMP, header, characterised in that the encrypted A-control provide , from the interface circuit, a frame addressed to the second electronic device, wherein the frame comprises a media access control, MAC, header including an encrypted Aggregate, A,-control subfield that includes control information for one or more features associated with a wireless communication protocol, and wherein the MAC header comprises a counter mode cipher block chaining, CBC,-MAC protocol, CCMP, header, characterised in that the encrypted A-control subfield is located in the MAC header before and adjacent to the CCMP header.
A method of recording communications transmitted via an Internet Protocol Multimedia Subsystem, IMS, network , the method comprising: receiving a call request from a first party to call a second party; querying a database comprising a plurality of subscriber profiles to obtain subscriber configuration data relating to at least one of the first party and the second party; and based on the subscriber configuration data: cause a first media stream to be transmitted between the first party and a Media Resource Function, MRF ; cause a second media stream to be transmitted between the second party and the MRF ; and cause the MRF to transmit a third media stream from the MRF to a recording device for recording at least part of a call between the first party and the second party. receiving a call request from a first party to call a second party; querying a database comprising a plurality of subscriber profiles to obtain subscriber configuration data relating to at least one of the first party and the second party; and based on the subscriber configuration data: cause a first media stream to be transmitted between the first party and a Media Resource Function, MRF ; cause a second media stream to be transmitted between the second party and the MRF ; and cause the MRF to transmit a third media stream from the MRF to a recording device for recording at least part of a call between the first party and the second party. cause a first media stream to be transmitted between the first party and a Media Resource Function, MRF ; cause a second media stream to be transmitted between the second party and the MRF ; and cause the MRF to transmit a third media stream from the MRF to a recording device for recording at least part of a call between the first party and the second party.
A multi-ply article comprising a first ply and a second ply, wherein at least one of the first and second plies comprises a fibrous structure comprising one or more fibrous elements wherein at least one of the fibrous elements comprises one or more filament-forming materials and one or more active agents releasable from the fibrous elements, wherein the multi-ply article exhibits an Average Inter-Ply Peak Peel Force of greater than 0.03 N to 5.00 N as measured according to the Inter-Ply, Intra-Ply, and Whole 180° Peel Test Method.