mhurhangee/patent-ind-claim-en huggingface dataset:
A push-button structure , comprising: a mounting body , wherein an outer surface of the mounting body is at least partially recessed inward to form a blind hole ; a first magnetic component , disposed in the blind hole ; a second magnetic component , disposed on an inner surface of the mounting body and distributed symmetrically with the first magnetic component on an opposite side of the mounting body , for generating, based on a distance to the first magnetic component , a magnetic signal corresponding to the distance; and an elastic component , disposed in the blind hole and having a first form without an external action and a second form under an external action, wherein when the elastic component is in the first form, a first distance exists between the first magnetic component and the second magnetic component ; when the elastic component is in the second form, a second distance exists between the first magnetic component and the second magnetic component ; and the first distance is greater than the second distance, characterized in that , a partition is provided in the blind hole , and a receiving space is formed between the partition and a bottom of the blind hole ; when the elastic component has the first form, the first magnetic component is disposed in the blind hole outside the receiving space ; and when the elastic component has the second form, the first magnetic component at least partially enters the receiving space through an opening in the partition. a mounting body , wherein an outer surface of the mounting body is at least partially recessed inward to form a blind hole ; a first magnetic component , disposed in the blind hole ; a second magnetic component , disposed on an inner surface of the mounting body and distributed symmetrically with the first magnetic component on an opposite side of the mounting body , for generating, based on a distance to the first magnetic component , a magnetic signal corresponding to the distance; and an elastic component , disposed in the blind hole and having a first form without an external action and a second form under an external action, wherein when the elastic component is in the first form, a first distance exists between the first magnetic component and the second magnetic component ; when the elastic component is in the second form, a second distance exists between the first magnetic component and the second magnetic component ; and the first distance is greater than the second distance, characterized in that , a partition is provided in the blind hole , and a receiving space is formed between the partition and a bottom of the blind hole ; when the elastic component has the first form, the first magnetic component is disposed in the blind hole outside the receiving space ; and when the elastic component has the second form, the first magnetic component at least partially enters the receiving space through an opening in the partition.
A method for manufacturing an LCP film for a circuit substrate at least comprising: a composition provision step of providing an LCP resin composition at least containing 100 parts by mass of a liquid crystal polyester and 1 to 20 parts by mass of a polyarylate; a film forming step of T-die melt-extruding the LCP resin composition to form a T-die melt-extruded LCP film having a coefficient of linear thermal expansion (α2) in a TD direction of 50 ppm/K or more; and a pressurizing and heating step of subjecting the T-die melt-extruded LCP film to pressure and heat treatment to obtain an LCP film for a circuit substrate having a coefficient of linear thermal expansion (α2) in the TD direction of 16.8 ± 12 ppm/K, wherein the coefficient of linear thermal expansion is measured as described in the description. a composition provision step of providing an LCP resin composition at least containing 100 parts by mass of a liquid crystal polyester and 1 to 20 parts by mass of a polyarylate; a film forming step of T-die melt-extruding the LCP resin composition to form a T-die melt-extruded LCP film having a coefficient of linear thermal expansion (α2) in a TD direction of 50 ppm/K or more; and a pressurizing and heating step of subjecting the T-die melt-extruded LCP film to pressure and heat treatment to obtain an LCP film for a circuit substrate having a coefficient of linear thermal expansion (α2) in the TD direction of 16.8 ± 12 ppm/K,
A method for monitoring and reconstructing a virtual Programmable Logic Controller (PLC), wherein the method is applicable to a server cluster, each of a plurality of servers in the server cluster comprises at least one physical core on which at least two micro kernels are deployed, the micro kernels on the at least one physical core comprises a first group of the micro kernel on which a virtual PLC is deployed, a second group of the micro kernel on which a soft guardian is deployed, and a third group of the micro kernel without the virtual PLC and the soft guardian deployed thereon; and the method comprises: upon monitoring that the virtual PLC fails, obtaining, by the soft guardian, an operating state of each physical core on each server in the server cluster, and an operating state of each micro kernel on the each physical core; determining, by the soft guardian, a target micro kernel according to the operating state of the each physical core on the each server, and the operating state of the each micro kernel on the each physical core; and transmitting, by the soft guardian, a reconstruction instruction to the target micro kernel, wherein the reconstruction instruction comprises a user program compiled result file of the virtual PLC and the target micro kernel on which the virtual PLC is to be reconstructed, and the reconstruction instruction is configured to instruct the virtual PLC to be reconstructed on the target micro kernel; wherein the virtual PLC is a PLC running on a virtualized operating system. upon monitoring that the virtual PLC fails, obtaining, by the soft guardian, an operating state of each physical core on each server in the server cluster, and an operating state of each micro kernel on the each physical core; determining, by the soft guardian, a target micro kernel according to the operating state of the each physical core on the each server, and the operating state of the each micro kernel on the each physical core; and transmitting, by the soft guardian, a reconstruction instruction to the target micro kernel, wherein the reconstruction instruction comprises a user program compiled result file of the virtual PLC and the target micro kernel on which the virtual PLC is to be reconstructed, and the reconstruction instruction is configured to instruct the virtual PLC to be reconstructed on the target micro kernel; wherein the virtual PLC is a PLC running on a virtualized operating system.
Sensor element for measuring a temperature, having - a carrier , wherein the carrier has an electrically insulating material, and wherein the carrier has a top side and a bottom side , - an NTC thermistor , wherein the NTC thermistor is arranged on the top side of the carrier , - at least two first electrodes for electrically contacting the sensor element , wherein the first electrodes are arranged on the top side of the carrier , wherein the respective first electrode has a first region for electrically contacting the sensor element by means of wire bonding or soldering, and wherein the respective first electrode has a second region for contacting the NTC thermistor by means of soldering, wherein the first region and the second region are linked to one another by way of a web-shaped connecting region , - at least one second electrode that is formed over the entire surface of the bottom side of the carrier and is designed and arranged to be applied directly to a conductor track of a power module using conventional construction and connection technology, wherein the sensor element is designed to be integrated directly in an electrically insulating manner. - a carrier , wherein the carrier has an electrically insulating material, and wherein the carrier has a top side and a bottom side , - an NTC thermistor , wherein the NTC thermistor is arranged on the top side of the carrier , - at least two first electrodes for electrically contacting the sensor element , wherein the first electrodes are arranged on the top side of the carrier , wherein the respective first electrode has a first region for electrically contacting the sensor element by means of wire bonding or soldering, and wherein the respective first electrode has a second region for contacting the NTC thermistor by means of soldering, wherein the first region and the second region are linked to one another by way of a web-shaped connecting region , - at least one second electrode that is formed over the entire surface of the bottom side of the carrier and is designed and arranged to be applied directly to a conductor track of a power module using conventional construction and connection technology,
A method for wireless communication by a user equipment, UE (115-a), comprising: determining first timer data based at least in part on a duration for transmitting a first request to send, RTS message (305-a) and a duration for receiving a clear to send, CTS message (310-a); transmitting the first RTS message (305-a) including the first timer data ; receiving the CTS message based on the first RTS message before expiration of a first timer associated with said first timer data ; and transmitting, in response to receiving the CTS message, a data message (315-a) including second timer data associated with the transmission duration of the data message (315-a), the second timer data being different from the first timer data , the data message (315-a) being transmitted during a data transmission opportunity for the UE. determining first timer data based at least in part on a duration for transmitting a first request to send, RTS message (305-a) and a duration for receiving a clear to send, CTS message (310-a); transmitting the first RTS message (305-a) including the first timer data ; receiving the CTS message based on the first RTS message before expiration of a first timer associated with said first timer data ; and transmitting, in response to receiving the CTS message, a data message (315-a) including second timer data associated with the transmission duration of the data message (315-a), the second timer data being different from the first timer data , the data message (315-a) being transmitted during a data transmission opportunity for the UE.
An ink composition comprising: water; particles that each include a polymer having at least one of a urethane bond or a urea bond, and each have a polymerizable group; and a combination of a polymerization inhibitor A1 that is at least one selected from the group consisting of quinone compounds, nitroso compounds, and N-oxyl compounds, and a polymerization inhibitor A2 that is at least one selected from the group consisting of phenol compounds, wherein a content ratio of the polymerization inhibitor A2 with respect to the polymerization inhibitor A1 is from 10 to 100 in terms of mass, wherein the polymerization inhibitor A1 has a solubility of 1.0 g/100 mL or more in water at 25°C, and wherein the polymerization inhibitor A2 has a solubility of less than 1.0 g/100 mL in water at 25°C. water; particles that each include a polymer having at least one of a urethane bond or a urea bond, and each have a polymerizable group; and a combination of a polymerization inhibitor A1 that is at least one selected from the group consisting of quinone compounds, nitroso compounds, and N-oxyl compounds, and a polymerization inhibitor A2 that is at least one selected from the group consisting of phenol compounds, wherein a content ratio of the polymerization inhibitor A2 with respect to the polymerization inhibitor A1 is from 10 to 100 in terms of mass, wherein the polymerization inhibitor A1 has a solubility of 1.0 g/100 mL or more in water at 25°C, and wherein the polymerization inhibitor A2 has a solubility of less than 1.0 g/100 mL in water at 25°C.
An aqueous dispersion whose particulate population includes dispersant-laden particles, the dispersion comprising: (a) an aqueous carrier medium; (b) pigment core particles; (c) a dispersant; and (d) a salt of at least one of a fatty acid or a substituted fatty acid, each nominal unit of said salt having a cation and a hydrophobic carbon chain having an anionic moiety associated therewith; said salt having at least one of the following structural features: (a) a standard critical micelle concentration (CMC), at 25°C and at a pH of 7, is at most 500 millimoles/liter (mM/l); (b) a pH dependent CMC, at 25°C and at a pH of the aqueous dispersion, is at most 500 mM/l; said salt having at least one of the following additional structural features: (I) a Griffin hydrophilic-lipophilic balance (G-HLB) number of at least 3.8; (II) a Davies hydrophilic-lipophilic balance (D-HLB) number of at least 9.5; wherein dispersant molecules of said dispersant surround, and are associated with, an outer surface of said pigment core particles to form a dispersant envelope; wherein individual hydrophobic carbon chains of said salt are associated with said dispersant molecules in said dispersant envelope; the dispersant-laden particles being dispersed within said aqueous carrier medium; wherein the particulate population has a median size on a volume basis (D V50 ) within a range of 20nm to 400nm; and wherein a first ratio of said salt to a nominal surface area of at least one of (i) said pigment core particles and (ii) the dispersant-laden particles is at most 3.5g per 1000m 2 . (a) an aqueous carrier medium; (b) pigment core particles; (c) a dispersant; and (d) a salt of at least one of a fatty acid or a substituted fatty acid, each nominal unit of said salt having a cation and a hydrophobic carbon chain having an anionic moiety associated therewith; (a) a standard critical micelle concentration (CMC), at 25°C and at a pH of 7, is at most 500 millimoles/liter (mM/l); (b) a pH dependent CMC, at 25°C and at a pH of the aqueous dispersion, is at most 500 mM/l; (I) a Griffin hydrophilic-lipophilic balance (G-HLB) number of at least 3.8; (II) a Davies hydrophilic-lipophilic balance (D-HLB) number of at least 9.5;
A method for preparing a medium for rapid hydrate formation, comprising: formulating a kinetic promoter and water into an aqueous solution; forming a primary hydrate by reacting the aqueous solution and a primary gas at an initial temperature greater than 0°C and less than 5°C; decreasing the temperature of the primary hydrate obtained by the reaction, the residual aqueous solution and the remaining primary gas to a decomposition temperature of greater than -2.5°C and less than 0°C; discharging the remaining primary gas and keeping the pressure of the cooled primary hydrate and the frozen residual aqueous solution at or below atmospheric pressure; releasing the gas stored in the primary hydrate, and finally acquiring an ice substance, which is the medium for rapid hydrate formation. formulating a kinetic promoter and water into an aqueous solution; forming a primary hydrate by reacting the aqueous solution and a primary gas at an initial temperature greater than 0°C and less than 5°C; decreasing the temperature of the primary hydrate obtained by the reaction, the residual aqueous solution and the remaining primary gas to a decomposition temperature of greater than -2.5°C and less than 0°C; discharging the remaining primary gas and keeping the pressure of the cooled primary hydrate and the frozen residual aqueous solution at or below atmospheric pressure; releasing the gas stored in the primary hydrate, and finally acquiring an ice substance, which is the medium for rapid hydrate formation.
A fastening device configured to fasten a battery module to a battery pack cover , the fastening device comprising a fixating member adapted to be received within, and protrude from, a recess of the battery module , a first fastener adapted to fasten the fixating member to the battery pack cover , and a second fastener adapted to fasten the fixating member to the battery module , for securement within the recess of the battery module , wherein a fastening direction of the first fastener is perpendicular to a fastening direction of the second fastener , and wherein the first fastener is configured to move the fixating member into contact with the battery pack cover . a fixating member adapted to be received within, and protrude from, a recess of the battery module , a first fastener adapted to fasten the fixating member to the battery pack cover , and a second fastener adapted to fasten the fixating member to the battery module , for securement within the recess of the battery module , wherein a fastening direction of the first fastener is perpendicular to a fastening direction of the second fastener , and wherein the first fastener is configured to move the fixating member into contact with the battery pack cover .
A foil for a rotating blade of a turbomachine, configured to be mounted to a root of said rotating blade and comprising: - an overall U-shaped cross-section formed by two lateral legs connected through a lower surface , the lower surface covering a lower face of the blade root , the lateral legs each covering at least part of two lateral flanks of the blade root ; and - blocking means for prohibiting at least some of the relative movements between the blade root and said foil, characterised in that said blocking means includes at least one oblique tab , partially cut out of a lower surface of the foil and forming, with respect to said lower surface of the foil, a tilted plane protrusion able to be inserted into a housing formed in a lower face of the blade root. - an overall U-shaped cross-section formed by two lateral legs connected through a lower surface , the lower surface covering a lower face of the blade root , the lateral legs each covering at least part of two lateral flanks of the blade root ; and - blocking means for prohibiting at least some of the relative movements between the blade root and said foil,
A three-dimensional memory device , comprising: a substrate ; a memory stack comprising interleaved conductive layers and dielectric layers above the substrate ; a channel structure extending vertically through the memory stack ; a channel local contact above and in contact with the channel structure ; and a slit structure extending vertically through the memory stack , wherein the slit structure comprises a sidewall, a spacer and a contact , the spacer disposed along the sidewall of a slit opening and in etchback recesses formed in the conductive layers , the contact comprising a first contact (228-1, 442-1) portion in the bottom portion of the slit structure and on the spacer and a second contact portion (228-2, 442-2) above the first contact portion (228-1, 442-1) and having a different material from the first contact portion (228-1, 442-1), wherein a width of an upper end of the second contact portion (228-2, 442-2) is greater than a width of an upper end of the first contact portion (228-1, 442-1), wherein the upper end of the second contact portion (228-2, 442-2) of the slit structure is flush with an upper end of the channel local contact , characterised in that the second contact portion (228-2, 442-2) of the slit structure and the channel local contact comprise a same conductive material. a substrate ; a memory stack comprising interleaved conductive layers and dielectric layers above the substrate ; a channel structure extending vertically through the memory stack ; a channel local contact above and in contact with the channel structure ; and a slit structure extending vertically through the memory stack , wherein the slit structure comprises a sidewall, a spacer and a contact , the spacer disposed along the sidewall of a slit opening and in etchback recesses formed in the conductive layers , the contact comprising a first contact (228-1, 442-1) portion in the bottom portion of the slit structure and on the spacer and a second contact portion (228-2, 442-2) above the first contact portion (228-1, 442-1) and having a different material from the first contact portion (228-1, 442-1), wherein a width of an upper end of the second contact portion (228-2, 442-2) is greater than a width of an upper end of the first contact portion (228-1, 442-1), wherein the upper end of the second contact portion (228-2, 442-2) of the slit structure is flush with an upper end of the channel local contact , characterised in that the second contact portion (228-2, 442-2) of the slit structure and the channel local contact comprise a same conductive material.
A docking station for a robotic cleaner comprising: a base , the base including a support and a suction housing ; a docking station suction inlet defined in the suction housing, the docking station suction inlet being configured to fluidly couple to the robotic cleaner; and an alignment protrusion defined in the support, the alignment protrusion configured to urge the robotic cleaner towards an orientation in which the robotic cleaner fluidly couples to the docking station suction inlet, characterized in that , the alignment protrusion includes first and second protrusion sidewalls that converge, with increasing distance from the docking station suction inlet, towards a central axis of the docking station suction inlet. a base , the base including a support and a suction housing ; a docking station suction inlet defined in the suction housing, the docking station suction inlet being configured to fluidly couple to the robotic cleaner; and an alignment protrusion defined in the support, the alignment protrusion configured to urge the robotic cleaner towards an orientation in which the robotic cleaner fluidly couples to the docking station suction inlet, characterized in that , the alignment protrusion includes first and second protrusion sidewalls that converge, with increasing distance from the docking station suction inlet, towards a central axis of the docking station suction inlet.