mhurhangee/patent-ind-claim-en huggingface dataset:
A system that comprises a quick connect fluid connector , an electronic reader , and a process controller ; the quick connect fluid connector is detachably connectable to a tube of a fluid system to process a fluid into or from the fluid system through the quick connect fluid connector , and the quick connect fluid connector comprises: a generally cylindrical construction that includes a body ; a metal part mounted on the body and movable relative to the body between a first position and a second position; characterized in that it comprises at least one radio frequency identification tag attached to an outer surface of the body ; wherein the radio frequency identification tag is positioned at a location on the outer surface of the body such that at least a portion of the radio frequency identification tag is covered by the metal part when the metal part is at the first position, and no portion of the radio frequency identification tag is covered by the metal part when the metal part is at the second position; wherein the quick connect fluid connector is in a disconnected state when the metal part is at the first position, and the quick connect fluid connector is in a connected state when the metal part is at the second position; the radio frequency identification tag cannot be detected by the electronic reader when the metal part is at the first position, and the radio frequency identification tag can be detected by the electronic reader when the metal part is at the second position; and wherein the electronic reader is connected to the process controller . a generally cylindrical construction that includes a body ; a metal part mounted on the body and movable relative to the body between a first position and a second position; characterized in that it comprises at least one radio frequency identification tag attached to an outer surface of the body ; wherein the radio frequency identification tag is positioned at a location on the outer surface of the body such that at least a portion of the radio frequency identification tag is covered by the metal part when the metal part is at the first position, and no portion of the radio frequency identification tag is covered by the metal part when the metal part is at the second position; wherein the quick connect fluid connector is in a disconnected state when the metal part is at the first position, and the quick connect fluid connector is in a connected state when the metal part is at the second position; the radio frequency identification tag cannot be detected by the electronic reader when the metal part is at the first position, and the radio frequency identification tag can be detected by the electronic reader when the metal part is at the second position; and wherein the electronic reader is connected to the process controller .
A terminal comprising: a transmitting section configured to multiplex and to transmit HARQ-ACK in at least one of a first uplink shared channel transmission scheduled by first downlink control information and a second uplink shared channel transmission activated by second downlink control information; and a control section configured to: control, when the HARQ-ACK is multiplexed in the first uplink shared channel transmission, generation of an HARQ-ACK codebook based on a Downlink Assignment Indicator, DAI, included in the first downlink control information and a counter DAI included in downlink control information for scheduling a downlink shared channel, and control, when the HARQ-ACK is multiplexed in the second uplink shared channel transmission, generation of the HARQ-ACK codebook based on a total DAI and the counter DAI included in downlink control information for scheduling a downlink shared channel, wherein the control section is configured to control multiplexing of the HARQ-ACK in the second uplink shared channel transmission based on a number of bits of the HARQ-ACK. a transmitting section configured to multiplex and to transmit HARQ-ACK in at least one of a first uplink shared channel transmission scheduled by first downlink control information and a second uplink shared channel transmission activated by second downlink control information; and a control section configured to: control, when the HARQ-ACK is multiplexed in the first uplink shared channel transmission, generation of an HARQ-ACK codebook based on a Downlink Assignment Indicator, DAI, included in the first downlink control information and a counter DAI included in downlink control information for scheduling a downlink shared channel, and control, when the HARQ-ACK is multiplexed in the second uplink shared channel transmission, generation of the HARQ-ACK codebook based on a total DAI and the counter DAI included in downlink control information for scheduling a downlink shared channel, control, when the HARQ-ACK is multiplexed in the first uplink shared channel transmission, generation of an HARQ-ACK codebook based on a Downlink Assignment Indicator, DAI, included in the first downlink control information and a counter DAI included in downlink control information for scheduling a downlink shared channel, and control, when the HARQ-ACK is multiplexed in the second uplink shared channel transmission, generation of the HARQ-ACK codebook based on a total DAI and the counter DAI included in downlink control information for scheduling a downlink shared channel, wherein the control section is configured to control multiplexing of the HARQ-ACK in the second uplink shared channel transmission based on a number of bits of the HARQ-ACK.
A method for dynamically requesting a network resource comprising: receiving, from a network device comprising a first network interface and a second network interface, a request to a resource manager service for an additional resource for the second interface on the network device, the request comprising negotiation parameters for the additional resource; sending, from the resource manager service to the network device, configuration parameters for the additional resource to be used over the second network interface, the configuration parameters being in accordance with the negotiation parameters; and characterised in that the configuration parameters are for causing a modification of a programmable SIM, Subscriber Identification Module, of the network device when received thereby so as to cause usage of the additional resource over the second network interface for a period of time. receiving, from a network device comprising a first network interface and a second network interface, a request to a resource manager service for an additional resource for the second interface on the network device, the request comprising negotiation parameters for the additional resource; sending, from the resource manager service to the network device, configuration parameters for the additional resource to be used over the second network interface, the configuration parameters being in accordance with the negotiation parameters; and characterised in that the configuration parameters are for causing a modification of a programmable SIM, Subscriber Identification Module, of the network device when received thereby so as to cause usage of the additional resource over the second network interface for a period of time.
A first layer one link aggregation master configured to control transmission of customer traffic to a receiver, the first layer one link aggregation master comprising: a first port (P1) coupled to receive customer traffic; a first channel (C1); a second channel (C2); an aggregation engine coupled to the first and second channels; a first switch circuit coupled to the first port (P1) and to the first channel (C1), and configured to communicate the customer traffic from the first port (P1) over the first channel (C1) to the aggregation engine , the aggregation engine including a splitter circuit configured to use layer one information to segment at least a portion of the customer traffic into a first virtual container and a second virtual container, the aggregation engine further including an encapsulation circuit configured to encapsulate the second virtual container using Ethernet standards for transport over the second channel (C2); a radio access card configured to generate an air frame based on the first virtual container for wireless transmission over a first wireless link of a link aggregation group to the receiver ; and a second switch circuit coupled to the second channel (C2), and configured to communicate the Ethernet-encapsulated second virtual container over an Ethernet cable to a slave switching circuit for wireless transmission over a second wireless link of the link aggregation group to the receiver . a first port (P1) coupled to receive customer traffic; a first channel (C1); a second channel (C2); an aggregation engine coupled to the first and second channels; a first switch circuit coupled to the first port (P1) and to the first channel (C1), and configured to communicate the customer traffic from the first port (P1) over the first channel (C1) to the aggregation engine , the aggregation engine including a splitter circuit configured to use layer one information to segment at least a portion of the customer traffic into a first virtual container and a second virtual container, the aggregation engine further including an encapsulation circuit configured to encapsulate the second virtual container using Ethernet standards for transport over the second channel (C2); a radio access card configured to generate an air frame based on the first virtual container for wireless transmission over a first wireless link of a link aggregation group to the receiver ; and a second switch circuit coupled to the second channel (C2), and configured to communicate the Ethernet-encapsulated second virtual container over an Ethernet cable to a slave switching circuit for wireless transmission over a second wireless link of the link aggregation group to the receiver .
A cementitious mortar based composite panel comprising - a plurality of through elements made of glass for transmitting light from a first base surface to a second base surface (1") of the panel , opposite to said first base surface , wherein said through elements extend along a reference direction , - an inner structure about said through elements wherein said inner structure incorporates a central part of said through elements ; - a first main portion , made of cementitious mortar, between said first base surface of said panel and said inner structure , said first main portion incorporating a first end part of said through elements adjacent to said central part ; - a second main portion , made of cementitious mortar, between said second base surface (1") of said panel and said inner structure , said second main portion incorporating a second end part of said through elements opposite to said first end with respect to said central part ; - a plurality of through portions , made of cementitious mortar, which extend through said inner structure , thus connecting said first main portion to said second main portion made of cementitious mortar, characterized in that said inner structure is made of heat-expanded plastic material, and in that for at least one of said through elements , the extension of said central part , evaluated along said reference direction , is greater than the extension of each of said end parts of said through elements incorporated into said first and second main portions made of cementitious mortar. - a plurality of through elements made of glass for transmitting light from a first base surface to a second base surface (1") of the panel , opposite to said first base surface , wherein said through elements extend along a reference direction , - an inner structure about said through elements wherein said inner structure incorporates a central part of said through elements ; - a first main portion , made of cementitious mortar, between said first base surface of said panel and said inner structure , said first main portion incorporating a first end part of said through elements adjacent to said central part ; - a second main portion , made of cementitious mortar, between said second base surface (1") of said panel and said inner structure , said second main portion incorporating a second end part of said through elements opposite to said first end with respect to said central part ; - a plurality of through portions , made of cementitious mortar, which extend through said inner structure , thus connecting said first main portion to said second main portion made of cementitious mortar,
A system for immersion cooling computing system equipment, the system comprising: a container ; a volume of cooling liquid disposed in the container ; a computing system equipment holder disposed in the volume of cooling liquid ; wherein the computing system equipment holder is a server rack including a plurality of rack shelves ; and a liquid-liquid heat exchanger attached to and supported by the computing system equipment holder using one of the plurality of rack shelves , the liquid-liquid heat exchanger disposed in the volume of cooling liquid. a container ; a volume of cooling liquid disposed in the container ; a computing system equipment holder disposed in the volume of cooling liquid ; wherein the computing system equipment holder is a server rack including a plurality of rack shelves ; and a liquid-liquid heat exchanger attached to and supported by the computing system equipment holder using one of the plurality of rack shelves , the liquid-liquid heat exchanger disposed in the volume of cooling liquid.
An inverter structure of an inverter comprising a smoothing capacitor and a plurality of power modules , wherein the smoothing capacitor includes a plurality of columnar unit capacitors each having electrodes (T) at both ends thereof, a plate-shaped one-end-side bus plate connected to the electrode at one end of each unit capacitor, and a plate-shaped other-end-side bus plate connected to the electrode at the other end of the unit capacitor, and the unit capacitors are arranged, with axes thereof parallel to each other, side by side in a direction along a plane perpendicular to the axes, wherein the columnar unit capacitors are connected together by being held from both sides in the axial direction by the one-end-side bus plate and the other-end-side bus plate ; and wherein the power modules are arranged, in a circumferential direction of the inverter on an outer side of the smoothing capacitor , side by side in a direction along a plane perpendicular to the axes of the unit capacitors , and wherein the power modules are further arranged equally distant from the smoothing capacitor . wherein the smoothing capacitor includes a plurality of columnar unit capacitors each having electrodes (T) at both ends thereof, a plate-shaped one-end-side bus plate connected to the electrode at one end of each unit capacitor, and a plate-shaped other-end-side bus plate connected to the electrode at the other end of the unit capacitor, and the unit capacitors are arranged, with axes thereof parallel to each other, side by side in a direction along a plane perpendicular to the axes, wherein the columnar unit capacitors are connected together by being held from both sides in the axial direction by the one-end-side bus plate and the other-end-side bus plate ; and wherein the power modules are arranged, in a circumferential direction of the inverter on an outer side of the smoothing capacitor , side by side in a direction along a plane perpendicular to the axes of the unit capacitors , and wherein the power modules are further arranged equally distant from the smoothing capacitor .
A power transmission unit for a vehicle, comprising: a continuously variable transmission that is adapted to alter a speed ratio continuously, and that is disposed between an input shaft to which a torque of a prime mover is inputted and an output shaft rotated by the torque transmitted from the input shaft ; a first gear train for transmitting the torque when propelling the vehicle in the forward direction; and a second gear train for transmitting the torque to propel the vehicle backwardly by rotating the output shaft in an opposite direction to a rotational direction of the input shaft when propelling the vehicle in the backward direction and that is arranged parallel to the first gear train ; a first clutch device (C1) configured to selectively allow a torque transmitting route from the input shaft to the output shaft via the first gear train to transmit the torque therethrough; a dog clutch configured to switch the torque transmitting route from the input shaft to the output shaft between a continuously variable speed change route in which the torque is transmitted through the continuously variable transmission and a reverse route in which the torque is transmitted through the second gear train ; and a second clutch device (C2) configured to connect and disconnect both of the continuously variable speed change route and the reverse route to/from the output shaft , characterized in that the second clutch device (C2) is disposed at a site to transmit the torque from the continuously variable speed change route and the reverse route to the output shaft. a continuously variable transmission that is adapted to alter a speed ratio continuously, and that is disposed between an input shaft to which a torque of a prime mover is inputted and an output shaft rotated by the torque transmitted from the input shaft ; a first gear train for transmitting the torque when propelling the vehicle in the forward direction; and a second gear train for transmitting the torque to propel the vehicle backwardly by rotating the output shaft in an opposite direction to a rotational direction of the input shaft when propelling the vehicle in the backward direction and that is arranged parallel to the first gear train ; a first clutch device (C1) configured to selectively allow a torque transmitting route from the input shaft to the output shaft via the first gear train to transmit the torque therethrough; a dog clutch configured to switch the torque transmitting route from the input shaft to the output shaft between a continuously variable speed change route in which the torque is transmitted through the continuously variable transmission and a reverse route in which the torque is transmitted through the second gear train ; and a second clutch device (C2) configured to connect and disconnect both of the continuously variable speed change route and the reverse route to/from the output shaft , characterized in that the second clutch device (C2) is disposed at a site to transmit the torque from the continuously variable speed change route and the reverse route to the output shaft.
A chute type monomer dispenser comprising: a chute dispenser installed to be slanted in a direction of a conveyor belt of a polymerization apparatus and having an injection portion opened at an upper portion of the chute dispenser ; an injection pipe suitable for injecting a monomer to the polymerization apparatus ; and an injector suitable for injecting an initiator and a foaming agent to the injection portion characterized in that the chute dispenser includes a dispenser body installed to be slanted in the direction of a conveyor belt of the polymerization apparatus , so that the monomer is injected into the polymerization apparatus by its own weight and having a slanted movement portion; the slanted movement portion is formed in a fan-shaped plane suitable for feeding the monomer to the polymerization apparatus while maintaining a uniform thickness, in a process in which the monomer is discharged in the direction of the polymerization apparatus ; and the dispenser body has guide portions formed at sides of the dispenser body and configured to guide the movement of the monomer . a chute dispenser installed to be slanted in a direction of a conveyor belt of a polymerization apparatus and having an injection portion opened at an upper portion of the chute dispenser ; an injection pipe suitable for injecting a monomer to the polymerization apparatus ; and an injector suitable for injecting an initiator and a foaming agent to the injection portion characterized in that the chute dispenser includes a dispenser body installed to be slanted in the direction of a conveyor belt of the polymerization apparatus , so that the monomer is injected into the polymerization apparatus by its own weight and having a slanted movement portion; the slanted movement portion is formed in a fan-shaped plane suitable for feeding the monomer to the polymerization apparatus while maintaining a uniform thickness, in a process in which the monomer is discharged in the direction of the polymerization apparatus ; and the dispenser body has guide portions formed at sides of the dispenser body and configured to guide the movement of the monomer .
A wetness sensor, comprising: a first substrate ; and a tuned RF circuit carried by the first substrate, the RF circuit including a first conductive pattern, a first separate capacitor , and a separate jumper all disposed on a same side of the first substrate, the RF circuit being characterized by an impedance or resistance; wherein the first conductive pattern includes a coil , an inner terminus on an interior of the coil , and an outer terminus on an exterior of the coil ; wherein the jumper is formed from a conductive material to electrically couple the inner terminus to the outer terminus , wherein said jumper is configured to avoid making electrical contact with the portions of the conductive pattern that it crosses over; and wherein the jumper includes a frangible link that comprises either a non-conductive adhesive that connects the jumper or a portion thereof to the sensor substrate, the adhesive being adapted to dissolve when contacted by the target, or alternatively or in addition, a second substrate that forms part of the jumper, the second substrate being adapted to dissolve, swell or degrade when contacted by a target fluid such that the impedance or resistance of the RF circuit changes by at least a factor of 5 when the frangible link is contacted by the target fluid. a first substrate ; and a tuned RF circuit carried by the first substrate, the RF circuit including a first conductive pattern, a first separate capacitor , and a separate jumper all disposed on a same side of the first substrate, the RF circuit being characterized by an impedance or resistance; wherein the first conductive pattern includes a coil , an inner terminus on an interior of the coil , and an outer terminus on an exterior of the coil ; wherein the jumper is formed from a conductive material to electrically couple the inner terminus to the outer terminus , wherein said jumper is configured to avoid making electrical contact with the portions of the conductive pattern that it crosses over; and wherein the jumper includes a frangible link that comprises either a non-conductive adhesive that connects the jumper or a portion thereof to the sensor substrate, the adhesive being adapted to dissolve when contacted by the target, or alternatively or in addition, a second substrate that forms part of the jumper, the second substrate being adapted to dissolve, swell or degrade when contacted by a target fluid such that the impedance or resistance of the RF circuit changes by at least a factor of 5 when the frangible link is contacted by the target fluid. either a non-conductive adhesive that connects the jumper or a portion thereof to the sensor substrate, the adhesive being adapted to dissolve when contacted by the target, or alternatively or in addition, a second substrate that forms part of the jumper, the second substrate being adapted to dissolve, swell or degrade when contacted by a target fluid such that the impedance or resistance of the RF circuit changes by at least a factor of 5 when the frangible link is contacted by the target fluid.