mhurhangee/ep-ind-claims huggingface dataset:
A connector arrangement (3000, 4000) comprising: a plug (3002, 4002) defining a first plurality of slots and a second plurality of slots, the first plurality of slots being separate from the second plurality of slots; a plurality of first contacts (3012, 4012) located in the plug and accessible through the first plurality of slots, the first contacts (3012, 4012) being electrically connected to conductors of an electrical segment of communications media terminated at the plug (3002, 4002); a plurality of second contacts (314, 3026) located in the plug (3002, 4002) and accessible through the second plurality of slots; characterized in, a storage device (315, 3030, 4030) mounted within the plug, the storage device (315, 3030, 4030) being electrically connected to the second contacts (314, 3026), the storage device (315, 3030, 4030) being configured to store physical layer information pertaining to the connector arrangement (310, 3000, 4000) or the electrical segment of communications media. a plug (3002, 4002) defining a first plurality of slots and a second plurality of slots, the first plurality of slots being separate from the second plurality of slots; a plurality of first contacts (3012, 4012) located in the plug and accessible through the first plurality of slots, the first contacts (3012, 4012) being electrically connected to conductors of an electrical segment of communications media terminated at the plug (3002, 4002); a plurality of second contacts (314, 3026) located in the plug (3002, 4002) and accessible through the second plurality of slots; a storage device (315, 3030, 4030) mounted within the plug, the storage device (315, 3030, 4030) being electrically connected to the second contacts (314, 3026), the storage device (315, 3030, 4030) being configured to store physical layer information pertaining to the connector arrangement (310, 3000, 4000) or the electrical segment of communications media.
A heat transfer plate (2a, 2d) comprising an upper end portion, a center portion and a lower end portion arranged in succession along a longitudinal center axis of the heat transfer plate (2a, 2d), the upper end portion comprising a first and a second port hole (10, 12) and an upper distribution area provided with an upper distribution pattern, the lower end portion comprising a third and a fourth port hole (18, 20) and a lower distribution area provided with a lower distribution pattern, and the center portion comprising a heat transfer area provided with a heat transfer pattern differing from the upper and lower distribution patterns, the upper end portion adjoining the center portion along an upper border line and the lower end portion adjoining the center portion along a lower border line, wherein the upper distribution pattern comprises upper distribution ridges and upper distribution valleys, a respective top portion of the upper distribution ridges extending in an imaginary upper plane, and a respective bottom portion of the upper distribution valleys extending in an imaginary lower plane, which upper and lower planes (38, 40) define, in a thickness direction (t), an extreme extension of the heat transfer plate (2a, 2d) within the upper distribution area, the upper distribution ridges longitudinally extending along a plurality of separated imaginary upper ridge lines extending from the upper border line towards the first port hole, the upper distribution valleys longitudinally extending along a plurality of separated imaginary upper valley lines extending from the upper border line towards the second port hole, wherein the imaginary upper ridge lines cross the imaginary upper valley lines in a plurality of upper cross points, wherein the heat transfer plate (2a, 2d), in a plurality of the upper cross points, extends in an imaginary first intermediate plane extending between the upper plane and the lower plane, characterized in that the heat transfer plate (2a, 2d), in a number of first upper cross points of the upper cross points arranged on one side of the longitudinal center axis, extends above the first intermediate plane, and the heat transfer plate, in a number of second upper cross points of the upper cross points arranged on another side of the longitudinal center axis, extends below the first intermediate plane.
A computer-implemented method of recovering a registry (130, 420) comprising the steps of: receiving zone data from the registry (130, 420); archiving the zone data into a data repository; in an event of failure of the registry (130, 420), publishing the zone data into a managed DNS service, wherein the managed DNS service is configured to electronically accept zone updates from an authorized user via an electronic interface, wherein the authorized user is not the zone owner and the managed DNS service is further configured to extract the zone data into a format suitable for a managed DNS nameserver, wherein the managed DNS nameserver is active for a TLD; obtaining reconciled ownership data comprising information on the ownership of the zone data, wherein the reconciliation of ownership data is based at least on escrow data, WHOIS data, or survey data; launching a provisioning DNS service, wherein the provisioning DNS service is configured to electronically accept zone updates from the zone owner via an electronic interface, and wherein the provisioning DNS service is a separate service from the managed DNS service; and transitioning from the managed DNS service to the provisioning DNS service, wherein the zone data and reconciled ownership data is extracted into the provisioning DNS service. receiving zone data from the registry (130, 420); archiving the zone data into a data repository; in an event of failure of the registry (130, 420), publishing the zone data into a managed DNS service, wherein the managed DNS service is configured to electronically accept zone updates from an authorized user via an electronic interface, wherein the authorized user is not the zone owner and the managed DNS service is further configured to extract the zone data into a format suitable for a managed DNS nameserver, wherein the managed DNS nameserver is active for a TLD; obtaining reconciled ownership data comprising information on the ownership of the zone data, wherein the reconciliation of ownership data is based at least on escrow data, WHOIS data, or survey data; launching a provisioning DNS service, wherein the provisioning DNS service is configured to electronically accept zone updates from the zone owner via an electronic interface, and wherein the provisioning DNS service is a separate service from the managed DNS service; and transitioning from the managed DNS service to the provisioning DNS service, wherein the zone data and reconciled ownership data is extracted into the provisioning DNS service.
Method for controlling a clutch mounted between the output shaft of an engine and the input shaft of a gearbox of a motor vehicle by means: - of a clutch actuation pedal movable between a rest position and a depressed end position, - of a sensor associated with said pedal and able to deliver a signal for the position of the pedal; - of an actuator arranged to actuate the clutch between an engaged position and a disengaged position; and - of a control unit arranged, in a manual control mode, to control the actuator on the basis of the signal for the position of the pedal, and, in at least one assistance mode, to control the actuator automatically whilst the clutch actuation pedal remains in its rest position; said control method comprising the steps of: - analysing the driving conditions of the vehicle in order to detect characteristic driving conditions allowing the transition from the manual control mode to the assistance mode; - analysing the signal for the position of the clutch actuation pedal in order to detect whether the pedal is in the rest position; and - activating the assistance mode, wherein the actuator is automatically driven into the disengaged position of the clutch in response to the detection of characteristic driving conditions and the rest position of the pedal. - of a clutch actuation pedal movable between a rest position and a depressed end position, - of a sensor associated with said pedal and able to deliver a signal for the position of the pedal; - of an actuator arranged to actuate the clutch between an engaged position and a disengaged position; and - of a control unit arranged, in a manual control mode, to control the actuator on the basis of the signal for the position of the pedal, and, in at least one assistance mode, to control the actuator automatically whilst the clutch actuation pedal remains in its rest position; - analysing the driving conditions of the vehicle in order to detect characteristic driving conditions allowing the transition from the manual control mode to the assistance mode; - analysing the signal for the position of the clutch actuation pedal in order to detect whether the pedal is in the rest position; and - activating the assistance mode, wherein the actuator is automatically driven into the disengaged position of the clutch in response to the detection of characteristic driving conditions and the rest position of the pedal.
A gravity foundation for an offshore structure, the gravity foundation comprising: a lower portion for submersion beneath water, the lower portion including an inner compartment and a plurality of outer compartments arranged around the inner compartment; and characterized by: a ballast water distribution system for flooding the compartments of the lower portion with water during deployment of the foundation; wherein the ballast water distribution system comprises: a first fluid connection for introducing water into the inner compartment; and a plurality of second fluid connections each for passage of water from the inner compartment to an outer compartment; the second fluid connections each including: an outlet in an outer compartment, the outer compartment being at a first side of the inner compartment; and an inlet positioned within the inner compartment at a higher level than the outlet and at a second side of the inner compartment generally opposite to the location of the outer compartment. a lower portion for submersion beneath water, the lower portion including an inner compartment and a plurality of outer compartments arranged around the inner compartment; and characterized by: a ballast water distribution system for flooding the compartments of the lower portion with water during deployment of the foundation; wherein the ballast water distribution system comprises: a first fluid connection for introducing water into the inner compartment; and a plurality of second fluid connections each for passage of water from the inner compartment to an outer compartment; the second fluid connections each including: an outlet in an outer compartment, the outer compartment being at a first side of the inner compartment; and an inlet positioned within the inner compartment at a higher level than the outlet and at a second side of the inner compartment generally opposite to the location of the outer compartment. a ballast water distribution system for flooding the compartments of the lower portion with water during deployment of the foundation; wherein the ballast water distribution system comprises: a first fluid connection for introducing water into the inner compartment; and a plurality of second fluid connections each for passage of water from the inner compartment to an outer compartment; the second fluid connections each including: an outlet in an outer compartment, the outer compartment being at a first side of the inner compartment; and an inlet positioned within the inner compartment at a higher level than the outlet and at a second side of the inner compartment generally opposite to the location of the outer compartment.
Layered niobate of the formula [H a A b] + [Sr 2 Nb 3 O 10] -, where [Sr 2 Nb 3 O 10] - forms the main layers and [H a A b] + forms the interlayers, where H is a group consisting of H + and H 3 O + and A is an element of the group of K +, Cs + and Rb +, where 0.6 ≤ a ≤ 1 and 0 ≤ b ≤ 0.4, where a + b = 1, characterized in that the layered niobate has different spacings between the main layers.
A metal aprotic organosilanoxide compound of formula: {R 1 -Si(R 2)(R 3)-[O-Si(R 4)(R 5)] m -O} n -M 1 (←L) o (X 1) p, wherein M 1 is a metal atom Al having a formal positive oxidation state, δ +, of +3; subscript n is an integer from 1 to δ +; subscript o is an integer of 0, 1 or 2; each L independently is an aprotic Lewis base; subscript p = (δ + - n); each X 1 independently is a halide or an aprotic organoheteryl anion; subscript m is an integer from 3 to 100; each of R 1 to R 5 is independently is an aprotic (C 1 -C 20)hydrocarbyl group or aprotic (C 2 -C 20)heterohydrocarbyl group, wherein at least one of R 1 to R 5 independently is an aprotic (C 2 -C 20)alkenyl group or aprotic (C 2 -C 20)alkynyl group.
A thermostatic valve comprising a closed hollow body, a first opening and a second opening leading into the body and hydraulically connected by a through section and a shutter disposed in the through section and comprising a thermostatic actuator, a return means, a flap able to open the through section when actuated by the thermostatic actuator and to close the through section when returned by the return means, the thermostatic actuator being configured to move the flap away from a valve seat formed by the body, thus opening the flap, and the return means being configured to press the flap against said seat, thus closing the flap, the thermostatic valve further comprising a ring disposed in the through section and movable between a closed position in which the ring closes the through section except for a leakage, of small section in front of the through section and an open position in which the ring releases the through section, the ring being shaped and disposed so as to be in the closed position at the start of the opening of the flap and then to switch into the open position after a certain opening travel of the flap.
A coating composition for oral solid preparations, the coating composition comprising a polyvinyl alcohol-based polymer (a), a fatty acid ester of a polyol having 3 or more hydroxy groups (b), and talc (c), wherein the coating composition meets the following requirements to: the fatty acid ester of a polyol having 3 or more hydroxy groups (b) has a hydrophilic lipophilic balance value of 4.0 or more; the fatty acid ester of a polyol having 3 or more hydroxy groups (b) has 12 to 22 carbon atoms per fatty acid ester unit; the talc (c) is present at 50% by mass or less of the whole composition; and the proportion of the polyol fatty acid ester (b) in the whole composition is 5% by mass or more. the fatty acid ester of a polyol having 3 or more hydroxy groups (b) has a hydrophilic lipophilic balance value of 4.0 or more; the fatty acid ester of a polyol having 3 or more hydroxy groups (b) has 12 to 22 carbon atoms per fatty acid ester unit; the talc (c) is present at 50% by mass or less of the whole composition; and the proportion of the polyol fatty acid ester (b) in the whole composition is 5% by mass or more.
A control circuit for a generator configured to supply power to an ultrasonic transducer in an ultrasonic surgical instrument comprising an ultrasonic electromechanical system comprising the ultrasonic transducer coupled to an ultrasonic blade via an ultrasonic waveguide, wherein the control circuit is configured to: receive (132232; 132262) a complex impedance measurement data point indicative of a vessel type in contact with the ultrasonic blade coupled to the ultrasonic transducer; determine, based upon the data point, that the vessel type is either a vein (132234; 132264) or an artery; (132236; 132266) and deliver or apply power to the ultrasonic transducer based on the vessel type. receive (132232; 132262) a complex impedance measurement data point indicative of a vessel type in contact with the ultrasonic blade coupled to the ultrasonic transducer; determine, based upon the data point, that the vessel type is either a vein (132234; 132264) or an artery; (132236; 132266) and deliver or apply power to the ultrasonic transducer based on the vessel type.
A method, comprising: determining a context for a user; adjusting automatically an authentication configuration for the user based at least in part on the context, and performing an authentication of the user with the authentication configuration, characterized in that different matching accuracies of an authentication algorithm for the same authentication input data are associated with respective authentication configurations, and in that the method comprises performing the authentication by decreasing a matching accuracy of the authentication algorithm for the user under a safe context to thereby apply an inexact matching policy when comparing the recognized authentication input data to authentication reference data, and performing a re-authentication of the user under the same context by increasing a current matching accuracy of the authentication algorithm, in response to a failure of the authentication. determining a context for a user; adjusting automatically an authentication configuration for the user based at least in part on the context, and performing an authentication of the user with the authentication configuration, characterized in that different matching accuracies of an authentication algorithm for the same authentication input data are associated with respective authentication configurations, and in that the method comprises performing the authentication by decreasing a matching accuracy of the authentication algorithm for the user under a safe context to thereby apply an inexact matching policy when comparing the recognized authentication input data to authentication reference data, and performing a re-authentication of the user under the same context by increasing a current matching accuracy of the authentication algorithm, in response to a failure of the authentication.
A fiber processing device (101,102) comprising: a sieve (41, 61) configured to screen material containing fiber; an accumulator (48, 70) configured to accumulate the material discharged from the sieve; and a processor (102; 80, 90) configured to process the material accumulated on the accumulator; wherein the fiber processing device is configured to operate the sieve at a first speed during processing by the processor; the fiber processing device being further configured to, when the sieve starts from a stopped state, execute a startup operation in which the sieve operates at a lower speed than the first speed for a specific time after the sieve starts operating, wherein the startup operation includes a first operation of increasing the speed per unit time of the sieve for a period of time, and a second operation in which increase in the speed per unit time is less than in the first operation after the period of time. a sieve (41, 61) configured to screen material containing fiber; an accumulator (48, 70) configured to accumulate the material discharged from the sieve; and a processor (102; 80, 90) configured to process the material accumulated on the accumulator; wherein the fiber processing device is configured to operate the sieve at a first speed during processing by the processor; the fiber processing device being further configured to, when the sieve starts from a stopped state, execute a startup operation in which the sieve operates at a lower speed than the first speed for a specific time after the sieve starts operating, wherein the startup operation includes a first operation of increasing the speed per unit time of the sieve for a period of time, and a second operation in which increase in the speed per unit time is less than in the first operation after the period of time.
An electrode for spot welding, which has a double structure comprising: an electrode body made of Cu or a Cu alloy; and a core material made of W, Mo, a W-based alloy, or a Mo-based alloy embedded in an abutting surface, which is a surface of the electrode body abutted against a material to be welded, the W, Mo, the W-based alloy, or the Mo-based alloy forming the core material comprising a fibrous structure extended in an electrode axis direction, wherein the fibrous structure formed in W, Mo, the W-based alloy, or the Mo-based alloy by swaging is adjusted, by annealing, to have a horizontal cross-sectional average particle diameter of 50 μm or more and an aspect ratio of 1.5 or more. an electrode body made of Cu or a Cu alloy; and a core material made of W, Mo, a W-based alloy, or a Mo-based alloy embedded in an abutting surface, which is a surface of the electrode body abutted against a material to be welded, the W, Mo, the W-based alloy, or the Mo-based alloy forming the core material comprising a fibrous structure extended in an electrode axis direction, wherein the fibrous structure formed in W, Mo, the W-based alloy, or the Mo-based alloy by swaging is adjusted, by annealing, to have a horizontal cross-sectional average particle diameter of 50 μm or more and an aspect ratio of 1.5 or more.
A method operational on a device coupled to a multi-drop serial bus, comprising: obtaining, for each of a plurality of devices coupled to the multi-drop serial bus, a plurality of unique group-specific identifiers, where each unique group-specific identifier identifies one or more of the plurality of devices coupled to the multi-drop serial bus; mapping a unit-specific identifier for each of the plurality of devices with its corresponding plurality of unique group-specific identifiers; transmitting mappings of unit-specific identifiers to corresponding plurality of unique group-specific identifiers to the plurality of devices coupled to the multi-drop serial bus; and transmitting a datagram over the multi-drop serial bus, the datagram including a group-specific identifier for an intended recipient device but excluding an explicit sender device identifier. obtaining, for each of a plurality of devices coupled to the multi-drop serial bus, a plurality of unique group-specific identifiers, where each unique group-specific identifier identifies one or more of the plurality of devices coupled to the multi-drop serial bus; mapping a unit-specific identifier for each of the plurality of devices with its corresponding plurality of unique group-specific identifiers; transmitting mappings of unit-specific identifiers to corresponding plurality of unique group-specific identifiers to the plurality of devices coupled to the multi-drop serial bus; and transmitting a datagram over the multi-drop serial bus, the datagram including a group-specific identifier for an intended recipient device but excluding an explicit sender device identifier.