mhurhangee/patent-ind-claim-en huggingface dataset:
A power storage device comprising: a secondary battery , a casing having a sealed structure, a safety valve , wherein the casing includes an external container having the secondary battery accommodated therein and an upper lid disposed above the external container , the upper lid has an upper surface having a concave portion formed therein, the safety valve is disposed in the concave portion , characterized in that a drainage through hole is provided to pass through a side wall of the concave portion , the safety valve has convex shape extending along the side wall of the concave portion and is provided so that an upper end does not protrude from a main upper surface of the upper lid, the safety valve has an exhaust cylinder and a cap configured to close an external outlet of the exhaust cylinder, and the cap is disposed above an inlet of the drainage through hole . a secondary battery , a casing having a sealed structure, a safety valve , wherein the casing includes an external container having the secondary battery accommodated therein and an upper lid disposed above the external container , the upper lid has an upper surface having a concave portion formed therein, the safety valve is disposed in the concave portion , characterized in that a drainage through hole is provided to pass through a side wall of the concave portion , the safety valve has convex shape extending along the side wall of the concave portion and is provided so that an upper end does not protrude from a main upper surface of the upper lid, the safety valve has an exhaust cylinder and a cap configured to close an external outlet of the exhaust cylinder, and the cap is disposed above an inlet of the drainage through hole .
At an input device, a method of reducing noise in received signals, comprising: receiving, via one or more electrodes of the input device, a capacitive signal; for each of two or more reference sequences designed for a respective capacitive signal condition, correlating the capacitive signal with the reference sequence; identifying a particular one of the two or more reference sequences that produced a highest noise immunity when correlated with the capacitive signal; and correlating the identified reference sequence with a subsequent capacitive signal to thereby receive information in the subsequent capacitive signal regarding an input device condition. receiving, via one or more electrodes of the input device, a capacitive signal; for each of two or more reference sequences designed for a respective capacitive signal condition, correlating the capacitive signal with the reference sequence; identifying a particular one of the two or more reference sequences that produced a highest noise immunity when correlated with the capacitive signal; and correlating the identified reference sequence with a subsequent capacitive signal to thereby receive information in the subsequent capacitive signal regarding an input device condition.
Non-return valve for managing a high-pressure hydrogen flow in a fuel cell automotive system, comprising: - an outlet , a compartment , and an inlet , wherein the inlet and the outlet are configured to be in fluid communication through the compartment ; - a shutter , comprising a head and a stem , which is translatable in the compartment between a closing position, in which it closes the connection between the inlet and the outlet , and an opening position, in which it opens the connection between the inlet and the outlet ; - a spring which is inserted onto the stem of the shutter and which is precompressed to permanently bias the shutter towards the closing position; - an elastically deformable damper ring which is arranged in the compartment , coaxially to the stem , and which is permanently biased by the spring ; wherein - in said opening position, the damper ring , under the bias of said spring , grips the stem of the shutter with an opening damping action; - in said closing position, the damper ring disengages the stem with a closing damping action which is less than the opening damping action; characterized in that - the stem comprises a first functional section , having a first diameter (D1), and a second functional section , having a second diameter (D2), where D1 > D2, and in the opening position, the damper ring grips said first functional section . - an outlet , a compartment , and an inlet , wherein the inlet and the outlet are configured to be in fluid communication through the compartment ; - a shutter , comprising a head and a stem , which is translatable in the compartment between a closing position, in which it closes the connection between the inlet and the outlet , and an opening position, in which it opens the connection between the inlet and the outlet ; - a spring which is inserted onto the stem of the shutter and which is precompressed to permanently bias the shutter towards the closing position; - an elastically deformable damper ring which is arranged in the compartment , coaxially to the stem , and which is permanently biased by the spring ; wherein - in said opening position, the damper ring , under the bias of said spring , grips the stem of the shutter with an opening damping action; - in said closing position, the damper ring disengages the stem with a closing damping action which is less than the opening damping action; characterized in that - the stem comprises a first functional section , having a first diameter (D1), and a second functional section , having a second diameter (D2), where D1 > D2, and in the opening position, the damper ring grips said first functional section .
Screw (21;22) adapted for use in a twin-screw assembly with intermeshing screws of an elastomer mixture extruder, comprising a threaded part with a thread which defines at least three different sectors of the screw along a longitudinal direction (X-X) of axial extension from upstream to downstream, wherein the at least three sectors comprise: - an intake sector , which is adapted to capture the mixture and to push it downstream along the longitudinal direction (X-X) and which has a cross-section (S) of the throughflow channel comprised between adjacent flanks of the thread which is constant over at least two pitches or a rotation through 720 degrees of the thread; - a transition sector , downstream of the intake sector, which has a cross-section (S) of the throughflow channel which is variable and smaller than the cross-section of the throughflow channel of the intake sector and is designed to cause an increase in the thrusting pressure acting on the mixture in transit in the longitudinal direction (X-X); - a high-pressure sector , downstream of the transition sector, which has a cross-section of the throughflow channel which is minimal, constant over at least one pitch and designed to cause the compression of the mixture so as to obtain a maximum pressure of the mixture; characterized in that the thread of said threaded part is a single-start thread and in that the geometry of the screw in the high-pressure sector has a crest width W = (0.3-0.4)D, constant over one or two pitches, where D is the external diameter of the screw. - an intake sector , which is adapted to capture the mixture and to push it downstream along the longitudinal direction (X-X) and which has a cross-section (S) of the throughflow channel comprised between adjacent flanks of the thread which is constant over at least two pitches or a rotation through 720 degrees of the thread; - a transition sector , downstream of the intake sector, which has a cross-section (S) of the throughflow channel which is variable and smaller than the cross-section of the throughflow channel of the intake sector and is designed to cause an increase in the thrusting pressure acting on the mixture in transit in the longitudinal direction (X-X); - a high-pressure sector , downstream of the transition sector, which has a cross-section of the throughflow channel which is minimal, constant over at least one pitch and designed to cause the compression of the mixture so as to obtain a maximum pressure of the mixture;
A method comprising: using first information and second information to determine a code book size, said first information comprising information for at least one first subframe of at least one cell for which feedback information is to be provided and second information comprising information for at least one second subframe of at least one cell for which feedback information is to be provided, and using said code book size for providing feedback information; wherein said at least one first subframe is no later than subframe n and said at least one second subframe is after said subframe n, and the method comprises causing said feedback information to be transmitted on a physical uplink shared channel scheduled in subframe n or causing feedback information to be transmitted in a subframe which is k subframes later than subframe n; wherein said feedback information comprises feedback information for said at least one first subframe and said at least one second subframe, if said at least one second subframe is scheduled; wherein said first and second information comprises information from a plurality of different cells; wherein if said at least one second subframe is not scheduled, then a discontinuous transmission is provided for said at least one subframe as said feedback information; and wherein said feedback information comprises hybrid automatic repeat request information. using first information and second information to determine a code book size, said first information comprising information for at least one first subframe of at least one cell for which feedback information is to be provided and second information comprising information for at least one second subframe of at least one cell for which feedback information is to be provided, and using said code book size for providing feedback information; wherein said at least one first subframe is no later than subframe n and said at least one second subframe is after said subframe n, and the method comprises causing said feedback information to be transmitted on a physical uplink shared channel scheduled in subframe n or causing feedback information to be transmitted in a subframe which is k subframes later than subframe n; wherein said feedback information comprises feedback information for said at least one first subframe and said at least one second subframe, if said at least one second subframe is scheduled; wherein said first and second information comprises information from a plurality of different cells; wherein if said at least one second subframe is not scheduled, then a discontinuous transmission is provided for said at least one subframe as said feedback information; and wherein said feedback information comprises hybrid automatic repeat request information.
A method for producing a tire, the method comprising: a step of subjecting a tire to a gasification treatment to generate a gas comprising a C1 gas from the tire, a step of synthesizing isoprene by growing a microbial catalyst prepared by introducing a nucleic acid capable of coding isoprene synthase into a Clostridium microorganism in the presence of the resulting gas containing the C1 gas and hydrogen gas to obtain a recycled tire material comprising at least one species selected from the group consisting of isoprene and polymers thereof, wherein the C1 gas includes CO x gas and x in the CO x gas is 1 ≤ x ≤ 2, and a step of obtaining a tire using the recycled tire material, Wherein the method is a biological method using a microbial catalyst, and wherein isoprene is synthesized from a CO x compound.
An apparatus comprising: a metrology system configured to generate first metrology data for a first component and second metrology data for a second component; a feature locator configured to process the first metrology data and the second metrology data to identify first locations of first features on the first component and second locations of second features on the second component; and a robot manager configured to compute a transformation based on the first locations identified and the second locations identified for use in modifying a nominal movement plan of a robotic system for positioning the second component relative to the first component; wherein the nominal movement plan of the robotic system comprises a number of movements of the robotic system for positioning the second component relative to the first component when the first features on the first component and the second features on the second component are in expected or desired locations; the robot manager is configured to modify the nominal movement plan using the transformation to form a modified movement plan ; the robotic system is configured to move the second component according to the modified movement plan to position the second component relative to the first component within selected tolerances; and wherein the robotic system is configured to perform component-to-component indexing to refine a placement of the second component relative to the first component to achieve a fitup between the first component and the second component that is within selected tolerances. a metrology system configured to generate first metrology data for a first component and second metrology data for a second component; a feature locator configured to process the first metrology data and the second metrology data to identify first locations of first features on the first component and second locations of second features on the second component; and a robot manager configured to compute a transformation based on the first locations identified and the second locations identified for use in modifying a nominal movement plan of a robotic system for positioning the second component relative to the first component; wherein the nominal movement plan of the robotic system comprises a number of movements of the robotic system for positioning the second component relative to the first component when the first features on the first component and the second features on the second component are in expected or desired locations; the robot manager is configured to modify the nominal movement plan using the transformation to form a modified movement plan ; the robotic system is configured to move the second component according to the modified movement plan to position the second component relative to the first component within selected tolerances; and wherein the robotic system is configured to perform component-to-component indexing to refine a placement of the second component relative to the first component to achieve a fitup between the first component and the second component that is within selected tolerances.
A method performed by a user equipment, UE, in a wireless communication system, the method comprising: measuring reference signal received power, RSRP, values corresponding to each synchronization signal block, SSB, based on a plurality of SSBs transmitted by a base station; identifying a coverage enhancement, CE, level of the UE based on the measured RSRP values and at least one RSRP threshold; and transmitting, to the base station, one or more random access preambles based on the identified CE level, wherein in case that a plurality of RSRP thresholds is used, the CE level of the UE is identified based on the plurality of RSRP thresholds and n number of largest RSRP values among the measured RSRP values, and wherein the n number of the largest RSRP values is configured by a system information block, SIB. measuring reference signal received power, RSRP, values corresponding to each synchronization signal block, SSB, based on a plurality of SSBs transmitted by a base station; identifying a coverage enhancement, CE, level of the UE based on the measured RSRP values and at least one RSRP threshold; and transmitting, to the base station, one or more random access preambles based on the identified CE level, wherein in case that a plurality of RSRP thresholds is used, the CE level of the UE is identified based on the plurality of RSRP thresholds and n number of largest RSRP values among the measured RSRP values, and wherein the n number of the largest RSRP values is configured by a system information block, SIB.
System for verifying the proper functioning of industrial screwdrivers comprising a test bench, said bench comprising • a plurality of hydraulic brakes (F), with which a screwdriver is associated, suitably controlled by a hydraulic circuit comprising at least one pump (P), which withdraws the fluid from a reservoir (T) and provides it to a pressure regulating valve (VP), which in turn provides it to the brakes, • each brake being provided with measuring transducers (TR), connected to an electronic driver board (SP), which also controls such regulating valve (VP), • a computer (U) that communicates with such board and that comprises a suitable driving program stored thereon, • such driving program, once an operator has selected the brake to be used for testing the screwdriver, being able to progressively increase the braking capacity of the brakes by adjusting the pressure, until reaching a complete stop of the electronic screwdriver, • a hydraulic distributor (D) is present between such brakes (F) and the regulating valve (VP), such hydraulic distributor comprising solenoid valves able to select, operate and control the hydraulic pressure of each brake to which it is selectively connected, characterized in that such hydraulic distributor (D) comprises a number of solenoid valves (El...En) corresponding to the number of hydraulic braking devices present (Fl...Fn), the electronic board (SP) is configured to enable the solenoid valve associated with the brake selected for the test, such that the hydraulic power flows from the manifold to the only braking device involved in the test, wherein such solenoid valves are normally closed three-way solenoid valves. • a plurality of hydraulic brakes (F), with which a screwdriver is associated, suitably controlled by a hydraulic circuit comprising at least one pump (P), which withdraws the fluid from a reservoir (T) and provides it to a pressure regulating valve (VP), which in turn provides it to the brakes, • each brake being provided with measuring transducers (TR), connected to an electronic driver board (SP), which also controls such regulating valve (VP), • a computer (U) that communicates with such board and that comprises a suitable driving program stored thereon, • such driving program, once an operator has selected the brake to be used for testing the screwdriver, being able to progressively increase the braking capacity of the brakes by adjusting the pressure, until reaching a complete stop of the electronic screwdriver, • a hydraulic distributor (D) is present between such brakes (F) and the regulating valve (VP), such hydraulic distributor comprising solenoid valves able to select, operate and control the hydraulic pressure of each brake to which it is selectively connected,
Transport device for transporting and storage of articles and groups of articles with a support plate , wherein rollers or stacker receptacles are arranged on the underside of the support plate and wherein passages and/or threaded bores in a plurality are arranged in distribution over the support plate , wherein cheeks, which project downwardly and which in turn can similarly be furnished with passages and/or threaded bores able to be similarly arranged in a predetermined grid, can be provided in the region of the side edges of the support plate , wherein holding or securing means for the articles are detachably secured in the passages and/or threaded bores, wherein the holding or securing means are of angular construction, characterised in that the stacker receptacles are present and are formed to be insertable in the passage of the support plate in modular manner and that buffers for contact with the articles are mounted on the two limbs of the angular retaining or securing means.
Heat pump system comprising: a first heat pump arrangement comprising a compressor having a compressor output ; a second heat pump arrangement comprising an input portion and an output portion and including an evaporator and a liquefier ; and a coupler for thermally coupling the first heat pump arrangement and the second heat pump arrangement , the coupler comprising: a first heat exchanger having a primary side and a secondary side, the secondary side of the first heat exchanger being coupled to the evaporator of the second heat pump arrangement , and the primary side of the first heat exchanger being coupled to the first heat pump arrangement and a second heat exchanger having a primary side and a secondary side, the secondary side of the second heat exchanger being coupled to the liquefier of the second heat pump arrangement , and the primary side of the second heat exchanger being coupled to the first heat pump arrangement , wherein a working liquid within the first heat pump arrangement comprises CO2, and a working liquid within the second heat pump arrangement comprises water. a first heat pump arrangement comprising a compressor having a compressor output ; a second heat pump arrangement comprising an input portion and an output portion and including an evaporator and a liquefier ; and a coupler for thermally coupling the first heat pump arrangement and the second heat pump arrangement , the coupler comprising: a first heat exchanger having a primary side and a secondary side, the secondary side of the first heat exchanger being coupled to the evaporator of the second heat pump arrangement , and the primary side of the first heat exchanger being coupled to the first heat pump arrangement and a second heat exchanger having a primary side and a secondary side, the secondary side of the second heat exchanger being coupled to the liquefier of the second heat pump arrangement , and the primary side of the second heat exchanger being coupled to the first heat pump arrangement , a first heat exchanger having a primary side and a secondary side, the secondary side of the first heat exchanger being coupled to the evaporator of the second heat pump arrangement , and the primary side of the first heat exchanger being coupled to the first heat pump arrangement and a second heat exchanger having a primary side and a secondary side, the secondary side of the second heat exchanger being coupled to the liquefier of the second heat pump arrangement , and the primary side of the second heat exchanger being coupled to the first heat pump arrangement , wherein a working liquid within the first heat pump arrangement comprises CO2, and a working liquid within the second heat pump arrangement comprises water.