mhurhangee/patent-ind-claim-en huggingface dataset:
A battery cell abnormal deterioration diagnosis apparatus comprising: an SOC calculation unit configured to calculate a state of charge, SOC, of a plurality of battery cells; a change amount calculation unit configured to calculate, for each of the plurality of battery cells, an SOC change amount that is a change amount of the calculated SOC during a preset period and an SOC change amount average that is an average of the SOC change amounts of all the plurality of battery cells; and an abnormal deterioration diagnosis unit configured to diagnose abnormal deterioration of each of the plurality of battery cells using the SOC change amount and the SOC change amount average. an SOC calculation unit configured to calculate a state of charge, SOC, of a plurality of battery cells; a change amount calculation unit configured to calculate, for each of the plurality of battery cells, an SOC change amount that is a change amount of the calculated SOC during a preset period and an SOC change amount average that is an average of the SOC change amounts of all the plurality of battery cells; and an abnormal deterioration diagnosis unit configured to diagnose abnormal deterioration of each of the plurality of battery cells using the SOC change amount and the SOC change amount average.
A method of preparing an infrared reflective copper oxide pigment, comprising: a. providing starting copper oxide particles that are at least 99% pure CuO and have the following characteristics: i. D 10 particle size of 0.25-2 microns, ii. D 50 particle size of 0.5-6 microns, iii. D 90 particle size of 1-30 microns, iv. span ΔD of 1-12, and v. SSA of 5-50 m 2 /g, b. heating the copper oxide particles at a temperature of 900 °F to 1600 °F, for a time of 1-1000 minutes, and c. milling the copper oxide particles sufficiently to produce finished copper oxide particles having the following characteristics: i. D 10 particle size of 0.3-2 microns, ii. D 50 particle size of 0.6-3 microns, iii. D 90 particle size of 0.9-5 microns, iv. span ΔD of 0.7-3.0, and v. SSA of 2-10 m 2 /g. a. providing starting copper oxide particles that are at least 99% pure CuO and have the following characteristics: i. D 10 particle size of 0.25-2 microns, ii. D 50 particle size of 0.5-6 microns, iii. D 90 particle size of 1-30 microns, iv. span ΔD of 1-12, and v. SSA of 5-50 m 2 /g, i. D 10 particle size of 0.25-2 microns, ii. D 50 particle size of 0.5-6 microns, iii. D 90 particle size of 1-30 microns, iv. span ΔD of 1-12, and v. SSA of 5-50 m 2 /g, b. heating the copper oxide particles at a temperature of 900 °F to 1600 °F, for a time of 1-1000 minutes, and c. milling the copper oxide particles sufficiently to produce finished copper oxide particles having the following characteristics: i. D 10 particle size of 0.3-2 microns, ii. D 50 particle size of 0.6-3 microns, iii. D 90 particle size of 0.9-5 microns, iv. span ΔD of 0.7-3.0, and v. SSA of 2-10 m 2 /g. i. D 10 particle size of 0.3-2 microns, ii. D 50 particle size of 0.6-3 microns, iii. D 90 particle size of 0.9-5 microns, iv. span ΔD of 0.7-3.0, and v. SSA of 2-10 m 2 /g.
A method for producing a polyaniline complex composition comprising: removing a solvent from an organic solution that comprises (a) polyaniline doped with a compound represented by the following formula (I) and (b) a phenolic compound, thereby to obtain a composition; and immersing the composition in (c) a solution that comprises at least one of sulfonic acid and sulfonate, followed by drying: M(XARn)m (I) wherein M is a hydrogen atom, an organic free radical or an inorganic free radical, and m is a value of [valence of M/valence of X]; X is an anion group; A is a hydrocarbon group that may comprise a substituent; R is a group represented by -H, -R 1 , -OR 1 , -COR 1 , -COOR 1 , -(C=O)-(COR 1 ) or -(C=O)-(COOR 1 ), and at least one of R is a group represented by -COOR 1 or -(C=O)-(COOR 1 ); wherein R 1 is a hydrocarbon group that may comprise a substituent, a silyl group, an alkylsilyl group, a group represented by -(R 2 O)x-R 3 or a group represented by -(OSiR 3 2 )x-OR 3 (R 2 is independently an alkylene group, R 3 is independently a hydrocarbon group, and x is an integer of 1 or more); and n is an integer of 1 or more. removing a solvent from an organic solution that comprises (a) polyaniline doped with a compound represented by the following formula (I) and (b) a phenolic compound, thereby to obtain a composition; and immersing the composition in (c) a solution that comprises at least one of sulfonic acid and sulfonate, followed by drying: M(XARn)m (I) wherein M is a hydrogen atom, an organic free radical or an inorganic free radical, and m is a value of [valence of M/valence of X]; X is an anion group; A is a hydrocarbon group that may comprise a substituent; R is a group represented by -H, -R 1 , -OR 1 , -COR 1 , -COOR 1 , -(C=O)-(COR 1 ) or -(C=O)-(COOR 1 ), and at least one of R is a group represented by -COOR 1 or -(C=O)-(COOR 1 ); wherein R 1 is a hydrocarbon group that may comprise a substituent, a silyl group, an alkylsilyl group, a group represented by -(R 2 O)x-R 3 or a group represented by -(OSiR 3 2 )x-OR 3 (R 2 is independently an alkylene group, R 3 is independently a hydrocarbon group, and x is an integer of 1 or more); and n is an integer of 1 or more. wherein M is a hydrogen atom, an organic free radical or an inorganic free radical, and m is a value of [valence of M/valence of X]; X is an anion group; A is a hydrocarbon group that may comprise a substituent; R is a group represented by -H, -R 1 , -OR 1 , -COR 1 , -COOR 1 , -(C=O)-(COR 1 ) or -(C=O)-(COOR 1 ), and at least one of R is a group represented by -COOR 1 or -(C=O)-(COOR 1 ); wherein R 1 is a hydrocarbon group that may comprise a substituent, a silyl group, an alkylsilyl group, a group represented by -(R 2 O)x-R 3 or a group represented by -(OSiR 3 2 )x-OR 3 (R 2 is independently an alkylene group, R 3 is independently a hydrocarbon group, and x is an integer of 1 or more); and n is an integer of 1 or more.
A laser processing method for substrate cleaving or dicing, comprising at steps of: - providing a pulsed laser beam , - focusing the laser beam by a focusing element , - irradiating a workpiece with the focused pulsed laser beam , forming a sequence of damage zones to produce a cleaving plane, wherein the workpiece material is transparent to the laser radiation and features a band gap energy exceeding the photon energy of the laser, characterized in that the step of focusing the laser beam involves use of a single multi-segment lens , wherein at least one surface of the multi-segment lens comprises two or more axially-symmetric and concentrically aligned segments having different radius of curvature and each surface segment has a different focal length, wherein said different focal lengths of the segments are used to generate multiple spatially separated focal points , aligning into an interference "spike-shaped" focal intensity distribution . - providing a pulsed laser beam , - focusing the laser beam by a focusing element , - irradiating a workpiece with the focused pulsed laser beam , forming a sequence of damage zones to produce a cleaving plane, wherein the workpiece material is transparent to the laser radiation and features a band gap energy exceeding the photon energy of the laser, characterized in that the step of focusing the laser beam involves use of a single multi-segment lens , wherein at least one surface of the multi-segment lens comprises two or more axially-symmetric and concentrically aligned segments having different radius of curvature and each surface segment has a different focal length, wherein said different focal lengths of the segments are used to generate multiple spatially separated focal points , aligning into an interference "spike-shaped" focal intensity distribution . wherein the workpiece material is transparent to the laser radiation and features a band gap energy exceeding the photon energy of the laser, characterized in that the step of focusing the laser beam involves use of a single multi-segment lens , wherein at least one surface of the multi-segment lens comprises two or more axially-symmetric and concentrically aligned segments having different radius of curvature and each surface segment has a different focal length, wherein said different focal lengths of the segments are used to generate multiple spatially separated focal points , aligning into an interference "spike-shaped" focal intensity distribution .
Assembly including at least one container (C) and a cart (CH) for manipulating said at least one container (C) with a view to sealed connection thereof to an isolator (IS) by sealed connection means, said isolator (IS) including walls , a bottom base and a support structure so that the bottom base is at a distance from the floor, said sealed connection means including a first part on the container and a second part in the bottom base of the isolator (IS), said container including a receptacle with a longitudinal axis (Z2) provided at a longitudinal end with an opening bordered by a flange and sealingly closed by a door , said flange having an axis coincident with the longitudinal axis (Z2) of the container, the flange and the door forming the first part of the sealed connection means, said cart including a support plate configured to support the container (C) so that the longitudinal axis (Z2) of the container and the axis of the flange are oriented along a vertical direction, means for moving the cart with respect to the floor, means for raising the container in the vertical direction to bring the container against the isolator, first means for locating the cart in position with respect to the isolator, configured to cooperate with second position-location means carried by the support structure of the isolator to fix the position of the cart in the horizontal plane, so that the first part of the sealed connection means carried by the container and the second part of the seal connection means carried by the bottom base of the isolator are aligned along the vertical direction, the cart including a housing configured to house a longitudinal end of the container opposite to the one including the flange, said housing being able to rotate with respect to the support plate and said housing including angular orientation means, and characterized in that the angular orientation means are configured to fix the angular orientation of the container about the longitudinal direction of the container with respect to the cart (CH) so that the position of the container on the cart is not random.
A transmission comprising: at least one stationary member ; an input member ; a plurality of planetary gearsets operatively coupled to the input member , each planetary gearset of the plurality of planetary gearsets including a sun gear , a plurality of planet gears operatively coupled to the sun gear , a planet carrier operatively coupled to the plurality of planet gears , and a ring gear operatively coupled to the plurality of planet gears , the plurality of planetary gearsets including a first planetary gearset , a second planetary gearset , a third planetary gearset , and a fourth planetary gearset ; a plurality of selective couplers operatively coupled to the plurality of planetary gearsets , each of the plurality of selective couplers having an engaged configuration and a disengaged configuration, the plurality of selective couplers including a first number of clutches and a second number of brakes ; and an output member operatively coupled to the input member through the plurality of planetary gearsets , wherein the input member is fixedly coupled to the ring gear of the first planetary gearset , the output member is fixedly coupled to the planet carrier of the fourth planetary gearset ; characterized in that the input member is fixedly coupled to the ring gear of the second planetary gearset . at least one stationary member ; an input member ; a plurality of planetary gearsets operatively coupled to the input member , each planetary gearset of the plurality of planetary gearsets including a sun gear , a plurality of planet gears operatively coupled to the sun gear , a planet carrier operatively coupled to the plurality of planet gears , and a ring gear operatively coupled to the plurality of planet gears , the plurality of planetary gearsets including a first planetary gearset , a second planetary gearset , a third planetary gearset , and a fourth planetary gearset ; a plurality of selective couplers operatively coupled to the plurality of planetary gearsets , each of the plurality of selective couplers having an engaged configuration and a disengaged configuration, the plurality of selective couplers including a first number of clutches and a second number of brakes ; and an output member operatively coupled to the input member through the plurality of planetary gearsets , wherein the input member is fixedly coupled to the ring gear of the first planetary gearset , the output member is fixedly coupled to the planet carrier of the fourth planetary gearset ;
An anchoring fitting for anchoring in a workpiece (W2), wherein the anchoring fitting comprises a tie rod to be arranged in a connecting recess (VA) of the workpiece (W2) and a buttress body to be arranged in a buttress recess (WA) of the workpiece (W2) communicating with the connecting recess (VA), wherein the buttress body comprises an insertion receptacle for the insertion of an insertion section of the tie rod along an insertion axis (S) and a support surface arrangement for support on the buttress recess (WA) of the workpiece (W2), wherein at least one support surface of the support surface arrangement extends, in particular approximately perpendicularly, transversely to a longitudinal axis (L) of the tie rod inserted into the insertion receptacle , so that the tie rod is supported with respect to its longitudinal axis (L) on the buttress recess (WA), wherein the anchoring fitting comprises a clamping body for clamping the insertion section of the tie rod in the insertion receptacle , and wherein at least one support body of the anchoring fitting has a flat shape having opposing flat sides and narrow sides, which are rounded in particular, extending between the flat sides for formfitting support at least in sections in the connecting recess (VA) or the buttress recess (WA) of the workpiece (W2), wherein the insertion receptacle , transversely to the insertion axis (S), has an alignment transverse width (Q), which is suitable for aligning the tie rod with respect to the buttress body , and which is greater than a movement play (BS) necessary for the insertion of the tie rod into the insertion receptacle , characterized in that the at least one support body comprises a buttress body receptacle for the buttress body , in which the buttress body engages in the assembled state of the anchoring fitting.
Hot runner device for an injection molding machine having a control and regulating device of the hot runner device , wherein the hot runner device has at least one hot runner system , and at least one sensor, actuator and/or initiator which can be connected to a higher-level control and regulating device via one or more signal and/or data paths, in particular lines, wherein process data and/or process signals are transmittable via the one or more signal and/or data lines, wherein the hot runner device further comprises a data acquisition and backup device which is designed at least for acquiring and storing part or all of the process data and/or signals acquired on the hot runner system during operation of the injection molding machine and which is a functionally integral component of the hot runner device , characterized in that the data acquisition and backup device has at least one measured value acquisition device connected to the at least one sensor, actuator and/or initiator and at least one memory and analysis device connected to the measured value acquisition device , wherein the memory and analysis device has its own computer unit which has a microprocessor unit and a data memory and wherein the data acquisition and data backup device of the hot runner device is designed, independently of the control and regulating device of the hot runner device , to acquire or record, store and/or analyze process data and/or process signals directly from the hot runner system , wherein the control and regulating device of the hot runner device can be connected to a further, central, higher-level control and regulating device of the injection molding machine.
A cartilage cutting device for a bone-in meat (Mb), comprising: a cutting blade disposed on a conveying path for a bone-in meat; and an elastic support portion for elastically supporting the cutting blade so that the cutting blade can recede by a reaction force applied to the cutting blade when cutting the bone-in meat, characterized in that the elastic support portion is configured such that an elastic supporting force of the elastic support portion is switchable between a first elastic supporting force and a second elastic supporting force, the first elastic supporting force enabling cutting a cartilage (c) adhering to a bone part of the bone-in meat by the cutting blade, the second elastic supporting force being smaller than the first elastic supporting force and not enabling cutting the cartilage by the cutting blade. a cutting blade disposed on a conveying path for a bone-in meat; and an elastic support portion for elastically supporting the cutting blade so that the cutting blade can recede by a reaction force applied to the cutting blade when cutting the bone-in meat, characterized in that the elastic support portion is configured such that an elastic supporting force of the elastic support portion is switchable between a first elastic supporting force and a second elastic supporting force, the first elastic supporting force enabling cutting a cartilage (c) adhering to a bone part of the bone-in meat by the cutting blade, the second elastic supporting force being smaller than the first elastic supporting force and not enabling cutting the cartilage by the cutting blade.
A fastening device for the military sector for fastening to a surface , comprising: a fastening element which comprises a receiving portion for a fastening means (BM), a first adhesive surface which is provided on the fastening element and comprises a first adhesive , and a second adhesive surface which is separated from the first adhesive surface and provided on the fastening element , which second adhesive surface comprises a second adhesive , wherein the first adhesive and the second adhesive are chemically different from each other, wherein the first adhesive has a greater stretchability than the second adhesive , characterized in that the less stretchable second adhesive after both the first adhesive and the second adhesive have completely set or cured is operable to transfer quasi-static and dynamic loads, wherein the first adhesive is operable to absorb a highly dynamic load, and wherein the second adhesive fails during the highly dynamic load, so that after the highly dynamic load, the fixation of the fastening device is only ensured by means of the first adhesive . a fastening element which comprises a receiving portion for a fastening means (BM), a first adhesive surface which is provided on the fastening element and comprises a first adhesive , and a second adhesive surface which is separated from the first adhesive surface and provided on the fastening element , which second adhesive surface comprises a second adhesive , wherein the first adhesive and the second adhesive are chemically different from each other, wherein the first adhesive has a greater stretchability than the second adhesive , characterized in that the less stretchable second adhesive after both the first adhesive and the second adhesive have completely set or cured is operable to transfer quasi-static and dynamic loads, wherein the first adhesive is operable to absorb a highly dynamic load, and wherein the second adhesive fails during the highly dynamic load, so that after the highly dynamic load, the fixation of the fastening device is only ensured by means of the first adhesive .
A method for obtaining a phase detection signal in a clock recovery circuit, comprising: Receiving, by a phase detector, sampling sequences sent by an analog to digital converter, ADC, wherein the sampling sequences are obtained by the ADC by sampling , based on an actual sampling rate, an electrical signal received by the ADC, and the electrical signal carries a pre-configured training sequence; calculating , by the phase detector, a correlation between the sampling sequences and a comparison sequence, to determine a first location and a second location, wherein the first location and the second location are locations of a starting point of the training sequence in the sampling sequences, wherein there is a difference of M1 training sequence periods, wherein M1 is a positive integer, between the first location and the second location in the sampling sequences, and the comparison sequence is generated by the phase detector based on the training sequence and a target sampling rate of the ADC; and obtaining , by the phase detector, a phase detection signal based on a difference parameter of the first location and the second location. Receiving, by a phase detector, sampling sequences sent by an analog to digital converter, ADC, wherein the sampling sequences are obtained by the ADC by sampling , based on an actual sampling rate, an electrical signal received by the ADC, and the electrical signal carries a pre-configured training sequence; calculating , by the phase detector, a correlation between the sampling sequences and a comparison sequence, to determine a first location and a second location, wherein the first location and the second location are locations of a starting point of the training sequence in the sampling sequences, wherein there is a difference of M1 training sequence periods, wherein M1 is a positive integer, between the first location and the second location in the sampling sequences, and the comparison sequence is generated by the phase detector based on the training sequence and a target sampling rate of the ADC; and obtaining , by the phase detector, a phase detection signal based on a difference parameter of the first location and the second location.
A method of wireless communication performed by a user equipment, UE, comprising: receiving , from a network entity, a positioning reference signal, PRS, configuration indicating a pattern of PRS resources transmitted by at least one network node; and transmitting a proposed measurement gap pattern to a serving network node, the proposed measurement gap pattern being transmitted in a medium access control control element, MAC-CE, the proposed measurement gap pattern enabling the UE to measure at least a subset of PRS resources transmitted by each of the at least one network node, the proposed measurement gap pattern determined based on the pattern of PRS resources. receiving , from a network entity, a positioning reference signal, PRS, configuration indicating a pattern of PRS resources transmitted by at least one network node; and transmitting a proposed measurement gap pattern to a serving network node, the proposed measurement gap pattern being transmitted in a medium access control control element, MAC-CE, the proposed measurement gap pattern enabling the UE to measure at least a subset of PRS resources transmitted by each of the at least one network node, the proposed measurement gap pattern determined based on the pattern of PRS resources.