mhurhangee/ep-ind-claims huggingface dataset:
An energy storage device comprising: an electrode assembly having a tab portion (410, 420); a container body accommodating the electrode assembly therein; a lid structural body having a lid plate which is arranged to close the container body; and an insulating member arranged around a periphery of the electrode assembly in the container body, wherein the insulating member has a locking portion locked to a portion of the lid structural body, wherein the locking portion is locked by being hooked to the portion of the lid structural body, being hooked on a side opposite from the container body, and the locking portion has a contact surface, which is arranged to be brought into contact with the portion of the lid structural body, and an inclined surface, which is disposed away from the container body than the contact surface and makes an acute angle with the contact surface, and wherein the insulating member is a side spacer disposed between the container body and the electrode assembly. an electrode assembly having a tab portion (410, 420); a container body accommodating the electrode assembly therein; a lid structural body having a lid plate which is arranged to close the container body; and an insulating member arranged around a periphery of the electrode assembly in the container body, wherein the insulating member has a locking portion locked to a portion of the lid structural body, wherein the locking portion is locked by being hooked to the portion of the lid structural body, being hooked on a side opposite from the container body, and the locking portion has a contact surface, which is arranged to be brought into contact with the portion of the lid structural body, and an inclined surface, which is disposed away from the container body than the contact surface and makes an acute angle with the contact surface, and wherein the insulating member is a side spacer disposed between the container body and the electrode assembly.
A container blow molded from a multilayer structure which comprises: an inner product facing layer which comprises an ethylene-based polymer having a density equal to or less than 0.940 g/cc, measured according to ASTM D792, a crystallinity of equal to or less than 62% measured with a method as described herein, and Mz/Mn ratio equal to or less than 100 measured with a method as described herein wherein the inner product facing layer has a small scale root mean square roughness of equal to or less than 40 nm, measured with a method as described herein. an inner product facing layer which comprises an ethylene-based polymer having a density equal to or less than 0.940 g/cc, measured according to ASTM D792, a crystallinity of equal to or less than 62% measured with a method as described herein, and Mz/Mn ratio equal to or less than 100 measured with a method as described herein wherein the inner product facing layer has a small scale root mean square roughness of equal to or less than 40 nm, measured with a method as described herein.
A liquid vaccine formulation for use in a method of treatment by oral administration comprising: i. a rotavirus antigen, said antigen being antigen 116E, being present at a concentration range between 10 5.0 to 10 6.0 ffu/dose: ii. a combination buffer system selected from the following (a)-(c) (a) a Carbonate-Bicarbonate Buffer system; (b) a Magnesium Hydroxide Carbonate Buffer system; (c) a mixed buffer system comprising ammonium acetate; ammonium bicarbonate and di-ammonium ortho-phosphate; iii. a combination of sugars, wherein the combination of sugars comprises of sucrose, lactose and trehalose, or wherein the combination of sugars is sucrose and trehalose; iv. recombinant Human Serum Albumin; v. a partially hydrolysed protein lactalbumin hydrolysate, wherein the pH of the formulation is between 7 to 8.5, wherein the vaccine formulation is stable for at least 2 years at 2 to 8 °C and 6 months at 25 °C. i. a rotavirus antigen, said antigen being antigen 116E, being present at a concentration range between 10 5.0 to 10 6.0 ffu/dose: ii. a combination buffer system selected from the following (a)-(c) (a) a Carbonate-Bicarbonate Buffer system; (b) a Magnesium Hydroxide Carbonate Buffer system; (c) a mixed buffer system comprising ammonium acetate; ammonium bicarbonate and di-ammonium ortho-phosphate; (a) a Carbonate-Bicarbonate Buffer system; (b) a Magnesium Hydroxide Carbonate Buffer system; (c) a mixed buffer system comprising ammonium acetate; ammonium bicarbonate and di-ammonium ortho-phosphate; iii. a combination of sugars, wherein the combination of sugars comprises of sucrose, lactose and trehalose, or wherein the combination of sugars is sucrose and trehalose; iv. recombinant Human Serum Albumin; v. a partially hydrolysed protein lactalbumin hydrolysate, wherein the pH of the formulation is between 7 to 8.5, wherein the vaccine formulation is stable for at least 2 years at 2 to 8 °C and 6 months at 25 °C.
An electric motor drive device comprising: a booster circuit to boost a voltage value of a bus voltage to be applied to a direct-current bus; an inverter to apply an alternating-current voltage having a variable frequency and a variable voltage value to an electric motor, the bus voltage being applied to the inverter; a connection switching device to switch a connection state of a winding (71, 72, 73) of the electric motor; and a control device (8, 100) to control operations of the booster circuit, the inverter, and the connection switching device, characterized in that the control device (8, 100) is adapted to perform zero current control after stopping a boosting operation of the booster circuit to control the inverter such that a current flowing through the electric motor or the connection switching device is zero, wherein this zero current control is performed during operation of the electric motor without stopping the electric motor, during which zero current control the control device (8, 100) operates the connection switching device to switch the connection state. a booster circuit to boost a voltage value of a bus voltage to be applied to a direct-current bus; an inverter to apply an alternating-current voltage having a variable frequency and a variable voltage value to an electric motor, the bus voltage being applied to the inverter; a connection switching device to switch a connection state of a winding (71, 72, 73) of the electric motor; and a control device (8, 100) to control operations of the booster circuit, the inverter, and the connection switching device,
A method of a user equipment, UE, in a communication system, the method comprising: receiving, from a base station, system information including information on an inter vehicle-to-everything, V2X, frequency, the information on the inter V2X frequency including a public land mobile network, PLMN, for the inter V2X frequency, a V2X carrier frequency and information on transmission and reception resource pools corresponding to the inter V2X frequency; transmitting, to the base station, UE capability information; and transmitting, to the base station, sidelink UE information including information on interested V2X frequencies on which the UE is to receive or transmit a V2X communication, wherein the UE capability information includes first band combination information indicating a V2X carrier capable of being used by the UE for simultaneous transmission with the base station, and second band combination information indicating a V2X carrier capable of being used by the UE for simultaneous reception with the base station. receiving, from a base station, system information including information on an inter vehicle-to-everything, V2X, frequency, the information on the inter V2X frequency including a public land mobile network, PLMN, for the inter V2X frequency, a V2X carrier frequency and information on transmission and reception resource pools corresponding to the inter V2X frequency; transmitting, to the base station, UE capability information; and transmitting, to the base station, sidelink UE information including information on interested V2X frequencies on which the UE is to receive or transmit a V2X communication, wherein the UE capability information includes first band combination information indicating a V2X carrier capable of being used by the UE for simultaneous transmission with the base station, and second band combination information indicating a V2X carrier capable of being used by the UE for simultaneous reception with the base station.
An apparatus configured to maintain consistency among timestamp counters distributed among physical devices, the apparatus comprising: a plurality of timestamp counters with each of the plurality of timestamp counters configured to maintain a current timestamp value of a global time, with each of the plurality of timestamp counters disposed in a physical device different from the physical device in which another of said timestamp counters are disposed; wherein each of said timestamp counters configured to receive a clock signal generated from a same or different clock of one or more clocks; characterized in that each particular timestamp counter of the plurality of timestamp counters includes a time advance input for enabling the advancement of said particular timestamp counter in response to its said received clock signal, with each said particular timestamp counter being configured to be responsive to a clock advance signal communicated to its said time advance input in order to determine whether or not to advance its current timestamp value in response to its said received clock signal; and a time advance generator configured to periodically generate the clock advance signal, wherein the time advance generator is communicatively coupled to said time advance input of each of the plurality of timestamp counters. a plurality of timestamp counters with each of the plurality of timestamp counters configured to maintain a current timestamp value of a global time, with each of the plurality of timestamp counters disposed in a physical device different from the physical device in which another of said timestamp counters are disposed; wherein each of said timestamp counters configured to receive a clock signal generated from a same or different clock of one or more clocks; characterized in that each particular timestamp counter of the plurality of timestamp counters includes a time advance input for enabling the advancement of said particular timestamp counter in response to its said received clock signal, with each said particular timestamp counter being configured to be responsive to a clock advance signal communicated to its said time advance input in order to determine whether or not to advance its current timestamp value in response to its said received clock signal; and a time advance generator configured to periodically generate the clock advance signal, wherein the time advance generator is communicatively coupled to said time advance input of each of the plurality of timestamp counters.
A machine for transporting a liner into a grinding mill body, comprising a housing for insertion through an opening of said grinding mill body, said housing having a first end, a second end and a conduit in communication with said first end and said second end, and a conveying device for conveying said liner along said conduit between said first and second ends, wherein said conveying device is located inside said conduit.
A coupler for releasably coupling to a provided article of wear, the coupler comprising: a base plate, the base plate comprising a center region, a first portion, and a second portion, the center region includes a mount interface couplable with a provided portable device; characterized in that the coupler further comprises a buckle, the buckle comprising a first part, a second part, a first joint, and a lock, the first part comprises a first structure, the second part comprises a second structure, the first joint movably couples the first part with the second part; wherein: in an unlocked state, the lock enables movement of the first part relative to the second part; and in a locked state, the first structure engages the first portion of the base plate, the second structure engages the second portion of the base plate, and the lock prevents the first structure from moving relative to the second structure to secure the buckle to the base plate over the provided article of wear. a base plate, the base plate comprising a center region, a first portion, and a second portion, the center region includes a mount interface couplable with a provided portable device; characterized in that the coupler further comprises a buckle, the buckle comprising a first part, a second part, a first joint, and a lock, the first part comprises a first structure, the second part comprises a second structure, the first joint movably couples the first part with the second part; in an unlocked state, the lock enables movement of the first part relative to the second part; and in a locked state, the first structure engages the first portion of the base plate, the second structure engages the second portion of the base plate, and the lock prevents the first structure from moving relative to the second structure to secure the buckle to the base plate over the provided article of wear.
A drive unit for an industrial truck, comprising: a drive wheel for driving and steering the industrial truck, the drive wheel being rotatable about a steering axis; a motor connected to drive the drive wheel; a support arranged to directly or indirectly carry the motor and the drive wheel; and at least one guiding rod and an attachment attached to said at least one guiding rod, the guiding rod and the attachment being displaceable in relation to each other in the direction of an axis, wherein one of said guiding rod and said attachment is fixedly connected to the support and the other to a body of the industrial truck, the support J Z thereby being movable, essentially vertically, relative to the body of the industrial truck; characterized in that all the guiding rods are arranged along a single axis, either by being a single guiding rod, or by being two or more guiding rods which are co-axial and all extending along said single axis, and in that it further comprises a rotation restrictor for preventing rotation of the support about the at least one guiding rod. a drive wheel for driving and steering the industrial truck, the drive wheel being rotatable about a steering axis; a motor connected to drive the drive wheel; a support arranged to directly or indirectly carry the motor and the drive wheel; and at least one guiding rod and an attachment attached to said at least one guiding rod, the guiding rod and the attachment being displaceable in relation to each other in the direction of an axis, wherein one of said guiding rod and said attachment is fixedly connected to the support and the other to a body of the industrial truck, the support J Z thereby being movable, essentially vertically, relative to the body of the industrial truck; characterized in that all the guiding rods are arranged along a single axis, either by being a single guiding rod, or by being two or more guiding rods which are co-axial and all extending along said single axis, and in that it further comprises a rotation restrictor for preventing rotation of the support about the at least one guiding rod.
A variable data lithography system comprising an imaging member and a cleaning subsystem for removing residual ink and dampening solution from a surface of the imaging member, characterised in that the cleaning subsystem comprises: a first cleaning member having a conformable adhesive surface disposed for physical contact with said imaging member, such that residual ink remaining on said imaging member, following transfer of an inked latent image from said imaging member to a substrate, adheres to said conformable adhesive surface and is thereby removed from said imaging member; a second cleaning member, in physical contact with said first cleaning member, such that residual ink removed from said imaging member and adhering to said adhesive surface of said first cleaning member, splits onto said second cleaning member; and a first doctor blade in physical contact with said surface of said second cleaningmember, such that residual ink removed from said first cleaning member by said second cleaning member, is removed from said second cleaning member by said first doctor blade wherein said first cleaning member has a first surface roughness Ra 1 and said second cleaning member has a second surface roughness Ra 2, wherein Ra 2 ≤Ra 1. a first cleaning member having a conformable adhesive surface disposed for physical contact with said imaging member, such that residual ink remaining on said imaging member, following transfer of an inked latent image from said imaging member to a substrate, adheres to said conformable adhesive surface and is thereby removed from said imaging member; a second cleaning member, in physical contact with said first cleaning member, such that residual ink removed from said imaging member and adhering to said adhesive surface of said first cleaning member, splits onto said second cleaning member; and a first doctor blade in physical contact with said surface of said second cleaningmember, such that residual ink removed from said first cleaning member by said second cleaning member, is removed from said second cleaning member by said first doctor blade wherein said first cleaning member has a first surface roughness Ra 1 and said second cleaning member has a second surface roughness Ra 2, wherein Ra 2 ≤Ra 1.
A process for removing acid charge variants from a monoclonal antibody, comprising (a) loading a mammalian cell-expressed monoclonal antibody preparation onto a Protein A support, and eluting the monoclonal antibody from the Protein A support, thereby producing a first eluate comprising the monoclonal antibody; (b) loading the first eluate from step (a) onto an anion exchange and hydrophobic interaction (AEX/HIC) chromatography support, and allowing the first eluate to flow through the support, thereby producing a flow-through pool comprising the monoclonal antibody; (c) loading the flow-through pool comprising the monoclonal antibody onto a cation exchange chromatography support having an antibody binding capacity of from 25 g/L to 65 g/L, determining when the absorbance units measured at UV A280 decrease from 7% to 14% from the peak absorbance units measured at UV A280, and then washing the CEX chromatography support with a wash buffer having a pH of from 5.8 to 6.6 and a conductivity target of from 6.6 mS/cm to 7.6 mS/cm; and (d) eluting the monoclonal antibody from the CEX chromatography support in step (c) with an elution buffer having a pH of from 6.0 to 6.4 and a conductivity target of from 10 mS/cm to 14 mS/cm, thereby producing a second eluate comprising the monoclonal antibody and from 10% to 20% by weight of acid charge variants of the monoclonal antibody. (a) loading a mammalian cell-expressed monoclonal antibody preparation onto a Protein A support, and eluting the monoclonal antibody from the Protein A support, thereby producing a first eluate comprising the monoclonal antibody; (b) loading the first eluate from step (a) onto an anion exchange and hydrophobic interaction (AEX/HIC) chromatography support, and allowing the first eluate to flow through the support, thereby producing a flow-through pool comprising the monoclonal antibody; (c) loading the flow-through pool comprising the monoclonal antibody onto a cation exchange chromatography support having an antibody binding capacity of from 25 g/L to 65 g/L, determining when the absorbance units measured at UV A280 decrease from 7% to 14% from the peak absorbance units measured at UV A280, and then washing the CEX chromatography support with a wash buffer having a pH of from 5.8 to 6.6 and a conductivity target of from 6.6 mS/cm to 7.6 mS/cm; and (d) eluting the monoclonal antibody from the CEX chromatography support in step (c) with an elution buffer having a pH of from 6.0 to 6.4 and a conductivity target of from 10 mS/cm to 14 mS/cm, thereby producing a second eluate comprising the monoclonal antibody and from 10% to 20% by weight of acid charge variants of the monoclonal antibody.
An apparatus comprising: a port configured to be coupled to a device over a link, the link comprising a plurality of lanes, including a first number of lanes that will remain active during link width configuration, and a second number of lanes that will go into idle state; the port being configured to: transmit data on the link on each lane of the plurality of lanes; receive a first down-configure request; transmit an electrical idle ordered set, EIOS, on the second number of lanes; and transmit skip ordered sets, SKP OS, on the first number of lanes; and transmit data on the first number of lanes; send a second down-configure request across the link, wherein the second down-configure request is sent without the port having received the first down-configure request; the first number of lanes indicated in the first down-configure request is greater than the number of lanes indicated in the second down-configure request; and send an acknowledgment message across the link acknowledging the first down-configure request to indicate to transmit data on the first number of lanes. a port configured to be coupled to a device over a link, the link comprising a plurality of lanes, including a first number of lanes that will remain active during link width configuration, and a second number of lanes that will go into idle state; the port being configured to: transmit data on the link on each lane of the plurality of lanes; receive a first down-configure request; transmit an electrical idle ordered set, EIOS, on the second number of lanes; and transmit skip ordered sets, SKP OS, on the first number of lanes; and transmit data on the first number of lanes; send a second down-configure request across the link, wherein the second down-configure request is sent without the port having received the first down-configure request; the first number of lanes indicated in the first down-configure request is greater than the number of lanes indicated in the second down-configure request; and send an acknowledgment message across the link acknowledging the first down-configure request to indicate to transmit data on the first number of lanes. transmit data on the link on each lane of the plurality of lanes; receive a first down-configure request; transmit an electrical idle ordered set, EIOS, on the second number of lanes; and transmit skip ordered sets, SKP OS, on the first number of lanes; and transmit data on the first number of lanes; send a second down-configure request across the link, wherein the second down-configure request is sent without the port having received the first down-configure request; the first number of lanes indicated in the first down-configure request is greater than the number of lanes indicated in the second down-configure request; and send an acknowledgment message across the link acknowledging the first down-configure request to indicate to transmit data on the first number of lanes.
A method for monitoring plane engines comprising at least two engines (m1, m2, m3, m4), each engine (m1, m2, m3, m4) being controlled and monitored by an engine monitoring calculator (1, 2, 3, 4), said calculators (1, 2, 3, 4) being connected between them by a communication network and each calculator (1, 2, 3, 4) monitoring the operating parameters (p, V) of the engine (m1, m2, m3, m4) it controls, the method being characterized in that the two calculators (1, 2, 3, 4) emit (60; 100) on the network the value (V(k)) of at least one of said parameters (p(k)) for being compared (62; 102, 103, 104) with those (V(k')) of the same parameter (p(k) = p(k')) emitted by the other calculator (1, 2, 3, 4), and in that, if a value (V(k)) deviates from the other (V(k')) by a difference (dl(k), d2(k), d3(k)) higher than a predetermined threshold, one of the engines (m(k)) is diagnosed as being in an abnormal operation.