mhurhangee/patent-ind-claim-en huggingface dataset:
A secondary battery, comprising: an electrode assembly having a plurality of unit electrode bodies , each electrode body including a positive electrode plate having a plurality of positive electrode uneven grooves into which a positive electrode active material is inserted, a negative electrode plate having a plurality of negative electrode uneven grooves located to face the positive electrode uneven grooves so that a negative electrode active material is inserted therein, and a unit separator interposed between the positive electrode plate and the negative electrode plate ; and a case having an accommodation portion in which the electrode assembly and an electrolyte are accommodated, wherein the positive electrode plate and the negative electrode plate are symmetrical to each other on the basis of the unit separator , and adjacent positive electrode uneven grooves or negative electrode uneven grooves of adjacent unit electrode bodies are engaged with the negative electrode plate or the positive electrode plate by fitting. an electrode assembly having a plurality of unit electrode bodies , each electrode body including a positive electrode plate having a plurality of positive electrode uneven grooves into which a positive electrode active material is inserted, a negative electrode plate having a plurality of negative electrode uneven grooves located to face the positive electrode uneven grooves so that a negative electrode active material is inserted therein, and a unit separator interposed between the positive electrode plate and the negative electrode plate ; and a case having an accommodation portion in which the electrode assembly and an electrolyte are accommodated, wherein the positive electrode plate and the negative electrode plate are symmetrical to each other on the basis of the unit separator , and adjacent positive electrode uneven grooves or negative electrode uneven grooves of adjacent unit electrode bodies are engaged with the negative electrode plate or the positive electrode plate by fitting.
A fabric print medium comprising a fabric base substrate and two treatment compositions that are applied to said fabric base substrate, wherein a. a first treatment composition is disposed on the fabric base substrate and forms a first coating layer comprising, at least : i. film-forming polymeric compounds, ii. and a water-soluble high-valence metal complex; b. and a second treatment composition applied over the first coating layer comprises, at least: i. a polymeric network, ii. poly-alkene polymeric compounds, iii. a water-soluble high-valence metal complex, iv. and a flame retardant agent. a. a first treatment composition is disposed on the fabric base substrate and forms a first coating layer comprising, at least : i. film-forming polymeric compounds, ii. and a water-soluble high-valence metal complex; i. film-forming polymeric compounds, ii. and a water-soluble high-valence metal complex; b. and a second treatment composition applied over the first coating layer comprises, at least: i. a polymeric network, ii. poly-alkene polymeric compounds, iii. a water-soluble high-valence metal complex, iv. and a flame retardant agent. i. a polymeric network, ii. poly-alkene polymeric compounds, iii. a water-soluble high-valence metal complex, iv. and a flame retardant agent.
A method for controlling uplink transmit power of a user equipment, UE, in a radio access system supporting a multi-connectivity mode, the method performed by the UE and comprising: receiving (S1720) two higher layer signals including first power parameters from a first serving cell and a second serving cell, wherein the UE is in the multi-connectivity mode with the first and the second serving cells; receiving (S1730) two physical downlink control channels, PDCCHs, including a second power parameter from the first and the second serving cells; measuring (S1740) path loss values of the first and the second serving cells, calculating (S1750) physical uplink control channel, PUCCH, transmit powers for each of the first and the second serving cells in the multi-connectivity mode; and transmitting respective PUCCHs to the first and the second serving cells based on the PUCCH transmit powers, wherein the PUCCH transmit powers are calculated based on the first power parameters, the second power parameter and the path loss values, wherein, in the multi-connectivity mode, the UE maintains multiple connections with the first and the second serving cells. receiving (S1720) two higher layer signals including first power parameters from a first serving cell and a second serving cell, wherein the UE is in the multi-connectivity mode with the first and the second serving cells; receiving (S1730) two physical downlink control channels, PDCCHs, including a second power parameter from the first and the second serving cells; measuring (S1740) path loss values of the first and the second serving cells, calculating (S1750) physical uplink control channel, PUCCH, transmit powers for each of the first and the second serving cells in the multi-connectivity mode; and transmitting respective PUCCHs to the first and the second serving cells based on the PUCCH transmit powers, wherein the PUCCH transmit powers are calculated based on the first power parameters, the second power parameter and the path loss values, wherein, in the multi-connectivity mode, the UE maintains multiple connections with the first and the second serving cells.
A method of calibrating a light-field imaging system having a microlens array and an image sensor , the method comprising: capturing a z-stack of light-field images of a calibration target using the image sensor , while the calibration target is located at a plurality of different z-positions; and determining a total magnification of the light-field imaging system and a microlens magnification of the microlens array from each light-field image of the z-stack, characterized in that the calibration target has at least one type of marker arranged to form a first periodic repeat and a second periodic repeat , wherein the first periodic repeat is used to determine the total magnification at each of the z-positions, and wherein the second periodic repeat is used to determine at least one microlens magnification at each of the z-positions and wherein the first periodic repeat and the second periodic repeat are different. capturing a z-stack of light-field images of a calibration target using the image sensor , while the calibration target is located at a plurality of different z-positions; and determining a total magnification of the light-field imaging system and a microlens magnification of the microlens array from each light-field image of the z-stack, characterized in that the calibration target has at least one type of marker arranged to form a first periodic repeat and a second periodic repeat , wherein the first periodic repeat is used to determine the total magnification at each of the z-positions, and wherein the second periodic repeat is used to determine at least one microlens magnification at each of the z-positions and wherein the first periodic repeat and the second periodic repeat are different.
An image reading apparatus for reading continuously a plurality of manuscripts as a manuscript group, each manuscript comprising one or more document sheets (71-78), the image reading apparatus comprising: a reading section for reading the document sheets; and an identifying section for identifying each leading sheet of each manuscript included in the manuscript group based on the number of document sheets (71-78) of each manuscript inputted by a user in advance; characterized by : a memorizing controlling section for storing each manuscript included in the manuscript group read at the reading section as each file; and a display for displaying the number of document sheets input screen to allow the user to input the number of the document sheets of each manuscript included in the manuscript group, wherein, after the user designates the number of the document sheets of each manuscript, based on the number of document sheets of each manuscript that the user inputted, the identification section identifies each leading sheet of each manuscript, and the reading section reads each manuscript as each file. a reading section for reading the document sheets; and an identifying section for identifying each leading sheet of each manuscript included in the manuscript group based on the number of document sheets (71-78) of each manuscript inputted by a user in advance; characterized by : a memorizing controlling section for storing each manuscript included in the manuscript group read at the reading section as each file; and a display for displaying the number of document sheets input screen to allow the user to input the number of the document sheets of each manuscript included in the manuscript group, a memorizing controlling section for storing each manuscript included in the manuscript group read at the reading section as each file; and a display for displaying the number of document sheets input screen to allow the user to input the number of the document sheets of each manuscript included in the manuscript group, wherein, after the user designates the number of the document sheets of each manuscript, based on the number of document sheets of each manuscript that the user inputted, the identification section identifies each leading sheet of each manuscript, and the reading section reads each manuscript as each file.
A method of operating an aircraft having a first engine and a second engine (10"), the first engine having a bleed air system and the second engine (10") having a bleed air system , the method characterised by in flight, and with the first engine operating in a standby mode and the second engine (10") operating in an active mode, directing pressurized air from a source of pressurized air external to the first engine to the bleed air system of the first engine , the source of pressurized air including the bleed air system of the second engine (10"), in flight, and with the first engine operating in the standby mode, operating the second engine in the active mode to supply all or substantially all of a required power and/or speed demand of a common load. in flight, and with the first engine operating in a standby mode and the second engine (10") operating in an active mode, directing pressurized air from a source of pressurized air external to the first engine to the bleed air system of the first engine , the source of pressurized air including the bleed air system of the second engine (10"), in flight, and with the first engine operating in the standby mode, operating the second engine in the active mode to supply all or substantially all of a required power and/or speed demand of a common load.
A magnetic resonance imaging system comprising an object support , a first exchangeable part configured for transmitting RF signals, a second exchangeable part , exchangeable with the first exchangeable part and configured for transmitting RF signals, and a main magnet , wherein the main magnet is configured to create an examination zone in the magnetic resonance system by alignment of spins with a main magnetic field wherein the magnetic resonance system further comprises a transmit coil assembly, wherein the transmit coil assembly is a body coil and comprises: - either the first exchangeable part or the second exchangeable part, wherein - the first and second exchangeable parts are configured to be detachably mountable to the magnetic resonance imaging system and; wherein the transmit assembly further comprises - a permanent part configured for transmitting RF signals and configured to form a volume resonator when combined with the first or second exchangeable part such that by cooperation of the permanent and first or second exchangeable parts the RF field generated by the volume resonator substantially covers the examination zone; wherein - the first exchangeable part has a different size than the second exchangeable part in order to enable altering the size of the volume resonator based on the size of a patient, thereby enabling to optimize the magnetic resonance imaging system for both small and large patients, for which otherwise two magnetic resonance imaging systems with two different bore sizes would be needed; and wherein - the first and second exchangeable parts are rigid. - either the first exchangeable part or the second exchangeable part, wherein - the first and second exchangeable parts are configured to be detachably mountable to the magnetic resonance imaging system and; wherein the transmit assembly further comprises - a permanent part configured for transmitting RF signals and configured to form a volume resonator when combined with the first or second exchangeable part such that by cooperation of the permanent and first or second exchangeable parts the RF field generated by the volume resonator substantially covers the examination zone; wherein - the first exchangeable part has a different size than the second exchangeable part in order to enable altering the size of the volume resonator based on the size of a patient, thereby enabling to optimize the magnetic resonance imaging system for both small and large patients, for which otherwise two magnetic resonance imaging systems with two different bore sizes would be needed; and wherein - the first and second exchangeable parts are rigid.
A brake control system (100;600;700;800) for a vehicle, the brake control system comprising: a master cylinder ; a brake line for communicating brake fluid between the master cylinder and a brake; a fluid reservoir in fluid communication with the brake line during non-braking conditions; and means for selectively moving brake fluid into and/or out of the fluid reservoir (110;310,312;510;610;710;810); characterised in that the means for selectively moving brake fluid into and/or out of the fluid reservoir comprises means for removing gas from the fluid reservoir that is configured to move brake fluid into the fluid reservoir , so that brake fluid is moved along the brake line in a direction towards the master cylinder , during non-braking conditions. a master cylinder ; a brake line for communicating brake fluid between the master cylinder and a brake; a fluid reservoir in fluid communication with the brake line during non-braking conditions; and means for selectively moving brake fluid into and/or out of the fluid reservoir (110;310,312;510;610;710;810); characterised in that the means for selectively moving brake fluid into and/or out of the fluid reservoir comprises means for removing gas from the fluid reservoir that is configured to move brake fluid into the fluid reservoir , so that brake fluid is moved along the brake line in a direction towards the master cylinder , during non-braking conditions.
Method for controlling a welding process with a consumable electrode , in which method, after the ignition of an arc between the electrode and a base material (G), at least two different chronologically sequential welding phases (P K , Pw) are used, wherein a cold welding phase (P K ) is used during a cold phase duration (D K ) and a hot welding phase (Pw) is used during a subsequent hot phase duration (Dw), wherein at least one short-circuit cycle (Z Kn ) having a short-circuit cycle time (t ZKn ) is carried out in the cold welding phase (P K ), wherein after the cold welding phase (P K ), there is a switch to the hot welding phase (Pw) and wherein a specific number (n) of short-circuit cycles (Z Kn ) is specified for the cold welding phase (P K ), characterized in that the cold phase duration (D K ) of the cold welding phase (P K ) is determined, for a number (n) of short-circuit cycles (Z Kn ) that exceeds a specified limit cycle number (n G ), depending on a determined cold phase time (t K ), wherein in order to determine the cold phase duration (D K ), a short-circuit cycle (Z Kn ) that has already started at the time of expiry of the cold phase time (t K ) is completed before the switch to the hot welding phase (Pw).
Control method for a roll stand , - wherein, while a metal strip is being rolled in the roll stand , a control device for the roll stand receives measurement data (M) for a lateral position (y) of the metal strip that exists on the entry side and/or on the exit side of the roll stand , - wherein a stand controller of the control device takes account of parameters (P) of the stand controller in taking the deviation in the lateral position (y) from a desired position (y*) as a basis for ascertaining a pivot value (δs) for the roll stand and actuating the roll stand accordingly, characterized in that : - the control device ascertains at least one quantity (V1, V2, Q1, Q2) that reveals, for both strip edges of the metal strip , whether the metal strip is forming a wave in the region of the respective strip edge , and - as soon as the metal strip forms a wave in the region of one of the strip edges , the control device varies at least one of the parameters (P) of the stand controller , as a result of which the stand controller ascertains the pivot value (δs) from the varying of the at least one parameter (P) onward in the light of the altered parameter (P). - wherein, while a metal strip is being rolled in the roll stand , a control device for the roll stand receives measurement data (M) for a lateral position (y) of the metal strip that exists on the entry side and/or on the exit side of the roll stand , - wherein a stand controller of the control device takes account of parameters (P) of the stand controller in taking the deviation in the lateral position (y) from a desired position (y*) as a basis for ascertaining a pivot value (δs) for the roll stand and actuating the roll stand accordingly, characterized in that : - the control device ascertains at least one quantity (V1, V2, Q1, Q2) that reveals, for both strip edges of the metal strip , whether the metal strip is forming a wave in the region of the respective strip edge , and - as soon as the metal strip forms a wave in the region of one of the strip edges , the control device varies at least one of the parameters (P) of the stand controller , as a result of which the stand controller ascertains the pivot value (δs) from the varying of the at least one parameter (P) onward in the light of the altered parameter (P).
An aerosol-forming article comprising an aerosol-forming substrate wherein the aerosol-forming substrate comprises a first, upstream portion of aerosol-forming material and a second, downstream portion of aerosol-forming material wherein the first and second portions of aerosol-forming material are axially spaced by a cavity housing a vapour modifier ; wherein the first portion of aerosol-forming material and the second portion of aerosol-forming material are both formed of a first aerosol-forming material; wherein the vapour modifier comprises a second aerosol-forming material; and characterised in that the first aerosol-forming material comprises reconstituted tobacco, the second aerosol-forming material comprises extruded tobacco, and wherein the extruded tobacco will deliver a vapour with a higher nicotine content than the first and second portions of aerosol-forming material. wherein the first portion of aerosol-forming material and the second portion of aerosol-forming material are both formed of a first aerosol-forming material; wherein the vapour modifier comprises a second aerosol-forming material; and characterised in that the first aerosol-forming material comprises reconstituted tobacco, the second aerosol-forming material comprises extruded tobacco, and wherein the extruded tobacco will deliver a vapour with a higher nicotine content than the first and second portions of aerosol-forming material.
Device for aligning dough pieces , comprising: - a first conveyor , for conveying dough pieces in a direction of conveyance ; - a second conveyor , for conveying dough pieces in the same direction of conveyance ; wherein - the second conveyor is arranged as an extension of the first conveyor , and - There is a gap in between the first and the second conveyor ; - a number of transfer units is arranged in parallel in the gap , each transfer unit for transferring dough pieces from the first conveyor to the second conveyor , wherein - the transfer units are adapted for independently moving the dough pieces with a directional component perpendicular to the direction of conveyance during transfer from a front side adjacent to the first conveyor to a back side adjacent to the second conveyor , characterised in that, - the transfer units each comprise a transfer belt , wherein each transfer belt is at least at its front side and/or at its back side movable in a direction perpendicular to the direction of conveyance , independent from transfer belts of other transfer units , wherein, the transfer units each comprise at least a roller at their front side and at least a roller at their back side , wherein the transfer belt is looped around the at least one roller at the front side and the at least one roller at the back side , wherein for each transfer unit the roller at the front side and/or the roller at the back side is independently movable in a direction perpendicular to the direction of conveyance . - a first conveyor , for conveying dough pieces in a direction of conveyance ; - a second conveyor , for conveying dough pieces in the same direction of conveyance ; wherein - the second conveyor is arranged as an extension of the first conveyor , and - There is a gap in between the first and the second conveyor ; - a number of transfer units is arranged in parallel in the gap , each transfer unit for transferring dough pieces from the first conveyor to the second conveyor , wherein - the transfer units are adapted for independently moving the dough pieces with a directional component perpendicular to the direction of conveyance during transfer from a front side adjacent to the first conveyor to a back side adjacent to the second conveyor , characterised in that, - the transfer units each comprise a transfer belt , wherein each transfer belt is at least at its front side and/or at its back side movable in a direction perpendicular to the direction of conveyance , independent from transfer belts of other transfer units ,
A trampoline comprising a peripheral frame , a trampoline mat attached to said peripheral frame via a series of spring elements , and a protective mat for covering said spring elements , wherein said trampoline comprises a spacer attached to said peripheral frame above said series of spring elements and below said protective mat for holding said protective mat a spacer height above said spring elements , and an air permeable web connecting said protective mat and said trampoline mat , wherein said trampoline mat has a circumference smaller than an inner circumference of said peripheral frame and is positioned in said peripheral frame with said spring elements running from said trampoline mat circumference to said inner circumference of said peripheral frame , wherein said spacer comprises a series of spacer spring elements attached to said peripheral frame at various positions about said perimeter and at a height above said spring elements , said spacer spring elements holding a band between said frame and said trampoline mat , said band holding spacer elements .