mhurhangee/ep-ind-claims huggingface dataset:
A secondary battery, having a sealed structure such that an electrode assembly of a plurality of positive electrode plate/separator/negative electrode plate is embedded in a pouch case and a plurality of electrode tabs of the electrode assembly is joined to an electrode lead which juts out from the pouch case, the plurality of electrode tabs is formed to jut out from the electrode plate of the electrode assembly, the plurality of electrode tabs is welded to a side surface perpendicular to a surface-wise direction of the secondary battery on the electrode lead arranged parallel to the surface-wise direction of the secondary battery, to form a welded part in a thickness-wise direction of the electrode lead between the electrode lead and the plurality of electrode tabs, the welded part has a width in a length-wise direction of the electrode lead that is less than or equal to 1 mm, characterized in that the electrode lead is a thin plate-shaped metal with no bent part, and a thickness of the electrode lead is thicker than the sum of thicknesses of the plurality of electrode tabs. the plurality of electrode tabs is formed to jut out from the electrode plate of the electrode assembly, the plurality of electrode tabs is welded to a side surface perpendicular to a surface-wise direction of the secondary battery on the electrode lead arranged parallel to the surface-wise direction of the secondary battery, to form a welded part in a thickness-wise direction of the electrode lead between the electrode lead and the plurality of electrode tabs, the welded part has a width in a length-wise direction of the electrode lead that is less than or equal to 1 mm, characterized in that the electrode lead is a thin plate-shaped metal with no bent part, and a thickness of the electrode lead is thicker than the sum of thicknesses of the plurality of electrode tabs.
A method of making a composite structure, wherein the composite structure defines a longitudinal axis and a radius, the method comprising: drawing a first resin from a first resin source over a first section of plies of material in a mold by a first vacuum line; drawing a second resin from a second resin source over a second section of plies of material in the mold by the first vacuum line; and drawing a third resin from a third resin source by a second vacuum line substantially concurrently with the second resin being drawn over the second section of plies of material in the mold; curing the first resin, the second resin and the third resin; wherein a transition region, a first composite material, a second composite material, and a third composite material are formed in response to the curing of the first resin, the second resin and the third resin; characterised in that: the third resin is drawn into a subsection of the second section of plies of material in the mold; the third resin provides enhanced toughness as compared with the toughness of the second composite material; and the third resin and the second resin are disposed radially, longitudinally, or a combination of both to create separated bands to restrict crack propagation. drawing a first resin from a first resin source over a first section of plies of material in a mold by a first vacuum line; drawing a second resin from a second resin source over a second section of plies of material in the mold by the first vacuum line; and drawing a third resin from a third resin source by a second vacuum line substantially concurrently with the second resin being drawn over the second section of plies of material in the mold; curing the first resin, the second resin and the third resin; wherein a transition region, a first composite material, a second composite material, and a third composite material are formed in response to the curing of the first resin, the second resin and the third resin; characterised in that: the third resin is drawn into a subsection of the second section of plies of material in the mold; the third resin provides enhanced toughness as compared with the toughness of the second composite material; and the third resin and the second resin are disposed radially, longitudinally, or a combination of both to create separated bands to restrict crack propagation. the third resin is drawn into a subsection of the second section of plies of material in the mold; the third resin provides enhanced toughness as compared with the toughness of the second composite material; and the third resin and the second resin are disposed radially, longitudinally, or a combination of both to create separated bands to restrict crack propagation.
A method of removing carbon dioxide from a CO 2 source, the method including the steps of: - feeding potassium chloride from a potassium supply chain to an electrolyser process to produce chlorine, hydrogen and potassium hydroxide, wherein power is delivered from a power plant to the electrolyser process, - feeding the potassium hydroxide as makeup to a second process, which is a CO 2 removal unit which has an absorber for scrubbing flue gas emitted by the power plant using a recirculating lean carbonate stream, wherein the flue gas contains nitrogen dioxide and sulfur dioxide, which are absorbed in the absorber as potassium nitrate and sulfate, - venting the flue gas having residual CO 2 to the atmosphere, - transferring solvent which is rich in carbon dioxide from the absorber to a separate CO 2 regenerator, wherein the solvent is processed, wherein the CO 2 regenerator draws energy from a power plant for the CO2 removal step, - removing carbon dioxide as a pure gas stream in a CO 2 regeneration column, - regenerating the feed for recirculation of the lean solvent back to the CO 2 absorber, - removing potassium sulfate/nitrate by-product(s) from the recirculating solvent stream and feeding these by-products back into the potassium supply chain. - feeding potassium chloride from a potassium supply chain to an electrolyser process to produce chlorine, hydrogen and potassium hydroxide, wherein power is delivered from a power plant to the electrolyser process, - feeding the potassium hydroxide as makeup to a second process, which is a CO 2 removal unit which has an absorber for scrubbing flue gas emitted by the power plant using a recirculating lean carbonate stream, wherein the flue gas contains nitrogen dioxide and sulfur dioxide, which are absorbed in the absorber as potassium nitrate and sulfate, - venting the flue gas having residual CO 2 to the atmosphere, - transferring solvent which is rich in carbon dioxide from the absorber to a separate CO 2 regenerator, wherein the solvent is processed, wherein the CO 2 regenerator draws energy from a power plant for the CO2 removal step, - removing carbon dioxide as a pure gas stream in a CO 2 regeneration column, - regenerating the feed for recirculation of the lean solvent back to the CO 2 absorber, - removing potassium sulfate/nitrate by-product(s) from the recirculating solvent stream and feeding these by-products back into the potassium supply chain.
Vaccine for use in treating and/or preventing a physical disorder associated with the renin-activated angiotensin system comprising a peptide bound to a pharmaceutically acceptable carrier, characterised in that the peptide is selected from the group consisting of DRAYAHPF, DPGYIHPF, and PGYIHPF; and wherein the carrier is bound to the peptide by at least one cysteine residue bound to the N-terminus of the peptide.
An assembly for a turbine engine, the assembly comprising: a combustor wall (78,80) including a shell, a heat shield and an annular body; the body extending laterally between an inner surface and an outer surface, wherein the inner surface defines an igniter aperture in the combustor wall (78,80), and the outer surface extends vertically between the heat shield and the shell; characterised in that the shell defines a first cooling aperture through which air is directed to impinge against the outer surface. a combustor wall (78,80) including a shell, a heat shield and an annular body; the body extending laterally between an inner surface and an outer surface, wherein the inner surface defines an igniter aperture in the combustor wall (78,80), and the outer surface extends vertically between the heat shield and the shell; characterised in that the shell defines a first cooling aperture through which air is directed to impinge against the outer surface.
A trimming device for trimming a material web made of metal, having a longitudinal cutter for splitting off an edge strip that runs in the direction of web travel, and having a transverse cutter for splitting off edge strip scrap pieces from the edge strip, wherein the longitudinal cutter includes an upper blade shaft, being equipped with an upper blade, and a lower blade shaft, being equipped with a lower blade, and wherein the transverse cutter includes a chopper head that is disposed on a chopper shaft, having a multiplicity of chopper blades which are disposed on the circumference of the chopper head, and which cooperate with an edge strip rest for splitting off the edge strip scrap pieces, characterised in that the edge strip rest is formed by an edge strip contact region of the lower blade shaft, and in that the transverse cutter is disposed downstream of the longitudinal cutter in the direction of web travel.
A circuit, comprising: a plurality of comparator units (32, 33, 34), each comparator unit configured, in response to receiving at least a part of a data frame, to perform a determination whether data in a portion of the data frame matches respective reference data (51; 50, 51) and to provide a result to a comparator unit output based on the determination; a crossbar switch having crossbar inputs coupled to respective comparator unit outputs and configured to provide sets of crossbar switch outputs via configurable interconnects; and a set of result-combining logic units, each result-combining logic unit coupled to a respective set of crossbar switch outputs and configured to provide a respective logic unit output, wherein at least one result-combining logic output is configurably provided as a crossbar input. a plurality of comparator units (32, 33, 34), each comparator unit configured, in response to receiving at least a part of a data frame, to perform a determination whether data in a portion of the data frame matches respective reference data (51; 50, 51) and to provide a result to a comparator unit output based on the determination; a crossbar switch having crossbar inputs coupled to respective comparator unit outputs and configured to provide sets of crossbar switch outputs via configurable interconnects; and a set of result-combining logic units, each result-combining logic unit coupled to a respective set of crossbar switch outputs and configured to provide a respective logic unit output, wherein at least one result-combining logic output is configurably provided as a crossbar input.
An adjustable mirror assembly comprising: a mirror having a reflective surface and a support structure in support of the reflective surface; and a kinematic mirror mount operable to support the mirror, the kinematic mirror mount comprising a plurality of sub-tier mounting assemblies (114a-114c) spaced about the support structure of the mirror to distribute evenly support forces about the mirror, the sub-tier mounting assemblies (114a-114c) each comprising: a support base; a plurality of bipod strut pairs (150a, 150b) coupled to the support base and extending from one side of the support base, each bipod strut pair (150a. 150b) comprising individual first and second struts (152, 172); adjustable struts (194a, 194b) configured to couple between the support base and a mirror support from an opposite side of the support base, the adjustable struts (194a, 194b) being adjustable to equalize forces on each bipod strut pair (150a, 150b); and a mount pad (164, 184) supported about each of the first and second struts (152, 172), the mount pads (164, 184) being secured to the support structure of the mirror. a mirror having a reflective surface and a support structure in support of the reflective surface; and a kinematic mirror mount operable to support the mirror, the kinematic mirror mount comprising a plurality of sub-tier mounting assemblies (114a-114c) spaced about the support structure of the mirror to distribute evenly support forces about the mirror, the sub-tier mounting assemblies (114a-114c) each comprising: a support base; a plurality of bipod strut pairs (150a, 150b) coupled to the support base and extending from one side of the support base, each bipod strut pair (150a. 150b) comprising individual first and second struts (152, 172); adjustable struts (194a, 194b) configured to couple between the support base and a mirror support from an opposite side of the support base, the adjustable struts (194a, 194b) being adjustable to equalize forces on each bipod strut pair (150a, 150b); and a mount pad (164, 184) supported about each of the first and second struts (152, 172), the mount pads (164, 184) being secured to the support structure of the mirror. a support base; a plurality of bipod strut pairs (150a, 150b) coupled to the support base and extending from one side of the support base, each bipod strut pair (150a. 150b) comprising individual first and second struts (152, 172); adjustable struts (194a, 194b) configured to couple between the support base and a mirror support from an opposite side of the support base, the adjustable struts (194a, 194b) being adjustable to equalize forces on each bipod strut pair (150a, 150b); and a mount pad (164, 184) supported about each of the first and second struts (152, 172), the mount pads (164, 184) being secured to the support structure of the mirror.
An exterior light control system for controlling exterior lights of a controlled vehicle, comprising: an imaging system configured to image a scene external and forward of the controlled vehicle and to generate image data corresponding to the acquired images; and a controller configured to: determine if the controlled vehicle is traveling on a motorway, receive and analyze the image data in order to detect headlamps of an oncoming vehicle, and generate an exterior light control signal that is used to control the exterior lights in response to analysis of the image data and in response to a selected mode of operation, wherein, if said controller detects that the controlled vehicle is traveling on a motorway and detects headlamps of one or more oncoming vehicle, said controller is configured to generate an exterior light control signal for reducing the brightness of the exterior lights, to determine a location within the acquired images of a headlamp closest to a central feature of the acquired images, and to set a dynamic delay based on the determined location, such that the delay is greater when the headlamp is detected closer to the central feature of the image and is lesser when the headlamp is detected closer to the side of the image, and wherein, upon determining that oncoming headlamps are no longer present in the acquired images that require the exterior lights to remain in a reduced brightness state, said controller is configured to nevertheless continue to analyze acquired images for the set dynamic delay before generating an exterior light control signal for increasing the brightness of the exterior lights. an imaging system configured to image a scene external and forward of the controlled vehicle and to generate image data corresponding to the acquired images; and a controller configured to: determine if the controlled vehicle is traveling on a motorway, receive and analyze the image data in order to detect headlamps of an oncoming vehicle, and generate an exterior light control signal that is used to control the exterior lights in response to analysis of the image data and in response to a selected mode of operation, wherein, if said controller detects that the controlled vehicle is traveling on a motorway and detects headlamps of one or more oncoming vehicle, said controller is configured to generate an exterior light control signal for reducing the brightness of the exterior lights, to determine a location within the acquired images of a headlamp closest to a central feature of the acquired images, and to set a dynamic delay based on the determined location, such that the delay is greater when the headlamp is detected closer to the central feature of the image and is lesser when the headlamp is detected closer to the side of the image, and wherein, upon determining that oncoming headlamps are no longer present in the acquired images that require the exterior lights to remain in a reduced brightness state, said controller is configured to nevertheless continue to analyze acquired images for the set dynamic delay before generating an exterior light control signal for increasing the brightness of the exterior lights.
Piste preparation device for a tracked vehicle, comprising a cutter support (3, 3') which can be adjusted relative to the tracked vehicle about a plurality of axes, which cutter support comprises a cross member (5, 5') extending in the cutter transverse direction, comprising a cutting shaft arrangement (F, F') disposed rotatably in an impact housing (7, 7'), and comprising a smoothing mechanism which - as seen in the forward direction of travel of the motor vehicle - is arranged behind the cutting shaft arrangement (F, F') and is held in an adjustable manner by means of at least one adjusting means, wherein the impact housing (7, 7') and the cutting shaft arrangement (F, F') are held on the cutter support (3, 3') in an adjustable manner about a pivot axis which - as seen in the forward direction of travel of the tracked vehicle - lies behind an axis of rotation of the cutting shaft arrangement (F, F'), wherein the smoothing mechanism includes a flexible smoothing formation in the form of a finisher (8, 8'), wherein the finisher (8, 8') adjoins the rear side of the impact housing (7, 7'), wherein the cross member (5, 5') includes support extensions (16, 16') rigidly connected to the cross member (5, 5'), characterized in that supporting arms (9, 9') in a rocker-type design of a support unit for the flexible finisher (8, 8') of the smoothing mechanism are mounted on the support extensions (16, 16') for rocker-type movement to a limited extend about pivot axes (12, 12') extending in the longitudinal direction of the cutter, wherein each supporting arm (9, 9') is fixed in the region of its lateral end faces on support webs, which are articulated to a dimensionally stable support bar of the finisher (8, 8') of the smoothing mechanism, wherein the support bar is held on the supporting arms (9, 9') such that it can pivot about a pivot axis oriented in parallel in relation to the axis of rotation of the cutting shaft arrangement (F, F') in the region of the support webs, so that the smoothing function of the finisher (8, 8') is independent of the pivot position of the impact housing (7, 7') and the cutting shaft arrangement (F, F').
Rotary stirring device for beverage preparation machine, which comprises a rotary tool about an axis A and intended to stir a preparation contained in a container, and a conduit for conveying hot water and/or steam to the rotary tool, said conveying conduit comprising a tubular portion which extends along the axis A between a first end portion which is coupled with the rotary tool by means of a first coupling device and a second end portion which is coupled with a drive shaft by means of a second coupling device, characterised in that said rotary stirring device comprises a check valve arranged at the level of the first end portion, the check valve being configured to prevent the rising of said preparation inwards from the tubular portion.
A sheet cutting device configured to move a movable blade toward a fixed blade provided on a base plate and slide the cutting edge (Ba) of the movable blade along the cutting edge (Aa) of the fixed blade to cut a sheet fed between the cutting edge (Aa) of the fixed blade and the cutting edge (Ba) of the movable blade, the sheet cutting device comprising: a moving mechanism configured to move the cutting edge (Ba) of the movable blade away from the cutting edge (Aa) of the fixed blade to move the cutting edge (Ba) of the movable blade from an open position where the fed sheet is received and place the cutting edge (Ba) of the movable blade at the open position; a biasing mechanism configured to bias the movable blade toward the fixed blade to slide the cutting edge (Ba) of the movable blade with respect to the fixed blade; and a spacing mechanism configured to move the movable blade away from the fixed blade against a biasing force of the biasing mechanism during a process of allowing the movable blade to reach the open position after cutting of the sheet with the movable blade, characterized in that the spacing mechanism includes a cam provided on the fixed blade side and a cam follower provided on the movable blade side and configured to contact with the cam, a cam surface of the cam includes a first guide surface for guiding the cam follower to bring the tip edge of the movable blade into sliding contact with the tip edge of the fixed blade, and a second guide surface for pulling up the cam follower against a biasing force of the biasing mechanism when the movable blade reaches the open position after cutting the sheet cutting by the movable blade. a moving mechanism configured to move the cutting edge (Ba) of the movable blade away from the cutting edge (Aa) of the fixed blade to move the cutting edge (Ba) of the movable blade from an open position where the fed sheet is received and place the cutting edge (Ba) of the movable blade at the open position; a biasing mechanism configured to bias the movable blade toward the fixed blade to slide the cutting edge (Ba) of the movable blade with respect to the fixed blade; and a spacing mechanism configured to move the movable blade away from the fixed blade against a biasing force of the biasing mechanism during a process of allowing the movable blade to reach the open position after cutting of the sheet with the movable blade, the spacing mechanism includes a cam provided on the fixed blade side and a cam follower provided on the movable blade side and configured to contact with the cam, a cam surface of the cam includes a first guide surface for guiding the cam follower to bring the tip edge of the movable blade into sliding contact with the tip edge of the fixed blade, and a second guide surface for pulling up the cam follower against a biasing force of the biasing mechanism when the movable blade reaches the open position after cutting the sheet cutting by the movable blade.