Abstract:
Schweißmaschine zur Herstellung von Batterien (10), umfassend mindestens eine Schweißstation (1) und ein Transportband (4), über welches die Batterien (10) der Schweißstation (1) zuführbar sind, wobei die Zuführung der Batterien (10) über eine Kontrolleinrichtung (9) steuerbar ist, wobei ein Arbeitsband (6) vorgesehen ist, das benachbart zu dem Transportband (4) angeordnet ist, und dass an der Längsseite des Transportbandes (4) Transportschieber (7) angeordnet sind. Ein Verfahren zur Herstellung von Batterien (10) mittels einer Schweißmaschine ist auch offenbart.
Abstract:
The invention relates to a blank (10) for producing a housing (24), wherein the blank (10) consists of a plate-shaped material (11), wherein the blank (10) has a floor (12) and a first and a second pair (14, 16) of walls (18), wherein each wall (18) can be bent and folded along a fold line (20), wherein the walls (18) of each pair (14, 16) are opposite each other when folded, wherein each fold line (20) is designed in the form of an impression (38) in the plate-shaped material (11), wherein each wall has two opposite edge surfaces (22, 49, 50) extending in a straight line, wherein each of the edge surfaces (22, 49, 50) is angled to form mitre connections. The invention further relates to a method for producing a housing (24) from such a blank (10) and to the use of the blank (10) for producing a battery housing.
Abstract:
A co-extrusion device has at least one first inlet port (40) to receive a first material, at least one second inlet port (42) to receive a second material, a first combining channel (44) arranged to receive the first material and the second material and combine the first and second materials into a first combined flow flowing in a first direction, a splitter channel (48,50) arranged to receive the first combined flow and to split the first combined flow into at least two split flows in a second direction at least partially orthogonal to the first direction, wherein each split flow consists of the first and second materials, and a second combining channel (52) arranged to receive the split flows and combine the split flows into a second combined flow in the first direction, and at least one exit orifice arranged to allow the materials to exit the device as a single flow. A method for depositing a structure comprising interdigitated materials includes merging flows of at least two materials in a first direction into a first combined flow, dividing the first combined flow in a second direction to produce at least two separate flows, wherein the second direction is perpendicular to the first direction, and merging the two separate flows into a second combined flow.
Abstract:
A method for producing a microporous thermoplastic resin membrane from a thermoplastic resin and a membrane-forming solvent, using as part of a starting material film waste based on the thermoplastic resin and the membrane-forming solvent, which is generated in the production process of the microporous thermoplastic resin membrane, comprising the steps of melt-blending a virgin thermoplastic resin and a membrane-forming solvent in an extruder to prepare a virgin material solution, adding the film waste generated in the same or different production processes to the virgin material solution in a molten state in the extruder at an intermediate point, melt-blending them to prepare a thermoplastic resin solution, extruding the thermoplastic resin solution through a die, cooling the extrudate to form a gel-like sheet, and removing the membrane-forming solvent from the gel-like sheet.
Abstract:
A thermal imaging system for a battery module enclosure that includes first and second battery module enclosure components between which a weld is formed includes a thermal imaging camera that focuses on the first and second battery module enclosure components within a predetermined amount of time after the weld is formed and that acquires a thermal signature. A control module includes an image processing module that receives the thermal signature and that locates a predetermined reference point in the thermal signature. An image comparison module receives the thermal signature and uses the predetermined reference point to compare the thermal signature to a template signature in order to verify structural integrity of the weld. The image comparison module computes a relative measure of deviation of the thermal signature from the template signature and identifies the weld as defective when the relative measure of deviation is greater than a predetermined value.
Abstract:
The present invention provides a gauntlet (4) for tubular type electric storage batteries with air mixing of the electrolyte, the gauntlet comprising multiple individual tubes forming a cartridge belt type gauntlet, wherein the walls of at least one of these individual tubes are substantially impermeable to air, as well as a process for its manufacture. The invention further pertains to an electric storage battery using such gauntlets.
Abstract:
Die Erfindung bezieht sich auf eine durch Spritzgießen hergestellte Unterbodenverkleidung (10) aus recycelten glasfaserfreiem Polypropylen. Zur Erzielung gewünschter Materialeigenschaften wird zumindest ein Additiv hinzugefügt, das zumindest die Temperaturbeständigkeit verbessert.
Abstract translation:一种在车辆下使用的覆盖物(10),包括具有结构化表面的平坦部分。 基本材料由聚丙烯组成,含有影响密度,弹性和韧性的添加剂。 该部件是注射成型的,基础材料被研磨和再循环。 至少一种弹性体与矿物材料一起加入。 该材料的弹性模量E为1.000-1.280Mpa,密度为1.0-1.16g / cm 3>,韧性为25-44KJ / m 2>在23℃。 弹性体材料例如是EPDM,由废料和/或再循环的车辆材料组成。 车辆下盖的肖氏硬度为60-65。 覆盖物具有肋(22,24)和穿孔(14,16,18,20)。
Abstract:
Zur Erzeugung leitfähiger Bereiche auf isolierenden Kunststoffen wird mit der Erfindung vorgeschlagen, zu den vorgesehenen leitfähigen Bereichen thermische Energie zuzuführen.
Abstract:
@ Apparatus for welding a battery cover (10) onto the rim portion of a battery jar (54) with the battery elements and terminal post in position within the jar (54). The apparatus includes a weld head assembly (108) having a plurality of elongate clamp bars (486) engageable with the sides of the battery jar (54) to retain the jar in a stationary position and, a pick-up assembly (568) engageable with the cover (10) to raise the cover (10) relative to the jar (54) to permit insertion of elongate heater bars (532) between opposed complementary welding surfaces on the cover (10) and jar (54) to directly heat the welding surfaces and to lower the cover (10) after removal of the heater bars (532) to bring the heated welding surfaces together to effect a joint therebetween. The cover (10) has a downwardly depending guide structure (112) engageable with the inner surface of the jar (54) and travel of the pick-up assembly (568) is controlled by switches which limit separation of the pre-assembled cover (10) and jar (54) so as to maintain the engagement between the guide structure (112) and the inner surface of the jar (54) during both the heating and subsequent joining stages. In this way the initial alignment of the pre-assembled cover (10) and jar (54) is maintained throughout the welding operation. The weld head assembly (108) is part of a deck assembly (104) which includes a transfer carriage (106) for sequentially moving the pre-assembled cover (10) and jar (54) from a load station to the weld head assembly (108) and on to an unload station for removing the assembled battery case having the cover (10) welded to the jar (54).