In supercapacitor module applications, this type of structure typically requires balancing electrical safety (protection against electric shock and insulation), environmental protection (resistance to water, dust, and moisture), and structural strength (resistance to vibration and shock).
With the deepening application of supercapacitors in energy storage systems, hybrid electric vehicles, grid frequency regulation, and high-end equipment, the role of their module structural components has evolved from mere physical support into a critical protective barrier that integrates electrical safety, protection against extreme environments, and resistance to vibration and shock. Addressing the specific demands of supercapacitor modules—particularly regarding the high sealing integrity, high structural strength, and non-standard customization required for "safety enclosure + skeletal frame" architectures—this paper proposes an integrated solution encompassing structural topology optimization, sealing interface design, precision machining, and comprehensive process validation. This solution aims to assist clients in resolving critical industry pain points, such as module protection failures, structural fatigue, and prolonged customization lead times encountered under complex operating conditions.
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