RESEARCH ON THE DESIGN FOR PROTECTING THE ARDUINO-MEGA MICROCONTROLLER USED AT AQUATIC EXPLORATION
Abstract
National Geographic reports that approximately 80% of the ocean floor remains uncharted, while nearly 90% of marine species remain undiscovered. Scientists continually seek more efficient methods to enhance accessibility and safety in ocean exploration. Over time, they have increasingly integrated the Arduino Mega microcontroller into their projects due to its affordability, versatility, and capacity for large-scale applications.
This paper focuses on designing a waterproof casing for the Arduino Mega microcontroller, intended for extreme use in deep-sea exploration. The casing undergoes sequential static simulations at various depths, followed by thermal simulations to assess the heat sink's efficacy. The casing aims to protect the microcontroller and its components from physical shocks, allowing uninterrupted utilization of its functions without the need for case to be opened. By guarding against irreversible damage from water, dust, and impact, this protective enclosure stands to reduce research expenses associated with new exploratory technologies and methodologies.
Moreover, this research offers practical utility to a broad audience, spanning from enthusiasts and amateurs to academics, enabling them to construct systems for further ocean floor exploration. Additionally, it serves as a launch pad for novel advancements and refinements in the field.
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