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Design and Implementation of Automated Mechanical Systems for Hostile Environments
Subject area: Science,Engineering and Technology · Area of research: Sciences
Abstract
The design and implementation of automated mechanical systems for hostile environments, such as deep-sea exploration, nuclear power facilities, space missions, and arctic operations, demand innovative approaches to ensure resilience, adaptability, and performance. This paper explores the technological strategies that enable mechanical systems to operate autonomously under extreme physical, thermal, and chemical stresses. By integrating robotics, fault-tolerant control, digital twins, and advanced materials, engineers have achieved significant improvements in reliability and energy efficiency. The analysis reveals that the future of automation in hostile environments will rely on synergistic advancements in artificial intelligence, energy management, and materials science, ensuring sustainable and safe operation where human presence is limited or impossible.
Keywords
Automated Mechanical Systems; Hostile Environments; Robotics; Digital Twin; Fault-Tolerant Control; Energy Efficiency; Materials Engineering; System Resilience.
References
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How to cite this paper
@article{1712056,
author = {Josimar Santos Viana},
title = {Design and Implementation of Automated Mechanical Systems for Hostile Environments},
journal = {Iconic Research And Engineering Journals},
year = {2023},
volume = {7},
number = {1},
pages = {776-779},
issn = {2456-8880},
url = {https://www.irejournals.com/formatedpaper/1712056.pdf},
abstract = {The design and implementation of automated mechanical systems for hostile environments, such as deep-sea exploration, nuclear power facilities, space missions, and arctic operations, demand innovative approaches to ensure resilience, adaptability, and performance. This paper explores the technological strategies that enable mechanical systems to operate autonomously under extreme physical, thermal, and chemical stresses. By integrating robotics, fault-tolerant control, digital twins, and advanced materials, engineers have achieved significant improvements in reliability and energy efficiency. The analysis reveals that the future of automation in hostile environments will rely on synergistic advancements in artificial intelligence, energy management, and materials science, ensuring sustainable and safe operation where human presence is limited or impossible.},
keywords = {Automated Mechanical Systems; Hostile Environments; Robotics; Digital Twin; Fault-Tolerant Control; Energy Efficiency; Materials Engineering; System Resilience.},
month = {July},
}