From Automation to Autonomy: The Evolution of Intelligent Technological Systems
Keywords:
Automation,, Autonomy,, Intelligent Systems,, Levels of Autonomy,, Autonomous Systems,, Human–Autonomy Teaming, Robotics, Artificial Intelligence, Cyber-Physical Systems,, Control SystemsAbstract
Intelligent technological systems have undergone a profound evolution over the past century, progressing from fixed automation that executes predetermined sequences toward autonomy that enables systems to perceive, decide, and act under uncertainty with diminishing human involvement. This article reviews that evolution, clarifying the conceptual distinction between automation and autonomy, tracing the historical trajectory from mechanization to contemporary autonomous and agentic systems, and synthesising the frameworks used to characterise intermediate degrees of machine independence. We argue that the shift from automation to autonomy is not merely a matter of degree but a qualitative transition: automation follows fixed rules within bounded, predictable environments, whereas autonomy entails adaptive, goal-directed behaviour in open, uncertain ones, made possible by advances in sensing, computation, machine learning, and control. Drawing on established models—including the levels-of-automation taxonomies of Sheridan and Verplank and of Parasuraman, Sheridan, and Wickens, and the widely adopted six-level SAE J3016 standard—we present a generalised levels-of-autonomy framework and a structured comparison of automation and autonomy across dimensions of adaptability, decision scope, uncertainty handling, learning, and human involvement, illustrated through figures and tables. We then examine the enabling technologies and the domains in which the transition is most advanced, from self-driving vehicles and smart manufacturing to autonomous laboratories and software agents, before analysing the challenges that accompany increasing autonomy: trust and verification, accountability and liability, safety and predictability, human–autonomy teaming, and the persistent gap between the rhetoric and the reality of “full” autonomy. We conclude that the foreseeable future is not one of wholesale human replacement but of calibrated human–autonomy collaboration, and that the central challenge is designing systems whose autonomy is matched by trustworthiness, transparency, and appropriate human oversight.
References
Barua, S. (2023). Hybrid Electro-membrane Reactors for Decentralized Removal of Forever
Chemicals From Industrial Wastewater. SAMRIDDHI: A Journal of Physical Sciences, Engineering
and Technology, 15(04), 461-468.
Satish Kumar Nalluri, Venkata Krishna Bharadwaj Parasaram & Varun Teja Bathini, “Machine
Learning-Based Management Models for Scalable and Resilient Industrial Platforms”, International
Journal of Engineering Research and Modern Education, Volume 1, Issue 1, Page Number 760-785,
2016. https://doi.org/10.5281/zenodo.19634396
Manne, V. T. (2023). Privacy-Preserving Chargeback Intelligence for Tokenized Payment
Systems. Journal of Computer Science and Technology Studies, 5(2), 54-65.
MARASANI, Y. (2024). Enterprise Readiness for Generative AI: The Critical Role of Data
Engineering. Frontiers in Computer Science and Artificial Intelligence, 3(2), 59-71.
Satish Kumar Nalluri, Venkata Krishna Bharadwaj Parasaram, Varun Teja Bathini. (2020). Secure
Automation Frameworks for Smart Manufacturing Using Blockchain-Assisted
Traceability. International Journal of Research & Technology, 8(2), 47–53. Retrieved from
https://ijrt.org/j/article/view/879
Venkata, S. B. (2022). Risk-aware rework prevention in personalized hearing aid
manufacturing. Journal of Computer Science and Technology Studies, 4(2), 215-230.
Parasa, M. (2023). A structured recruitment analytics framework for candidate screening and talent
pool utilization in SAP SuccessFactors Recruiting. Global Journal of Engineering and Technology,
2(11), 29–39.
MARASANI, Y. (2023). Machine Learning Models for Predicting Patient Treatment Switching Using
Claims Data. Frontiers in Computer Science and Artificial Intelligence, 2(1), 59-66.
Parasa, M. (2023). Measuring skill graph drift in SAP SuccessFactors Talent Intelligence Hub for
career mobility, workforce reskilling, and skills-based talent governance. Advanced International
Journal of Multidisciplinary Research, 1(1), 1–27. https://doi.org/10.62127/aijmr.2023.v01i01.1359
9
International Journal of Science, Technology and Society | Vol. 8, No. 1, 2024
Parasa, M. (2022). Addressing the underutilization of exit interview data: A structured AI-assisted
framework for actionable workforce insights in SAP SuccessFactors. Global Scientific and Academic
Research Journal of Multidisciplinary Studies, 1(6), 42–52. https://gsarpublishers.com/abstract-2326/
Barua, S. (2024). Reactive Soil Mixes for Enhanced PFAS Adsorption in Stormwater Infiltration
Basins: Mechanisms and Field Assessment. SAMRIDDHI: A Journal of Physical Sciences,
Engineering and Technology, 16(01), 60-66.
Satish Kumar Nalluri, Venkata Krishna Bharadwaj Parasaram & Varun Teja Bathini, “Strategic AI-
Enhanced Management Models for Adaptive Enterprise Automation and Digital Transformation”,
International Journal of Computational Research and Development, Volume 3, Issue 1, Page Number
216-234, 2018.