Exploring the future of engineering, artificial intelligence, occupational safety, sustainability and advanced manufacturing.
My independent research brings together mechanical engineering, additive manufacturing, artificial intelligence, occupational health and safety, environmental sustainability and regional development.
Drawing on my engineering background, academic research and industry experience, I critically examine emerging technologies, their practical applications and the challenges associated with their responsible adoption.
My work reflects a commitment to evidence-based research, technical innovation and the development of solutions that support safer workplaces, sustainable industries and stronger communities.
Applications, Risk Implications, and Future Directions
Latest Research | Critical Integrative Review
This research critically examines how artificial intelligence and automation are transforming occupational safety and environmental management across industries.
The review explores predictive analytics, computer vision, intelligent monitoring, robotics, autonomous systems and environmental sensing. It evaluates both the potential benefits and emerging challenges, including automation bias, worker surveillance, cybersecurity, human oversight and environmental impacts.
A central contribution is the Integrated AI-OHSEM Net Impact Framework, developed to support the responsible assessment and adoption of AI technologies by considering evidence credibility, risk reduction, newly created risks and wider organisational consequences.
The research highlights the importance of demonstrating measurable improvements in workplace safety and environmental outcomes rather than relying solely on technological performance.
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A Structured Critical Review of Life Cycle Evidence, Industrial Trade-Offs and Circular Economy Potential
Research Review | 2026
This paper critically evaluates the environmental sustainability of additive manufacturing across multiple technologies, materials and industrial applications.
Drawing on life cycle assessment research, it examines energy consumption, material efficiency, manufacturing emissions, post-processing, recycling and circular-economy opportunities.
The analysis challenges the assumption that additive manufacturing is inherently environmentally sustainable, demonstrating that its benefits depend on process selection, energy sources, manufacturing volumes, material systems and product lifecycle considerations.
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Technological Potential, Environmental Implications and Policy Pathways
Independent Research | Regional Development
This publication explores the potential of additive manufacturing to strengthen local production, technical education, entrepreneurship and industrial resilience in remote African regions and small-island communities.
It examines how decentralised manufacturing may reduce dependence on imported components, support local innovation and create opportunities for workforce development.
The research also considers infrastructure constraints, energy requirements, environmental impacts and policy considerations necessary for responsible technology adoption.
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Life-Cycle Insights, Hotspots and Pathways to Sustainability
Research Review | 2025
This research examines the environmental performance of fossil-based, bio-based and recycled materials used in fused deposition modelling (FDM).
It evaluates electricity consumption, material selection, failed prints, production waste and end-of-life management to identify major environmental impact areas.
The paper highlights opportunities for improving sustainability through energy optimisation, responsible material selection, waste reduction and circular manufacturing practices.
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Contemporary Risks, Controls and Practical Standards for Industry and Education
Independent Research Publication | 2025
This paper investigates occupational health and safety hazards associated with polymer, resin and metal additive-manufacturing technologies.
It examines airborne particles, chemical exposure, combustible dust, fire hazards, ventilation, equipment enclosure and safe operating practices.
Drawing upon established international safety guidance and standards, the research discusses practical risk controls relevant to manufacturing facilities, educational institutions and technical training environments.
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My continuing research interests include:
Artificial intelligence, automation and emerging technologies in occupational safety
Engineering risk, human factors and responsible technology adoption
Environmental sustainability and life cycle assessment
Additive manufacturing and advanced production technologies
Occupational health and safety in manufacturing and educational environments
Decentralised manufacturing, regional development and technical education
I believe meaningful research should do more than contribute to academic discussion. It should challenge assumptions, encourage critical thinking and provide knowledge that can be translated into practical decisions.
My research is guided by the belief that technological progress must be evaluated not only by what it makes possible, but also by how safely, responsibly and sustainably it improves the world around us.
My independent research papers, article summaries and available full-text publications can be accessed through Academia.edu.
Adam Alan Yanick Barry
Independent Researcher | Mechanical Engineering | Additive Manufacturing | Occupational Safety | Environmental Sustainability
Visit My Academia.edu Research Profile