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Heterogeneous Catalysis in Industrial Applications: A Review
Abstract
In many industrial processes, heterogeneous catalysis is essential because it improves reaction speeds and selectivity and makes catalyst recovery and reuse possible. This review explores the fundamental principles and diverse applications of heterogeneous catalysis in industry, with a focus on its economic and environmental benefits. We examine the structure and function of various catalysts, including metals, oxides, and zeolites, and their application in key industrial processes such as petrochemical refining, environmental catalysis, and renewable energy production. Advances in catalyst design, such as nanostructuring and support materials, are highlighted for their impact on improving catalytic efficiency and lifespan. Additionally, the review addresses the challenges associated with catalyst deactivation and regeneration, emphasizing the importance of ongoing research in developing more robust and sustainable catalytic systems. Through case studies and recent developments, we illustrate the transformative impact of heterogeneous catalysis on industrial practices and its potential to drive future innovations in chemical manufacturing. Key industrial applications such as petrochemical processing, environmental catalysis, and renewable energy production are examined. Advances in catalyst development, including nanostructured materials, zeolites, and metal-organic frameworks (MOFs), are highlighted. Challenges such as catalyst deactivation, regeneration, and scalability are also addressed. The review underscores the significance of heterogeneous catalysis in achieving sustainable industrial practices and explores future directions for research and development in this field.. This review seeks to offer useful insights for academics, engineers, and policymakers involved in the development and improvement of catalytic processes by merging recent breakthroughs and industrial trends.
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