Abstract

The world is rapidly changing, the resources are getting depleted, and the demand for newer technologies and products is increasing. To keep up with these new advances, highly efficient catalytic routes need to be taken to be sustainable and ensure a drawn-out existence of resources for future generations. Catalysis turns out to be a significantly important field of application when it comes to the era of nanoscience, where all devices and technologies are becoming smaller and smaller in size with improved properties. When deeming the usability of a catalyst, it is of paramount importance to have a good understanding of their properties and their synergistic effect on the other reagents in the reaction. Over the last decade, the field of nanocatalysis has grown rapidly, both in homogeneous and heterogeneous catalysis. Given that nanoparticles have a high surface-to-volume ratio when compared to bulk materials, they are appealing as catalysts. Catalysts accelerate and boost thousands of different chemical reactions on a daily basis, forming the foundation of the multibillion-dollar chemical industry worldwide, a pathway leading to green chemistry, and a novel, yet crucial, environmental protection technology. As a result, in this review, the use of nanocatalysts and the application of their special features in the renewable energy, hydrocarbon processing, and fine chemical synthesis sector was explored. A detailed explanation of the working mechanism of these nanocatalysts, starting from how they are synthesized to the effect of modification of their surface, has been put together. We have tried to collect all the current progresses in these three sectors to the best of our abilities. Furthermore, it is anticipated that this paper would be useful for future researchers and academicians wishing to contribute toward this subject of interest.

Highlights

  • Catalysis and sustainability are two terms that can be related to each other in quite a significant way

  • A diverse range of nanomaterials are available, and the possibility of its application in fine chemical synthesis is limitless. e constantly increasing demands caused by modernisation puts a heavy pressure on the fine chemical synthesis industry to come up with products. e synthesis of these products must be very efficient with minimum wastage because most of the raw materials available on the planet are nonrenewable

  • Homogeneous catalysts are predominant in the production of fine chemicals because of their good enantioselective property and high turnover frequency. ey have a greater molecular interaction with the reactants since they are in the same phase as them, resulting in good catalytic performance

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Summary

Introduction

Catalysis and sustainability are two terms that can be related to each other in quite a significant way. Catalysis acts as the one supporting the chemical industry in achieving different kinds of sustainability. A number of instances show instead that novel innovation results from the development of catalysis in the chemical sector which worked toward fulfilling the sustainable development goals. Having well-established processes and production lines is important, and many industries which work with hydrocarbons are dependent on them. Appropriate catalysts ensure this and provide us with efficient conversion rates. In the hydrocarbon section of this review article, we will be looking at the various catalysts and nanocatalysts currently in use and being researched upon, their performances in experiments, the conditions in which they work well, and the output they produce. A comparison between the different catalytic reactions used has been drawn

Understanding Catalysis
Catalysis in Fine Chemical Synthesis
Catalysis in Hydrocarbon Processing
Catalysis in Renewable Energy
Nanomaterials in Catalysis
Nanomaterials as Catalyst in Hydrocarbon Processing
Nanomaterials as Catalyst in Renewable Energy
19 Finely distributed Ag NPs Cyclic carbonates
Results and Discussion
Nanocatalysts in Hydrocarbon Processing
Summary
Conclusion and Future Directions
Full Text
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