A review on multifunctional applications of nanoparticles: Analyzing their multi-physical properties

Md. Abdullah , Mohammad Obayedullah , Md. Shariful Islam Shuvo , Md. Abul Khair , Delowar Hossain , Md. Nahidul Islam
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Abstract

Nanoparticles display distinctive physicochemical characteristics, facilitating progress across various domains, including biomedicine, energy, the environment, and electronics. Their synthesis via bottom-up, top-down, and hybrid methods enables precise control over size, shape, and surface functionality. Techniques like TEM, SEM, DLS, and XRD offer essential insights into the structural and functional attributes. The diverse characteristics of nanoparticles mechanical, thermal, electrical, and optical are crucial for a wide array of applications, including drug delivery, imaging, energy storage, and environmental remediation. Nonetheless, obstacles related to scalability, toxicity, and stability impede their wider implementation. The ongoing investigation emphasizes the incorporation of eco-friendly synthesizer techniques and composite nanomaterials to improve performance while tackling environmental and health issues. Despite notable advancements, a substantial gap remains in the scalable production of multifunctional nanoparticles that maintain consistent quality while minimizing environmental impacts. Moreover, the absence of thorough regulatory frameworks for toxicity and safety assessment restricts their clinical and industrial uses. This study presents a unique approach by investigating hybrid synthesis techniques that integrate organic and inorganic elements, resulting in improved stability, specific functionality, and reduced negative effects. Furthermore, progress in real-time characterization and nanoscale modeling aims to accurately predict and manage aggregation and interaction dynamics. Future investigations should focus on enhancing eco-friendly synthesis methods and sophisticated characterization techniques to address issues related to reproducibility and scalability. By tackling regulatory and ethical challenges through the establishment of global standards, we can enhance the secure incorporation of nanoparticles into essential applications, promoting sustainable development throughout various sectors.

Abstract Image

纳米颗粒多功能应用综述:多物理性质分析
纳米粒子显示出独特的物理化学特性,促进了包括生物医学、能源、环境和电子在内的各个领域的进步。它们通过自下而上、自上而下和混合方法合成,可以精确控制尺寸、形状和表面功能。TEM, SEM, DLS和XRD等技术提供了对结构和功能属性的基本见解。纳米粒子的力学、热学、电学和光学的不同特性对于广泛的应用至关重要,包括药物输送、成像、能量储存和环境修复。然而,与可伸缩性、毒性和稳定性相关的障碍阻碍了它们的更广泛实现。正在进行的研究强调将生态友好型合成技术和复合纳米材料结合起来,以提高性能,同时解决环境和健康问题。尽管取得了显著的进步,但在多功能纳米颗粒的规模化生产方面仍然存在很大的差距,这些纳米颗粒既要保持一致的质量,又要尽量减少对环境的影响。此外,缺乏全面的毒性和安全性评估监管框架限制了它们的临床和工业用途。本研究提出了一种独特的方法,通过研究结合有机和无机元素的混合合成技术,提高了稳定性,特定功能,减少了负面影响。此外,实时表征和纳米尺度建模的进展旨在准确预测和管理聚集和相互作用动力学。未来的研究应侧重于加强生态友好的合成方法和复杂的表征技术,以解决与可重复性和可扩展性相关的问题。通过建立全球标准来应对监管和道德方面的挑战,我们可以加强将纳米颗粒安全地纳入基本应用,促进各个部门的可持续发展。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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CiteScore
2.70
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