Abstract

Abstract
The extraordinary class of materials known as nanomaterials has come into being. A large variety of
elements with minimum one dimension between 1 and 100 nm are included. Reasonably designed
nanomaterials can have exceptionally large surface areas. Outstanding magnetic, electrical, optical,
mechanical, and catalytic capabilities that differ significantly from their bulk counterparts can be
created in nanomaterials. To achieve the necessary features tuning, nanomaterials’ size, shape,
synthesis conditions, and proper functionalisation can all be precisely controlled. One technique for
creating several types of nanoparticles is laser ablation. These include core shell nanoparticles,
semiconductor quantum dots, carbon nanotubes, and nanowires. Using this technique, species that have
been laser-vaporized in a background gas nucleate and proliferate to form nanoparticles. By rapidly
quenching vapour, high purity nanoparticles across the quantum size range (<10 nm) can be produced.
This study reports the laser ablation method’s benefits, including precise material removal, minimal
heat damage, and applicability across various fields, highlight its potential as a key tool in nanoparticle
synthesis and material processing.

Keyword: Laser ablation method, benefits, nanoparticle synthesis, material processing

Full Text PDF

Refrences:

1. Kim M, Saho Osone Kim T, Higashi H, Seto T. Synthesis of Nanoparticles by Laser Ablation: A
   Review. Kona Powder and Particle Journal (Kona). 2017; 34(0): 80–90. https://doi.org/10.14356/
   kona.2017009
2. Sharma R, Bisen DP, Shukla U, Sharma BG. X-ray diffraction: a powerful method of characterizing
   nanomaterials. Recent Res Sci Technol. 2012; 4(8): 77–79.
3. Alagarasi A. Chapter-introduction to nanomaterials. India: Indian Institute of Technology Madras;
   2013; 1–24.
4. Siegel RW, Hu E, Cox DM, Goronkin H, Jelinski L, Koch CC, et al., editors. Nanostructure Science
   and Technology: R & D Status and Trends in Nanoparticles, Nanostructured Materials and
   Nanodevices. Dordrecht: Springer; 1999. DOI: 10.1007/978-94-015-9185-0.
5. McDowell MT, Xiong H, Nazemi M, Peng J, Lutkenhaus JL, Wang R, Gogotsi Y, et al.
   Nanomaterials in the future of energy research. Cell Rep Phys Sci. 2023; 4(11): 101605.
6. Yadav DA. Synthesis of nanomaterials by physical and chemical methods. Int Educ Res J. 2017;
   3(6): 350–352.
7. Khan FA. Synthesis of nanomaterials: methods & technology. Applications of nanomaterials in
   human health. Singapore: Springer; 2020; 15–21.
8. Baig N, Irshad Kammakakam, Wail Falath. Nanomaterials: a review of synthesis methods,
   properties, recent progress, and challenges. Mater Adv. 2021; 2(6): 1821–1871. https://doi.org/10.
   1039/d0ma00807a
9. Shukla U. Carbon nanotubes: potentially revolutionary impact of nanomaterials. J Nanosci Res Rep.
   2023; 149(5): 2–7.
10. Laser Scientist. (2023 Dec 5). Laser Ablation: Process, Applications, and Benefits. [Online].
    Retrieved from: https://laserscientist.com/laser-ablation/#:~:text=Laser%20ablation%20offers%20
    benefits%20like%20precis%20material%20removal%2C,a%20cost-effective%20and%20efficient
    %20technique%20for%20material%20processing
11. Shukla Sr U, Srivastava Sr G. Influence of the Temperature on the Photoluminescence Intensity of
    the CdS: Cu Nanophosphors. Int J Multidiscip Consort. 2014; 1(1): 1–4.
12. Rai A, Shukla U. Nanowire Photodetectors and Applications: A Review Study. J Semicond Devices
    Circuits. 2023; 10(2): 15–19.
13. Shukla U. Optical Properties of Bulk ZnS: Mn and ZnS: Mn Nanoparticles. J Pure Appl Ind Phys.
    2012; 2(3A): 286–402.