Abstract

In the present research, silver nanoparticles were synthesized using ground nutshell and characterized using UV-visible, FTIR and PXRD. The SEM and HR-TEM aided in confirming the nano size, surface morphology and phase purity of the AgNPs. The quantum chemical, electrochemical, and structural studies were carried out to understand electrochemical properties. In addition, biological study such as anti-cancerous activity was carried out, and IC-50 values 80.25 µg/mL for A549 lung cancer cell lines. The effective electrochemical anti-corrosion activities were also studied. The majority constituents of ground nutshell are flavonoids, in a small quantity of alkaloids and phenolic acids, which provide more stability to synthesize silver nanoparticles and avoid agglomeration. These functional moieties enhance the unique properties in the field, as in drug delivery systems, magnetic applications, and metallic, semi-conducting core-shell nanoparticles.

Highlights

  • Nanoscience and technology have developed rapidly all over the world, largely by adopting the quality, advancement, and efficiency of nanoparticles [1,2]

  • The phytochemicals, the biologically active ingredients found in the extract of the plant, help in the reduction and stabilization of metal nanoparticles

  • Recent research has shown that different parts of plant species could successfully achieve silver nanoparticle synthesis by using fruit peels, plant barks, and nutshells

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Summary

Introduction

Nanoscience and technology have developed rapidly all over the world, largely by adopting the quality, advancement, and efficiency of nanoparticles [1,2]. Recent research has shown that different parts of plant species could successfully achieve silver nanoparticle synthesis by using fruit peels, plant barks, and nutshells. We treat it as waste and include various plants aspects, such as roots, flowers, seeds, barks, roots, and pulps. The wet chemical process, very helpful in the synthesis of large-scale nanoparticles, can be utilized in applications to reduce pollution by adsorbing poisonous gases from the atmosphere and acting as a green inhibitor for metal corrosions in acidic and basic media, and in therapeutic applications, corrosion, and in cytotoxicity studies [33,34,35]. Aobf oAugtN5 PmsgwoefrAegoNbtPasinweedrepoebr t5a0ingemd poefrg5r0ogumndonf ugrtsohuenldl mnuattsehriealll.mTaoteurniadle. rTsotaunnddtehrsetaenasde tohfesetarusectoufrset,rmucotruprhe,omloogrypahnodlopgryoapnedrtipersoopfesrytinesthoefssizyendthseilsvizeerdnsainlvoepranrtaincloepsawrteicrelecshwarearec‐ ctherairzaecdteermizpedloyeminpglUoyVi‐nVgisUibVle-V, FisTibIRle,,SFETMIRa,nSdETMEMandmeTtEhModms. eFtuhrothdesr., Fthuorstheearr,ethinotseercaorne‐ innetecrtceodnwneitchteadpwpliitchataiponpslicinatcioonrrsoisniocnorsrtousdioienss[t3u8d,3ie9s] a[3n8d,3a9n]taicnadnacenrtiaccatnivceitrieasct[i3v0i]t.ies [30]

Characterization Methods
Phytochemical Screening
Computational—Chemical Approach
B1: B1: C2CCC7233H700HHH30322O066OOO11161622
Characterization of GNS‐AgNPs
AC Impedance Spectroscopy Technique
Full Text
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