Introduction
Thinking about the commonness of different diseases, infections brought about by any type of microorganism ought not to be messed with; they can go through fundamental changes and cause serious medical problems. Antimicrobial resistance is quickly becoming one of the most severe medical problems of current day 1-3. Even after significant advancements in antimicrobial therapy, infectious diseases triggered by microorganisms remain a major public health issue owing to the rise of susceptibility to currently accessible antibacterial medications 4. Bacterial resistance to a wide variety of antimicrobial drugs is becoming a leading health concern 5, 6. Antibiotics are substances that are used to destroy bacteria that can Bacterial resistance to a wide variety of antimicrobial drugs is becoming a leading health concern 5, 6. Antibiotics are substances that are used to destroy bacteria that can cause life-threatening conditions 7, 8. In light of these pressing concerns of modern time, it is critical to establish new antimicrobial agents that are more selective and reliable in their antimicrobial potential 9, 10.
Numerous antimicrobial agents are targeted and developed in order to tackle the problem of antimicrobial resistance11-13. Organic chemists are targeting the synthesis of variety of potent heterocyclic compounds and are also successful in developing new antimicrobial agents 14-20. However, research from last ten years has proved that the AgNPsare proved as potent antimicrobial agents 21-25. From ancient times, it has been established that silver is a very good medicinal elements. From this perspective researchers have adopted many bio strategies based on plants to develop more powerful antibacterial AgNPs 26, 27. To their credit, AgNPsare synthesized by various green approaches with good efficacy in the antibacterial action29, 29. Through use of silver as an anticancer and antibacterial agents has developed exponentially 30, 31. It has been proved that various plants contain organic compounds that are capable of producing AgNPs from silver salts 32, 33. Plant extracts such as stem, root, nuts, bark, and marine bioresources are among the numerous green resources used for the synthesis of AgNP’s. The extracts obtained from plants are found to be the best alternative for the synthesis of AgNP’s due to their easy accessibility, nontoxic quality, and inclusion of exceptional bioactive compounds with high therapeutic attributes.Plants are being used in the synthesis of AgNPs, and particles of various shapes and sizes have indeed been produced.Given the significance of the above reasons, this review article focuses on antibacterial applications of biosynthesized AgNPsthat have been studied over the last decade. The antimicrobial ability of AgNPs against a wide spectrum of bacteria is addressed.
Biosynthesis and Antibacterial Properties of AgNPs
The therapeutic potential of AgNPs in treating diseases is promising in the realm of bio-Nano medicine. AgNPs are candidates for ground-breaking applications in the biomedical industry as antibacterial, antifungal, antioxidant, and anticancer agents due to their small stature, large surface area, and chemical characteristics, and these applications are well established. The traditional chemical methods were used to generate nanoparticles, however, this methodologies are connected with dangerous materials that are unsafe.
Plant-mediated biosynthesis of nanoparticles, on the other hand, is growing rapidly owing to its low toxicity, resource efficiency, eco-friendliness, and quickness.Plants based natural sources include bioactive compounds such as flavonoids, proteins, polysaccharides, polyphenols, terpenoids, tannins, alkaloids, ketones, aldehydes, amines, etc., which function as reducing, bolstering, and capping agents in the transformation of metal ions to metal nanoparticles, resulting in the generation of desirable nanoparticles with preconfigured characteristics.Among the several biosynthesized metal nanoparticles, AgNPs were selected as the favourites in the realm of antibacterial applications. In the following sections, we’ll go over some of the best instances from 2015 to 2020.
Year 2015
The selected examples (year 2015) of antibacterial applications of biosynthesize AgNPs is given in Table 1. Saravana kumaret al.34 reported, the biosynthesis of AgNPs using Cassia tora leaf extract. This is an easy, cost-effective, fast, and environmentally friendly way to make AgNPs that can be accomplished in a short while. Furthermore, this process could be used at room temperature. This method yielded spherical AgNPs with well-defined characteristics which were uniformly polydispersed with face centered cubic geometry.Importantly, no capping agent was used in the AgNP synthesis. Gram positive (S. aureus, B.subtilis) and Gram negative (E. coli, P. aeruginosa) bacteria were tested for antibacterial activity. Gram negative bacteria were shown to have a larger inhibitory effect than Gram positive bacteria in their research. Miri et al. 35 used Prosopis fracta leaves extract to demonstrate a green, simple, and single-pot process for the biosynthesis of antibacterial AgNPs.This method is fast, reliable, and environmentally friendly, and it can be used to make all sorts of metal nanoparticles from a wide range of extracts. The obtained AgNPs had a spherical form, with a mean diameter of about 8.5-11 nm, according to spectral analysis.These findings show that organic biomolecules in Prosopisfracta extract showing reducing as well as capping nature.The antimicrobial action of Ag- NPs was tested against S.aureus, B.subtilis, and E.coli, P.aeruginosa. Antibacterial activity was comparable to that of the control group. According to Kokila et al. 36, AgNPs were produced via the direct interaction of silver nitrate with Cavendish banana peel extract in aqueous media, without the use of any external reagents. As a result, this reaction pathway satisfies all of the requirements for a completely environmentally friendly chemical process. The antibacterial effect of synthesized AgNPsdisplayed high antimicrobial activity against S.aureus, B. subtilis, K.pneumonia and E.coli.
Table 1: Selected examples of antibacterial applications of biosynthesize AgNPs (Year 2015) .
|
Year
|
Biogenic resource
|
Antibacterial activity against
|
Ref.
|
|
2015
|
Cassia tora leaf extract
|
S. aureus, B. subtilis, E. coli, P. aeruginosa
|
34
|
|
2015
|
Prosopisfracta leaves extract
|
S. aureus, B. subtilis, E. coli, P. aeruginosa
|
35
|
|
2015
|
Cavendish banana peel extract
|
S. aureus, B. subtilis, K. pneumonia, E.coli.
|
36
|
|
2015
|
Ethanolic extract of Rosa indica petals
|
E. coli, K. pneumonia, S.mutans, E. faecalis
|
37
|
|
2015
|
Psidiumguajava leaf extract
|
P. aeruginosa
|
38
|
Manikandan et al. 37 made AgNPs (AgNPs) using Rosa indica petals’ ethanol extract and tested them against human pathogenic bacteria. AgNPs were round in shape and spaced widely apart when they were produced. The size of AgNPs was determined as 23.52 and 60.83 nm. The defined AgNPs demonstrated a more effective antibacterial property. The presented AgNPs showed a more compelling antibacterial effect against E. coli, K. pneumonia, S. mutans, E. faecalis. Bose et al. [38] reported a very quick, efficient, cost-effective, and environmentally friendly approach for AgNP biosynthesis using leaf extract of Psidiumguajava that showed capping as well as reducing behaviour. Because of its well-known therapeutic benefits and the fact that it is freely available throughout the year and in all seasons, this plant was chosen for this study. They usedUV–vis and TEM experiments to confirm teAgNPs. The AgNPs’ size was obtained in the 10–90 nm range. According to TEM results, the AgNPs were in spherical form. Green manufactured nanoparticles rendered from guava leaf extract can effectively suppress bacteria, according to their research.
Year 2016
The selected examples (year 2016) of antibacterial applications of biosynthesize AgNPs is given in Table 2. Allafchianet al. [39]performed the synthesis of AgNPsusing extract of Phlomis plant as an innovative approach.The crystalline structural characterization of AgNPs was identified using the XRD process. The XRD predicted a particle size of 25 nm. Bacterial strains like S. aureus, B. cereus, S. typhimurium and E. coli were examined for evaluating the antibacterial potential of AgNPs. The antimicrobial activity of the biosynthesized nanoparticles was impressive.Benakashaniet al. [40] examined Capparisspinosa leaves as reducing extract for the synthesis of AgNPs. Using C. spinosa extract, AgNPswere successfully synthesised, and the nature of the synthesised nanoparticles was investigated using various analytical techniques. Bacterial strains like E. coli, S.typhimurium, S.aureus, and B. cereus, were used to assess the antibacterial effects of NPs provided by C. spinosa. In comparison to ionic silver, the synthesised AgNPs displayed excellent antibacterial and antimicrobial activity based on disc diffusion performance. Ananda lakshmi et al. 41 have reported the synthesis of AgNPs using Pedalium murex leaf extracts with dual functions, as well as antimicrobial effects of synthesised AgNPs against Escherichia coli, Klebsiellapneumoniae, Micrococcus flavus, Pseudomonas aeruginosa, Bacillus subtilis, Bacillus pumilus, and Staphylococcus aureus. The particle size ranged from 20 to 50 nanometers, and the crystal structure was fcc. The biosynthesized AgNPs’ antibacterial activity was found to be effective. The process is safe for the environment and presents no danger to it.
Table 2: Selected examples of antibacterial applications of biosynthesize AgNPs (Year 2016).
|
Year
|
Biogenic resource
|
Antibacterial activity against
|
Ref.
|
|
2016
|
Phlomis plant extract
|
S. aureus, B. cereus, S. typhimurium, E. coli
|
39
|
|
2016
|
Capparisspinosa leaves extract
|
E. coli, S. aureus, S. typhimurium, B. cereus,
|
40
|
|
2016
|
Pedalium murex leaf extract
|
E. coli, M.flavus, K. pneumoniae B.subtilis, B.pumilus, , P. aeruginosa,S.aureus
|
41
|
|
2016
|
Tamarixgallica plant extract
|
E. coli
|
42
|
|
2016
|
Thevetiaperuviana leaf extract
|
E. coli, P. aeruginosa, K. pneumonia, S.aureus, S. typhi,B. subtilis,
|
43
|
J.L. López-Miranda and colleagues [42] developed fast-biosynthesized AgNPs with diameters ranging from 5 to 40 nm using plant extract of Tamarixgallica. The AgNPs, which were synthesized by reducing the silver ions using plant extract of Tamarixgallica. The biosynthesis of spherical AgNPshas a high rate of bio-reduction, with a reaction time of less than 5 minutes. The synthesized AgNPs were shown the antibacterial potential against E. coli.bacterial strain.O.O. Oluwaniyi et al. [43] used the aqueous leaf extract of Thevetiaperuviana to study AgNP biosynthesis. The AgNPs were confirmed using XRD, SEM and TEM. The AgNPs are spherical in form and have an average diameter of 18.1 nm. TheAgNPs developed were effective in suppressing themicrobial infections. In the antimicrobial analysis, the zone of inhibition was between 10 and 20 mm
Year 2017
The selected examples (year 2017) of antibacterial applications of biosynthesize AgNPs is given in Table 3. The AgNPs were produced utilising a new eco-friendly synthesis approach that utilised Mangiferaindica leaves and were tested for antibacterial activity by D. Sundeep and co-workers 44. According to the XRD peaks, the crystalline size of the bio-synthesized AgNPswas 32.4 nm. The antibacterial efficiency of the bio-source synthesised AgNPs was studied on E.coli and S.aureus, and the results explored that the AgNPs had potential antibacterial activity.S. Raja and colleagues [45] revealed that Calliandra haematocephala leaf extract was used to successfully synthesise AgNPs. XRD was used to determine the crystalline nature and purity of AgNPs, revealing the presence of (111) and (220) lattice planes in the fcc structure of metallic silver. The antibacterial study against pathogenic E. coli bacteria yielded encouraging findings. J. Du and colleagues 46 reported on the production of AgNPs and their antibacterial activity using a soil-isolated bacterial strain, Novosphingobium sp. THG-C3. The synthesised AgNPs were shown spherical shape with the particle size from 8 to 25 nm. The XRD pattern revealed planes (111), (200), (220), (230)and (311). S.aureus, P.aeruginosa, C. tropicalis, E. coli, C.albicans, V. parahaemolyticus, S.enterica, B.cereus and B.subtiliswere among the pathogens that the synthesised AgNPs were found to be effective.When combined with conventional antibiotics, the AgNPs increased antibacterial action against S. enterica,P. aeruginosa, V. parahaemolyticus and E coli. The Novosphingobium sp. THG-C3 strain produces AgNPs that are very basic, green, and cost-effective, and could be employed as an antibacterial agent.
Table 3: Selected examples of antibacterial applications of biosynthesize AgNPs (Year 2017).
|
Year
|
Biogenic resource
|
Antibacterial activity against
|
Ref.
|
|
2017
|
Mangiferaindica leaves leavesextract
|
E. coli, S. aureus
|
44
|
|
2017
|
Calliandrahaematocephala leaf extract
|
E. coli
|
45
|
|
2017
|
Novosphingobium sp. THG-C3
|
S. enterica, B.subtilis, B.cereus
|
46
|
|
2017
|
Artemisia vulgaris leaves extract
|
E. coli, S. aureus
|
47
|
|
2017
|
Melissa officinalis
|
E. coli, S. aureus
|
48
|
T. Rasheed et al. [47] investigated into the reducing ability of Artemisia vulgaris leaves extract (AVLE) to synthesise AgNPs. The presence of a dark brown colour meant the nanoparticles had accomplished their synthesis.The green synthesised nanoparticles demonstrated strong antibacterial efficacy against harmful bacteria as compared to AVLE alone. In vitro antioxidant studies, AgNPs (AV-AgNPs) demonstrated good antioxidant capabilities.Furthermore, the nanoparticles were highly cytotoxic to the HeLa and MCF-7 cell lines. In the study of de Jess Ruz-Baltazar and research group [48], Melissa officinal is performed the role of reducing agent for the bio-reduction of of silver ions in the green synthesis path. AgNPs have been shown to have antibacterial action against E coli and S. aureus.Melissa officinalis was found to be capable of producing AgNPs with regulated properties and good inhibition of the bacteria used.
Year 2018
The selected examples (year 2018) of antibacterial applications of biosynthesize AgNPs is given in Table 4. M.P. Patil et al. [49] have devised a facile and environmentally friendly one-step synthesis of AgNPs employing Madhucalongifolia flower extract as a stabilising and reducing species. With a scale of 30–50 nm, the AgNPs were spherical and oval in shape. The presence of a brown colour in the reaction mixture is a main sign of AgNP production confirmed by a peak at 436 nm. The synthesised AgNPs were shown good potential E. coli, S. saprophyticus, B. cereus, S. typhimurium. The flower of M. longifolia was found as good source of AgNPs, which can be used as an antibacterial agent in therapeutics.Silver nitrate and methanolic root extract of Rhazyastricta, a member of the Apocynaceae family, were employed to synthesis AgNPs by A. Shehzad and colleagues [50]. The addition of xylitol to nanoparticles made them more stable and diffused. Aside from that, the plant extract and nanoparticles were tested for their antimicrobial properties againstE. coliandB subtilis.The synthesised AgNPs had a diameter of 20 nm and a spherical form.
Table 4: Selected examples of antibacterial applications of biosynthesize AgNPs (Year 2018).
|
Year
|
Biogenic resource
|
Antibacterial activity against
|
Ref.
|
|
2018
|
Madhucalongifolia extract
|
B. cereus, S.
saprophyticus, E. coli, S. typhimurium
|
49
|
|
2018
|
Rhazyastricta root extract
|
B. subtilis,E. coli
|
50
|
|
2018
|
Gum kondagogu
|
S. aureus,P. aeruginosa, E. coli (25922), E. coli (35218)
|
51
|
|
2018
|
V. officinalis leaf extract
|
Y. ruckeri, L. monocytogenes, V. cholerae
|
52
|
|
2018
|
Rheum turkestanicum shoots extracts
|
S. aureus, B. subtilis, E. coli, P. aeruginosa
|
53
|
A.J. Kora et al. [51] have exploredthe antibacterial activity of AgNPsrendered from gum kondagogu (5 nm) against S. aureus, P. aeruginosa, E. coli bacterial species.To investigate the route of antibacterial action of AgNPs, a systematic exploration was done by this group of reseachersusing various susceptibility assays. In their investigation, the biogenic AgNPs were discovered to be more active antibacterial agents. The nanoparticles demonstrated strong anti-biofilm action against test strains at 2 g mL1, suggesting that they could be used to treat biofilm-related drug-resistant bacterial illnesses. Their discoveries checked the job of responsive oxygen species and layer harm in the antibacterial movement of silver nanoparticles. In light of their promising antibacterial activity, AgNPs could be used in a number of environmental and medicinal applications. N. Sanchooli and colleagues 52 acquired AgNPs were gotten by combining silver nitrate and V. officinalis leaf separate. To characterise the synthesised AgNP, they used various analytical techniques. The anti-biogram and lowest inhibitory concentration of the nanoparticles produced were determined using agar well diffusion and broth micro dilution, respectively.V. officinal is AgNPs showed broad spectrum antibacterial action according to their findings. M.E.T. Yazdi et al.53 published their findings on the manufacture of AgNPs from Rheum turkestanicum aqueous shoot extract at room temperature, as well as antibacterial activity against human pathogenic bacteria. Biosynthesized AgNPs were observed to have prevalent antibacterial action against human pathogenic pathogens. Based on their findings, this process can be used to make large-scale preparations of other noble metals for a variety of purposes.
Year 2019
The selected examples (year 2019) of antibacterial applications of biosynthesize AgNPs is given in Table 5. S.O. Aisida et al. [54] utilized a fluid concentrate of new leaf of Gongronema Latifolium (FLGL), a herbaceous blooming plant, as a fuel specialist in the biogenic union of AgNPs. Using varying AgNO3 concentrations and a set amount of FLGL, the characteristics of produced AgNPs were examined.Using solid agar plates enriched with varying doses of nano-sized AgNPs, antibacterial action of AgNPs was exhibited on E. coli and S. Aureas bacterial strains.According to the varied characterizations of AgNPs, the difference in AgNO3 concentration as well as the incubation duration had a vital influence in regulating particle sizes and dispersions. Their investigation of the XRD uncovered single-phase crystalline structures with diameters ranging from 9 to 31 nm. According to their SEM and TEM analysis, the produced AgNPs have a spherical shape with a bioactive chemical coating and 19 nm diameter for the greatest concentration. They discovered that the inhibiting region had a stronger bactericidal effectiveness than Ciprofloxacin against bacterial strains (the positive control).
Table 5: Selected examples of antibacterial applications of biosynthesize AgNPs (Year 2019).
|
Year
|
Biogenic resource
|
Antibacterial activity against
|
Ref.
|
|
2019
|
GongronemaLatifolium leaf extract
|
E.coli, S.aureus
|
54
|
|
2019
|
Parkiaspeciosa leaf extract
|
E.coli, S.aureus, P. aeruginosa, B. subtilis
|
55
|
|
2019
|
Combretumerythrophyllum leaves extract
|
S. aureus, S.epidermidis, E.coli P. vulgaris
|
56
|
V. Ravichandranet al. [55] reported theeco-friendly synthesis of AgNPsthat was accomplished using Parkiaspeciosa leaf aqueous concentrate for the bio-source-reduction of silver ions.To validate the synthesis of AgNPs, the researchers employed UV–Vis spectroscopy. The highest absorbance of the synthesised AgNPswas observed at 410.5 nm using spectrophotometry. The extent of leaf extract, pH, temperature, silver nitrate concentration, and time, had been all spectrophotometrically tuned.The average particle size of AgNPs was confirmed by SEM, TEM, and DLS analysis, and was determined to be 31 nm, 35 nm, and 155.3 d.nm,respectively. The antibacterial studies against S.aureus,E. coli, P. aeruginosa, and B.subtilis), were significant. The suggested approach for production of AgNPs utilising Parkiaspeciosa leaf extract is both environmentally benign and practical.O.T. Jemilugba and colleagues [56] have introduced interestingly a basic, green, savvy, and harmless to the ecosystem procedure for the production of AgNPsusing Combretum erythrophyllum plant leaves’ aqueous extract. UV–Vis, TEM, FT-IR), XRD, and DLS methods were used to characterise the Ag-NPs that were generated. The particles were round fit and equitably dispersed, as indicated by the TEM picture, with an particle size of 13.62 nm. S. aureus, S.epidermidis, E. coli and P. vulgaris pathogenic were used to check the antibacterial potential. The combined Ag-NPs were powerful against S. epidermidis and other Staphylococcus species involved in different dermatological diseases, rather than streptomycin, which was inadequate against S. epidermidis and other Staphylococcus species associated with other dermatological contaminations.
Year 2020
The selected examples (year 2019) of antibacterial applications of biosynthesize AgNPs is given in Table 6. M. Gomathiet al. [57] have reported green synthesis of AgNPs(Ag NPs) using aqueous reducing leaf extract of Gymnemasylvestre. The band at 442 nm in their UV–visible absorption studies obviously demonstrated the creation of Ag NPs in the aqueous medium. The XRD spectral studies revealed that the synthesised samples possessed fcc structure, and the EDX research additionally checked the presence of Ag metal NPs by the energy top at 3 keV. According to TEM analysis, most of the created Ag NPs were circular fit, with a size of 20 to 30 nm.The biomolecules involved in the reduction process in Gymnema sylvestre plant extracts were assessed using FT-IR. The integrated Ag NPs showed high antibacterial viability against S. aureus and E. coli in their examination.
Table 6: Selected examples of antibacterial applications of biosynthesize AgNPs (Year 2019).
|
Year
|
Biogenic resource
|
Antibacterial activity against
|
Ref.
|
|
2020
|
Gymnemasylvestre leaf extract
|
S.aureus, E.coli
|
57
|
|
2020
|
Muntingiacalabura leaf extract
|
E.coli, B. cereus
|
58
|
|
2020
|
Ziziphusjoazeiro leaf extract
|
S. aureus and E. coli.
|
59
|
|
2020
|
Menthaaquatica leaf extract
|
P. aeruginosa, E. coli, B. cereus, S. aureus,
|
60
|
M.A. Ahmad and his colleagues58 studied the environmentally friendly synthesis of AgNPs using Muntingiacalabura leaf extract as reducing and stabilising agents, as well as the antibacterial properties of the AgNPs generated. The generation of AgNPs was monitored using a UV-Vis spectrophotometer. The size and form of AgNPs were determined using TEM. The elemental analysis was interpreted using EDS. In a microbiological inhibition assay, muntingia leaf mediated AgNPs suppressed the development of Escherichia coli and Bacillus cereus, as shown by the existence of an inhibition region. The green synthesis of AgNPs as antibacterial agents was described by M.L. Guimares et al. [59]. They used Ziziphus joazeiro leaf extract as a green reaction medium for the production of AgNPs. At neutral pH, they obtained particles with a smaller size and a lower aggregation degree. S. aureus and E. coli were used to test the antibacterial activity.A. Nouri and colleagues [60] used Menthaaquatica leaf extract as a capping and reducing agent to synthesise ultra-small AgNPs utilising a green biogenic approach. Biosynthesized AgNPs were characterised using a variety of analytical techniques. Their findings showed that using ultrasound throughout the synthesis process can result in smaller AgNPs with improved antibacterial activity.
Conclusion
In summary, this review article addresses the antibacterial uses of biosynthesized AgNPs that were investigated between 2015 and 2020. AgNPs’ antibacterial potential against a wide variety of microorganisms is discussed. AgNPs appear to be frequently used as an antibacterial agent against E.coli and S. aureus bacterial strains, according to our study.This review will be beneficial in the development of antibacterial agents based on biosynthesized AgNPs.
Acknowledgement
The authors would like to acknowledge Department of Zoology and Department of Chemistry for providing necessary facilities to carry out the present review.
Conflict of Interest
Authors declare no conflict of interest.
Funding Source
No funding was received for work presented in this paper.
References
- Frieri, M., Kumar, K. and Boutin, A., 2017. Antibiotic resistance. Journal of infection and public health, 10(4), pp.369-378.
CrossRef - Yelin, I. and Kishony, R., 2018. Antibiotic resistance. Cell, 172(5), pp.1136-1136.
CrossRef - MacGowan, A. and Macnaughton, E., 2017. Antibiotic resistance. Medicine, 45(10), pp.622-628.
CrossRef - Bassetti, M., Poulakou, G., Ruppe, E., Bouza, E., Van Hal, S.J. and Brink, A., 2017. Antimicrobial resistance in the next 30 years, humankind, bugs and drugs: a visionary approach. Intensive care medicine, 43(10), pp.1464-1475.
CrossRef - Van Duijkeren, E., Schink, A.K., Roberts, M.C., Wang, Y. and Schwarz, S., 2018. Mechanisms of bacterial resistance to antimicrobial agents. Antimicrobial Resistance in Bacteria from Livestock and Companion Animals, pp.51-82.
CrossRef - Venkatesan, N., Perumal, G. and Doble, M., 2015. Bacterial resistance in biofilm-associated bacteria. Future microbiology, 10(11), pp.1743-1750.
CrossRef - Spellberg, B., 2014. The future of antibiotics. Critical care, 18(3), pp.1-7.
CrossRef - Fair, R.J. and Tor, Y., 2014. Antibiotics and bacterial resistance in the 21st century. Perspectives in medicinal chemistry, 6, pp.PMC-S14459.
CrossRef - Humphries, R.M. and Hindler, J.A., 2016. Emerging resistance, new antimicrobial agents… but no tests! The challenge of antimicrobial susceptibility testing in the current US regulatory landscape. Clinical Infectious Diseases, 63(1), pp.83-88.
CrossRef - MoelleringJr, R.C., 2011. Discovering new antimicrobial agents. International journal of antimicrobial agents, 37(1), pp.2-9.
CrossRef - Kraus, G.A. and Kempema, A., 2010. Synthesis of azafluorenone antimicrobial agents. Journal of natural products, 73(11), pp.1967-1968.
CrossRef - Raghunath, A. and Perumal, E., 2017. Metal oxide nanoparticles as antimicrobial agents: a promise for the future. International journal of antimicrobial agents, 49(2), pp.137-152.
CrossRef - Kim, J.S., Kuk, E., Yu, K.N., Kim, J.H., Park, S.J., Lee, H.J., Kim, S.H., Park, Y.K., Park, Y.H., Hwang, C.Y. and Kim, Y.K., 2007. Antimicrobial effects of silver nanoparticles. Nanomedicine: Nanotechnology, Biology and Medicine, 3(1), pp.95-101.
CrossRef - Adole, V.A., Pawar, T.B., Koli, P.B. and Jagdale, B.S., 2019. Exploration of catalytic performance of nano-La 2 O 3 as an efficient catalyst for dihydropyrimidinone/thione synthesis and gas sensing. Journal of Nanostructure in Chemistry, 9(1), pp.61-76.
CrossRef - Adole, V.A., More, R.A., Jagdale, B.S., Pawar, T.B. and Chobe, S.S., 2020. Efficient synthesis, antibacterial, antifungal, antioxidant and cytotoxicity study of 2‐(2‐hydrazineyl) thiazole derivatives. ChemistrySelect, 5(9), pp.2778-2786.
CrossRef - Adole, V.A., Pawar, T.B. and Jagdale, B.S., 2020. Aqua‐mediated rapid and benign synthesis of 1, 2, 6, 7‐tetrahydro‐8H‐indeno [5, 4‐b] furan‐8‐one‐appended novel 2‐arylidene indanones of pharmacological interest at ambient temperature. Journal of the Chinese Chemical Society, 67(2), pp.306-315.
CrossRef - Adole, V.A., Jagdale, B.S., Pawar, T.B. and Sagane, A.A., 2020. Ultrasound promoted stereoselective synthesis of 2, 3-dihydrobenzofuran appended chalcones at ambient temperature. South African Journal of Chemistry, 73, pp.35-43.
CrossRef - Shinde, R.A., Adole, V.A., Jagdale, B.S. and Desale, B.S., 2021. Synthesis, antibacterial and computational studies of Halo Chalcone hybrids from 1-(2, 3-Dihydrobenzo [b][1, 4] dioxin-6-yl) ethan-1-one. Journal of the Indian Chemical Society, 98(4), pp.1-9.
CrossRef - Shinde, R.A., Adole, V.A., Jagdale, B.S. and Pawar, T.B., 2021. Superfast synthesis, antibacterial and antifungal studies of halo-aryl and heterocyclic tagged 2, 3-dihydro-1 H-inden-1-one candidates. MonatsheftefürChemie-Chemical Monthly, pp.1-10.
CrossRef - Adole, V.A., Waghchaure, R.H., Pathade, S.S., Patil, M.R., Pawar, T.B. and Jagdale, B.S., 2020. Solvent-free grindstone synthesis of four new (E)-7-(arylidene)-indanones and their structural, spectroscopic and quantum chemical study: a comprehensive theoretical and experimental exploration. Molecular Simulation, 46(14), pp.1045-1054.
CrossRef - Wang L, Luo J, Shan S, Crew E, Yin J, Zhong CJ, Wallek B, Wong SS. Bacterial inactivation using silver-coated magnetic nanoparticles as functional antimicrobial agents. Analytical chemistry. 2011 Nov 15;83(22):8688-95.
CrossRef - Prabhu, S. and Poulose, E.K., 2012. Silver nanoparticles: mechanism of antimicrobial action, synthesis, medical applications, and toxicity effects. International nano letters, 2(1), pp.1-10.
CrossRef - Gnanadhas, D.P., Thomas, M.B., Thomas, R., Raichur, A.M. and Chakravortty, D., 2013. Interaction of silver nanoparticles with serum proteins affects their antimicrobial activity in vivo. Antimicrobial agents and chemotherapy, 57(10), pp.4945-4955.
CrossRef - Maiti, S., Krishnan, D., Barman, G., Ghosh, S.K. and Laha, J.K., 2014. Antimicrobial activities of silver nanoparticles synthesized from Lycopersiconesculentum extract. Journal of analytical science and technology, 5(1), pp.1-7.
CrossRef - Singh, T., Jyoti, K., Patnaik, A., Singh, A., Chauhan, R. and Chandel, S.S., 2017. Biosynthesis, characterization and antibacterial activity of silver nanoparticles using an endophytic fungal supernatant of Raphanussativus. Journal of Genetic Engineering and Biotechnology, 15(1), pp.31-39.
CrossRef - Das, C.A., Kumar, V.G., Dhas, T.S., Karthick, V., Govindaraju, K., Joselin, J.M. and Baalamurugan, J., 2020. Antibacterial activity of silver nanoparticles (biosynthesis): A short review on recent advances. Biocatalysis and Agricultural Biotechnology, p.101593.
CrossRef - Akintelu, S.A., Bo, Y. and Folorunso, A.S., 2020. A Review on Synthesis, Optimization, Mechanism, Characterization, and Antibacterial Application of Silver Nanoparticles Synthesized from Plants. Journal of Chemistry, 2020.
CrossRef - Sahoo, C.R., Maharana, S., Mandhata, C.P., Bishoyi, A.K., Paidesetty, S.K. and Padhy, R.N., 2020. Biogenic silver nanoparticle synthesis with cyanobacteriumChroococcusminutus isolated from Baliharachandi sea-mouth, Odisha, and in vitro antibacterial activity. Saudi Journal of Biological Sciences, 27(6), pp.1580-1586.
CrossRef - Abera, T., 2020. Review on Biosynthesis, Characterization and Antibacterial Activity of Silver Nanoparticles. International Journal of Materials Science and Applications, 9(3), p.47.
CrossRef - Huy, T.Q., Huyen, P., Le, A.T. and Tonezzer, M., 2020. Recent advances of silver nanoparticles in cancer diagnosis and treatment. Anti-Cancer Agents in Medicinal Chemistry (Formerly Current Medicinal Chemistry-Anti-Cancer Agents), 20(11), pp.1276-1287.
CrossRef - Yaqoob, A.A., Umar, K. and Ibrahim, M.N.M., 2020. Silver nanoparticles: various methods of synthesis, size affecting factors and their potential applications–a review. Applied Nanoscience, 10(5), pp.1369-1378.
CrossRef - Esmaile, F., Koohestani, H. and Abdollah-Pour, H., 2020. Characterization and antibacterial activity of silver nanoparticles green synthesized using Ziziphoraclinopodioides extract. Environmental Nanotechnology, Monitoring & Management, 14, p.100303.
CrossRef - Albeladi, S.S.R., Malik, M.A. and Al-thabaiti, S.A., 2020. Facile biofabrication of silver nanoparticles using Salvia officinalis leaf extract and its catalytic activity towards Congo red dye degradation. Journal of Materials Research and Technology, 9(5), pp.10031-10044.
CrossRef - Saravanakumar, A., Ganesh, M., Jayaprakash, J. and Jang, H.T., 2015. Biosynthesis of AgNPs using Cassia tora leaf extract and its antioxidant and antibacterial activities. Journal of Industrial and Engineering Chemistry, 28, pp.277-281.
CrossRef - Miri, A., Sarani, M., Bazaz, M.R. and Darroudi, M., 2015. Plant-mediated biosynthesis of AgNPs usingProsopisfarcta extract and its antibacterial properties. Spectrochimicaacta part a: molecular and biomolecular spectroscopy, 141, pp.287-291.
CrossRef - Kokila, T., Ramesh, P.S. and Geetha, D., 2015. Biosynthesis of AgNPs from Cavendish banana peel extract and its antibacterial and free radical scavenging assay: a novel biological approach. Applied Nanoscience, 5(8), pp.911-920.
CrossRef - Manikandan, R., Manikandan, B., Raman, T., Arunagirinathan, K., Prabhu, N.M., Basu, M.J., Perumal, M., Palanisamy, S. and Munusamy, A., 2015. Biosynthesis of AgNPs using ethanolic petals extract of Rosa indica and characterization of its antibacterial, anticancer and anti-inflammatory activities. SpectrochimicaActa Part A: Molecular and Biomolecular Spectroscopy, 138, pp.120-129.
CrossRef - Bose, D. and Chatterjee, S., 2016. Biogenic synthesis of AgNPs using guava (Psidiumguajava) leaf extract and its antibacterial activity against Pseudomonas aeruginosa. Applied Nanoscience, 6(6), pp.895-901.
CrossRef - Allafchian, A.R., Mirahmadi-Zare, S.Z., Jalali, S.A.H., Hashemi, S.S. and Vahabi, M.R., 2016. Green synthesis of AgNPs usingphlomis leaf extract and investigation of their antibacterial activity. Journal of Nanostructure in Chemistry, 6(2), pp.129-135.
CrossRef - Benakashani, F., Allafchian, A.R. and Jalali, S.A.H., 2016. Biosynthesis of AgNPs usingCapparisspinosa L. leaf extract and their antibacterial activity. Karbala International Journal of Modern Science, 2(4), pp.251-258.
CrossRef - Anandalakshmi, K., Venugobal, J. and Ramasamy, V., 2016. Characterization of AgNPs by green synthesis method using Pedalium murex leaf extract and their antibacterial activity. Applied Nanoscience, 6(3), pp.399-408.
CrossRef - López-Miranda, J.L., Vázquez, M., Fletes, N., Esparza, R. and Rosas, G., 2016. Biosynthesis of AgNPs using a Tamarixgallica leaf extract and their antibacterial activity. Materials Letters, 176, pp.285-289.
CrossRef - Oluwaniyi, O.O., Adegoke, H.I., Adesuji, E.T., Alabi, A.B., Bodede, S.O., Labulo, A.H. and Oseghale, C.O., 2016. Biosynthesis of AgNPs using aqueous leaf extract of ThevetiaperuvianaJuss and its antimicrobial activities. Applied Nanoscience, 6(6), pp.903-912.
CrossRef - Sundeep, D., Kumar, T.V., Rao, P.S., Ravikumar, R.V.S.S.N. and Krishna, A.G., 2017. Green synthesis and characterization of Ag nanoparticles from Mangiferaindica leaves for dental restoration and antibacterial applications. Progress in biomaterials, 6(1), pp.57-66.
CrossRef - Raja, S., Ramesh, V. and Thivaharan, V., 2017. Green biosynthesis of AgNPs usingCalliandrahaematocephala leaf extract, their antibacterial activity and hydrogen peroxide sensing capability. Arabian journal of chemistry, 10(2), pp.253-261.
CrossRef - Du, J., Singh, H. and Yi, T.H., 2017. Biosynthesis of AgNPs byNovosphingobium sp. THG-C3 and their antimicrobial potential. Artificial cells, nanomedicine, and biotechnology, 45(2), pp.211-217.
CrossRef - Rasheed, T., Bilal, M., Iqbal, H.M. and Li, C., 2017. Green biosynthesis of AgNPs using leaves extract of Artemisia vulgaris and their potential biomedical applications. Colloids and Surfaces B: Biointerfaces, 158, pp.408-415.
CrossRef - deJesúsRuíz-Baltazar, Á., Reyes-López, S.Y., Larrañaga, D., Estévez, M. and Pérez, R., 2017. Green synthesis of AgNPs using a Melissa officinalis leaf extract with antibacterial properties. Results in physics, 7, pp.2639-2643.
CrossRef - Patil, M.P., Singh, R.D., Koli, P.B., Patil, K.T., Jagdale, B.S., Tipare, A.R. and Kim, G.D., 2018. Antibacterial potential of AgNPs synthesized using Madhucalongifolia flower extract as a green resource. Microbial pathogenesis, 121, pp.184-189.
CrossRef - Shehzad, A., Qureshi, M., Jabeen, S., Ahmad, R., Alabdalall, A.H., Aljafary, M.A. and Al-Suhaimi, E., 2018. Synthesis, characterization and antibacterial activity of AgNPs usingRhazyastricta. PeerJ, 6, p.e6086.
CrossRef - Kora, A.J. and Sashidhar, R.B., 2018. Biogenic AgNPs synthesized with rhamnogalacturonan gum: antibacterial activity, cytotoxicity and its mode of action. Arabian Journal of Chemistry, 11(3), pp.313-323.
CrossRef - Sanchooli, N., Saeidi, S., Barani, H.K. and Sanchooli, E., 2018. In vitro antibacterial effects of AgNPs synthesized using Verbena officinalis leaf extract on Yersinia ruckeri, Vibrio cholera and Listeria monocytogenes. Iranian journal of microbiology, 10(6), p.400.
- Yazdi, M.E.T., Khara, J., Sadeghnia, H.R., Bahabadi, S.E. and Darroudi, M., 2018. Biosynthesis, characterization, and antibacterial activity of AgNPs using Rheum turkestanicum shoots extract. Research on Chemical Intermediates, 44(2), pp.1325-1334.
CrossRef - Aisida, S.O., Ugwu, K., Akpa, P.A., Nwanya, A.C., Ejikeme, P.M., Botha, S., Ahmad, I., Maaza, M. and Ezema, F.I., 2019. Biogenic synthesis and antibacterial activity of controlled AgNPsusing an extract of GongronemaLatifolium. Materials Chemistry and Physics, 237, p.121859.
CrossRef - Ravichandran, V., Vasanthi, S., Shalini, S., Shah, S.A.A., Tripathy, M. and Paliwal, N., 2019. Green synthesis, characterization, antibacterial, antioxidant and photocatalytic activity of Parkiaspeciosa leaves extract mediated silver nanoparticles. Results in Physics, 15, p.102565.
CrossRef - Jemilugba, O.T., Parani, S., Mavumengwana, V. and Oluwafemi, O.S., 2019. Green synthesis of AgNPsusingCombretumerythrophyllum leaves and its antibacterial activities. Colloid and Interface Science Communications, 31, p.100191.
CrossRef - Gomathi, M., Prakasam, A., Rajkumar, P.V., Rajeshkumar, S., Chandrasekaran, R. and Anbarasan, P.M., 2020. Green synthesis of AgNPsusingGymnemasylvestre leaf extract and evaluation of its antibacterial activity. South African Journal of Chemical Engineering, 32(1), pp.1-4.
CrossRef - Ahmad, M.A., Salmiati, S., Marpongahtun, M., Salim, M.R., Lolo, J.A. and Syafiuddin, A., 2020. Green Synthesis of AgNPsUsingMuntingiacalabura Leaf Extract and Evaluation of Antibacterial Activities. Biointerface Res. Appl. Chem, 10, pp.6253-6261.
CrossRef - Guimarães, M.L., da Silva, F.A.G., da Costa, M.M. and de Oliveira, H.P., 2020. Green synthesis of AgNPsusingZiziphusjoazeiro leaf extract for production of antibacterial agents. Applied Nanoscience, 10(4), pp.1073-1081.
CrossRef - Nouri, A., Yaraki, M.T., Lajevardi, A., Rezaei, Z., Ghorbanpour, M. and Tanzifi, M., 2020. Ultrasonic-assisted green synthesis of AgNPsusingMenthaaquatica leaf extract for enhanced antibacterial properties and catalytic activity. Colloid and Interface Science Communications, 35, p.100252.
CrossRef
This work is licensed under a Creative Commons Attribution 4.0 International License.
Material Science Research India An International Peer Reviewed Research Journal
PDF Downloads:
672
Open
Access -
