Use of Nanotechnology in Agri-food Sectors and Apprehensions: An Overview


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Authors

  • SHIV K YADAV ICAR- IARI, New Delhi -110012, India Author
  • SK LAL ICAR- IARI, New Delhi -110012, India Author
  • S YADAV ICAR- IARI, New Delhi -110012, India Author
  • J LAXMAN ICAR- IARI, New Delhi -110012, India Author
  • B VERMA ICAR- IARI, New Delhi -110012, India Author
  • MK SUSHMA ICAR- IARI, New Delhi -110012, India Author
  • R CHOUDHARY ICAR- IARI, New Delhi -110012, India Author
  • PK SINGH ICAR- IARI, New Delhi -110012, India Author
  • SP SINGH ICAR- IARI, New Delhi -110012, India Author
  • V SHARMA ICAR- IARI, New Delhi -110012, India Author
  • BRIJRAJ SINGH ICAR- IARI, New Delhi -110012, India Author

https://doi.org/10.56093/sr.v47i2.156378

Keywords:

Agriculture and food, Nanobiosensors, Nanofertilizers, Nanotechnology and nanoparticles, Policy and regulations, Safety issues, Seed technology and treatments

Abstract

The key challenge for the agriculture sector is to feed an ever-increasing global population with adoption of sustainable agricultural practices, integrating the goals of environmental health, economic profitability, and social equity. In this regard, nanotechnology is a globally rapidly growing ûeld of science and technology and casting an impact on every aspect of human life. It has also been recognized as one of its six “Key Enabling Technologies” by the European Commission, which contributes to sustainable competitiveness and growth in several industrial sectors. Considering the success of nanotechnology in different areas, application of nanoparticles (NPs) also started in agriculture but it is still in nascent phase. However, this could be a viable and sustainable
option for instigating revolutionary changes in agricultural sector and the seed industry for delivering better outcomes in the coming years. Out of approx. 29000 patents on NPs granted worldwide, only 500 patents account for agriculture and nutrition aspects. Every year, several new nano-based agri-inputs and products are expected to be introduced into the market. Slowly but surely NPs are gaining attention of researchers, industry, end users and policy makers in India. The specific considerations for evaluation of NPs with a focus to address the issues regarding safe handling of nanofertilizers and nanopesticides (with or without nanocarriers) have been made in the recent guidelines from DBT in the context of Insecticide Act, Fertilizer Control Order, BIS and FSSAI. Hence, it would be interesting to use and carryout research on NPs, following new regulatory framework to be in place soon. Using nanomaterial as a carrier system for crop improvement and for enhancement of productivity would open new vistas for agriculture in the areas of pest/disease prevention, control and management, fertilizers, agrochemicals, biofertilizers and pheromones delivery, plant nutrients, anti-transpiration agents, plant growth regulators, biostimulants and plant genetic manipulation. Nanocarriers for nutraceutical delivery, nano processing aids, nanocomposites and nanosensors for safe applications in food, feed, packaging and dairy products would be gaining importance. NP based sensors could also have the potential to be employed as smart input delivery systems, determination of viability, losses, detection of seed borne pathogens in seeds and as growth monitoring, real time detection of pests, continuous monitoring of local environment etc. The results of nanoparticles used as seed priming agents to enhance seed germination, storage and crop productivity have been quite encouraging. Green synthesis protocols have gained extensive attention as a reliable, sustainable and eco-friendly means for the production of a wide range of nanomaterials. The researches on green NPs, their use in organic production and possibility of seed treatment applications have also been discussed in this. Since NPs are very infinitesimal in size and the quantity required for seed treatment purpose is still very less, it might not have an impact on flora and fauna above the threshold level. Still, the possible biosafety issues regarding use of NPs as seed treatment for improvement in seed germination, vigour and storability may arise. Considering the potential applications of NPs in many fields and the growing apprehensions of FDA about the toxic potential of nano products, it is need of the hour to look for new internationally agreed, unbiased toxicological models and focusing more on in vivo studies. Generally, science based evaluation of NPs and deliberations on the issues like; the possible ill effects of nano-particles on the environment, soil, plant nutrition and antagonistic effect on other nutrients, safety of workers, researchers, laboratory staff, seed industry and the health of general public, animals, insects and microbes etc. should only be the basis of policy decisions on NPs. The in-depth review of work done on mechanism and potential of nanoparticles in enhancing agricultural productivity and their possible impacts on ecosystem is also highlighted in this review.

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References

ALLHOFF F, P LIN AND D MOORE (2010). What is Nanotechnology and why Does it Matter?: from Science to Ethics

(Oxford, Wiley-Blackwell) ISBN: 978-1-4051-7545-6. pp 304.

PRASAD SK (2008). Modern Concepts in Nanotechnology.

Vol.5, Discovery Publishing House.pp: 31–32.

KRALJ S AND D MAKOVEC (2015).Magnetic Assembly of

Superparamagnetic Iron Oxide Nanoparticle Clusters into

Nanochains and Nanobundles. ACS Nanotechnology, 9 (10):

-9707.

RODGERS P (2006). Nanoelectronics: Single file. Nature

Nanotechnology. pp 1-1.

KHANDELWAL A AND JOSHI R (2018). Synthesis of

nanoparticles and their application in agriculture. Acta Scientific

Agriculture, 2(3): 10–13.

BOBO D, KJ ROBINSON, J ISLAM, KJ THURECHT AND

CORRIE (2016). Nanoparticle-based medicines: a review of

FDA-approved materials and clinical trials to date.

Pharmaceutical Research, 33: 2373–2387.

ZHANG L, FX GU, JM CHAN, AZ WANG, RS LANGER AND

OC FAROKHZAD (2007). Nanoparticles in medicine:

therapeutic applications and developments. Clinical

Pharmacology and Therapeutics, 83(5): 761-769.

SAI KT, BK MANDAL, R SHIVENDU AND D NANDITA (2017).

Cytotoxicity study of Piper nigrum seed mediated synthesized

SnO2 nanoparticles towards colorectal (HCT116) and lung

cancer (A549) cell lines. Journal of Photochemistry and

Photobiology B: Biology, 166: 158-168.

RANJAN S, D NANDITA, P SRIVASTAVA AND R

CHIDAMBARAM (2016). A spectroscopic study on interaction

between bovine serum albumin and titanium dioxide nano

particle synthesized from microwave-assisted hybrid chemical

approach. Journal of Photochemistry and Photobiology B:

Biology,161: 472–481.

DASGUPTA N, S RANJAN, D MUNDEKKAD, C

RAMALINGAM, R SHANKER AND A KUMAR (2015).

Nanotechnology in agro-food: from field to plate. Food

Research International, 69: 381–400.

RAVICHANDRAN R (2010). Nanotechnology applications in

food and food processing: innovative green approaches,

opportunities and uncertainties for global market. International

Journal of Green Nanotechnology Physics and Chemistry,

(2): 72-96.

RASHIDI L AND K KHOSRAVI-DARANI (2011). The

applications of nanotechnology in food industry. Critical Review

on Food Science and Nutrition, 51(8): 723–730.

SCOTT NR (2007). Nanoscience in veterinary medicine.

Veterinary Research Communications, 31(1): 139–144

MAYSINGER D (2007). Nano particles and cells: good

companions and doomed partnerships. Organic and

Biomolecular Chemistry, 5(15): 335-2342.

DAY W (2005). Engineering precision into variable biological

systems. Annals of Applied Biology, 146(2): 155–162.

CHAU CF, SH WU AND GC YEN (2007). The development of

regulations for food nanotechnology. Trends in Food Science

and Technology,18(5): 269-280.

LIU R, H ZHANG AND R LAL (2016). Effects of stabilized

nanoparticles of copper, zinc, manganese, and iron oxides in

low concentrations on lettuce (Lactuca sativa) seed

germination: nano toxicants or nano nutrients? Water, Air, and

Soil Pollution, 227(1): 42.

DUDEFOI W, H TERRISSE, M RICHARD-PLOUET, E

GAUTRON, F POPA B HUMBERT AND M H ROPERS (2017).

Criteria to define a more relevant reference sample of titanium

dioxide in the context of food: a multi scale approach. Food

Additives and Contaminants, 34(5): 653-665.

BETTINI S, E BOUTET-ROBINET,C CARTIER, C COMERA,

E GAULTIER AND J DUPUY, N NAUD, S TACHE, P GRYSAN,

S REGUER, N THIEREIT, M REFREGIERS, D THIAUDIERE,

JEAN-PIERRE CRAVEDI, M CARRIERE, JEAN-NICOLAS

AUDINOT, F H PIERRE AND L GUZYLACK-PIRIOU (2017).

Food-grade TiO2 impairs intestinal and systemic immune

homeostasis, initiates preneoplastic lesions and promotes

aberrant crypt development in the rat colon. Science Report,

: 40373.

France USDA (2018). Plans to ban titanium dioxide in food

products. Information Network (GAIN) Report. Global

Agriculture: USDA Foreign Agriculture Service.

FEYNMAN RP (1960). There’s plenty of room at the bottom.

Engineering and Science, 23: 22–36.

TANIGUCHI N, C ARAKAWA AND T KOBAYASHI (1974). On

the basic concept of nano-technology. Proceedings of the

International Conference on Production Engineering, 26–29

August 1974, Tokyo Japan.

ANONYMOUS (2019). Nanotechnology timeline, Nano 101

downloaded from https://www.nano.gov/timeline.

FARADAY M (1857). The Bakerian Lecture: Experimental

relations of gold (and other metals) to light. Philosophical

Transaction of Royal Society of London, 147: 145–181.

MIE G (1908). Beiträge zur Optik trüber Medien, speziell

kolloidaler Metallösungen. Annals of Physics, 330: 377–445.

SYNGE E (1928). XXXVIII. A suggested method for extending

microscopic resolution into the ultra-microscopic region. The

London, Edinburgh, and Dublin Philosophical Magazine and

Journal of Science, 6(35): 356-362

KNOLL M AND E RUSKA (1932). Beitrag zur geometrischen

Elektronenoptik. I. Annalen der Physik, 404(5): 607-640.

MÜLLER EW (1936). Experimente zur Theorie der

Elektronenemission unter dem Einfluß starker Felder.

Zeitschrift für Physik, 37: 838–841.

MÜLLER EW (1951). Das Feldionenmikroskop. Zeitschrift für

Physik, 131: 136–142.

WATSON JD AND FHC CRICK (1953). Molecular structure of

nucleic acids: a structure for deoxyribose nucleic acid. Nature,

(4356): 737–738.

PLANK CJ AND EJ ROSINSKI (1964). Catalytic cracking of

hydrocarbons with a crystalline zeolite catalyst composite, U.S.

Patent.

PAPELL SS (1965). Low Viscosity Magnetic Fluid Obtained

by the Colloidal Suspension of Magnetic Particles.

A. U.S. Patent.

OSAWA E (1970). Superaromaticity. Kagaku Kyoto, 25: 854–

AVIRAM A AND M RATNER (1974). Molecular rectifiers.

Chemical Physics Letters, 29(2): 277–283.

JEANMAIRE DL AND RP VAN DUYNE (1977). Surface raman

spectro electrochemistry. Journal of Electro analytical

Chemistry, 84(1): 1-20.

SAGIV J (1980). Organized mono layers by adsorption,

formation and structure of oleophobic mixed mono layers on

solid surfaces. Journal of the American Chemical

Society, 102(1): 92-98.

DREXLER EK (1981). Molecular engineering: An approach

to the development of general capabilities for molecular

manipulation. Proceeding of National Academy of Sciences,

USA. 78(9): 5275–5278.

SEEMAN NC (1982). Nucleic acid junctions and

lattices. Journal of Theoritical Biology, 99(2): 237–247.

ROSSETTI R, S NAKAHARA AND LE BRUS (1983). Quantum

size effects in the redox potentials, resonance raman spectra,

and electronic spectra of cds crystallites in aqueous solution.

Journal of Chemical Physics, 79(2):1086.

EIGLER DM AND EK SCHWEIZER (1990). Positioning single

atoms with a scanning tunnelling microscope. Nature,

(6266): 524–526.

MIRKIN CA, RLLETSINGER, RC MUCIC AND JJ STORHOFF

(1996). A DNA-based method for rationally assembling

nanoparticles into macroscopic materials. Nature, 382: 607–

TANS SJ, ARM VERSCHUEREN AND C DEKKER (1998).

Room-temperature transistor based on a single carbon

nanotube. Nature, 393(6680): 49–52.

MONTEMAGNO CD (2013). Nanomachines: A roadmap for

realizing the vision. Journal of Nanoparticle Research, 3(1):

WILLIAMS KA, PTM VEENHUIZEN, PG DE LA TORRE, R

ERITJA AND C DEKKER (2002). Nanotechnology: carbon

nanotubes with DNA recognition. Nature, 420(6917): 761.

NOVOSELOV KS, AK GEIM, SV MOROZOV, D JIANG, Y

ZHANG, SV DUBONOS, IV GRIGORIEVA AND AA FIRSOV

(2004). Electric field effect in atomically thin carbon

films. Science, 306: 666–669.

XU X, R RAY, Y GU, HJ PLOEHN, L GEARHEART, K RAKER

AND W SCRIVENS (2004). A electrophoretic analysis and

purification of fluorescent single-walled carbon nanotube

fragments. Journal of The American Chemical Society,

(40): 12736-12737.

SHIRAI Y, AJ OSGOOD, Y ZHAO, KF KELLY AND JM TOUR

(2005). Directional control in thermally driven single-molecule

nanocars. Nano Letters, 5(11): 2330-2334.

ROTHEMUND PWK (2006). Folding DNA to create nanoscale

shapes and patterns. Nature, 440(7082): 297–302.

SANDERS JKM AND SE JACKSON (2009). The discovery

and development of the green fluorescent protein, GFP.

Chemical Society Reviews, 38(10):2821-2822.

LAFFERENTZ L, F AMPLE, H YU, S HECHT, C JOACHIM

AND L GRILL (2009). Conductance of a single conjugated

polymer as a continuous function of its length. Science,

(5918): 1193-1197.

KNOLL AW, D PIRES., O COULEMBIER, P DUBOIS, JL

HEDRICK, J FROMMER AND U DUERIG (2010). Probebased 3-D nanolithography using self-amplified

depolymerization polymers. Advanced Materials, 22(31):

-3365.

DU G, E MOULIN, N JOUAULT, E BUHLER AND N

GIUSEPPONE (2012). Muscle-like supramolecular polymers:

Integrated motion from thousands of molecular machines.

Angewandte Chemistry, 124(50): 12672–12676.

SAUVAGE JEAN-PIERRE, SJF STODDART AND BL

FERINGA (2016). Molecular machines. Natural Chemistry, 8:

PETERSEN P, G TIKHOMIROV AND L QIAN (2018).

Information-based autonomous reconfiguration in systems of

interacting DNA nanostructures. Nature Communications, 9:

ORAN D, SG RODRIQUES, R GAO, S ASANO, MA SKYLARSCOTT, F CHEN, PW TILLBERG, AH MARBLESTONE AND

ES BOYDEN (2018). 3D nanofabrication by volumetric

deposition and controlled shrinkage of patterned scaffolds.

Science, 362(6420): 1281-1285.

LUBICK N AND K BETTS (2008). Silver socks have cloudy

lining. Environ mental Science and Technology, 42(11): 3910.

PHOENIX C (2005).Nanotechnology: developing molecular

manufacturing archived 2005-09-01 at the Wayback Machine.

crnano.org

MONTEMAGNO CD (2004). Integrative technology for the

twenty-first century, Archived 2011-09-17. Annals of the New

York Academy of Sciences, 1013(1): 38-49.

ANONYMOUS (2003). Nanotechnology. Chemical and

Engineering News, 81(48): 37–42.

DREXLER K E (1986). Engines of creation: The coming era

of nanotechnology. Doubleday. 1-10.

REGAN BC, S ALONI, K JENSE AND A ZETTL

(2005). Surface-tension-driven nano electromechanical

relaxation oscillator. Applied Physics Letters, 86(12): 123119.

REGAN BC, S ALONI, K JENSEN, RO RITCHIE AND A ZETTL

(2005). Nanocrystal-powered nanomotor. Nano Letters, 5(9):

–1733.

NARAYAN RJ, PN KUMTA, CH SFEIR, DH LEE, D CHOI AND

D OLTON D (2004). Nanostructured Ceramics in Medical

Devices: Applications and Prospects. Journal of Metals,

(10): 38.

CHO H, E PINKHASSIK, D VALENTIN, JM STUART AND

AND KA HASTY (2015). Detection of early cartilage damage

using targeted nanosomes in a post-traumatic osteoarthritis

mouse model. Nanomedicine: Nanotechnology, Biology and

Medicine, 11(4): 939–946.

KERATIVITAYANAN P, JK CARROW AND AK GAHARWAR

(2015). Nanomaterials for engineering stem cell responses.

Advanced Healthcare Materials, 4(11): 1600-1627.

GAHARWAR AK, NA PEPPAS AND A KHADEMHOSSEINI

(2014). Nanocomposite hydrogels for biomedical applications.

Biotechnology and Bioengineering, 111(3): 441–53.

GAHARWAR, AK SANT, SHANCOCK, MJ HACKING AND SA

EDS. (2013). Nanomaterials in tissue engineering: fabrication

and applications.Elsevier. ISBN-13: 978-0857095961.

LEVINS CG AND CE SCHAMEISTER (2006). The synthesis

of curved and linear structures from a minimal set of

monomers. ChemInform, 37 (5).

OVIROH PO, RAKBARZADEH, D PAN, R COETZEE AND

TC JEN (2019). New development of atomic layer deposition:

processes, methods and applications. Science and

Technology of Advanced Materials, 20(1): 465–496.

DAS S, AJ GATES, HA ABDU, GS ROSE, CA PICCONATTO

ANDJC ELLENBOGEN (2007).Designs for Ultra-Tiny, SpecialPurpose Nanoelectronic Circuits. IEEE Transactions on

Circuits and Systems, 54(11): 2528–2540.

MASHAGHI S, T JADIDI, G KOENDERINK AND A MASHAGHI

(2013). Lipid nanotechnology. International Journal of

Molecular Sciences, 14: 4242-4282.

HOGAN CM, MICHAEL AND S DRAGGAN (2010). “Virus”.

In: Encyclopaedia of Earth. Eds. Cutler J. Cleveland

(Washington, D.C.: Environmental Information Coalition,

National Council for Science and the Environment). [First

published in the Encyclopedia of Earth May 12, 2010; Last

revised Date December 30, 2010; Retrieved September 28,

Encyclopedia of Earth.

KUBIK T, K BOGUINA-KUBIK AND M SUGISAKA (2005).

Nanotechnology on duty in medical applications. Current

Pharmaceutical Biotechnology, 6(1): 17-33.

LEARY SP, CY LI AND ML APUZZO (2006). Toward the

emergence of nanoneurosurgery: Part III-Nanomedicine:

Targeted nanotherapy, nanosurgery, and progress toward the

realization of nanoneurosurgery. Neurosurgery, 58 (6): 1009–

CAVALCANTI A,B SHIRINZADEH, R FREITAS AND L

KRETLY (2007). Medical Nanorobot Architecture Based on

Nanobioelectronics. Recent Patents on Nanotechnology, 1 (1):

–10.

BOUKALLEL M, M GAUTHIER, M DAUGE, E PIAT AND J

ABADIE (2007). Smart microrobots for mechanical cell

characterization and cell convoying. IEEE Transactions on

Biomedical Engineering, 54(8): 1536-1540.

ROCO MC (2005). International perspective on government

nanotechnology funding in 2005. The Journal of Nanoparticles

Research, 7(6): 707–712.

MINSKEY M (1998). Memoir on investing the confocal

scanning microscope. Scanning, 10: 128-138.

WARARKAR P AND HK DHAULE (2016). Comprehensive

study and overview of nanotechnology. International Journal

of Advanced Research and Review. 1(4): 19-26.

LAPSHIN RV (2004). Feature-oriented scanning methodology

for probe microscopy and nanotechnology. Nanotechnology,

: 1135-1151.

LAPSHIN RV (2011). Feature-oriented scanning probe

microscopy. In: Nalwa HS (ed.), Encyclopedia of Nanoscience

and Nanotechnology, 14: 105-115 American Scientific

Publishers, USA.

KAFSHGARI MH, NH VOELCKER AND FJ HARDING (2015).

Applications of zero-valent silicon nanostructures in

biomedicine. Nanomedicine, 10(16): 2553-2571.

MARSHALL H (2018). Environmental nanotechnology

(eBook). 360 Seiten EDTECH (Verlag), ISBN 978-1-83947-

-9.

CHAUDHARY S; H LU, AM MULLER, CJ BARDEEN AND M

OZKAN (2007). Hierarchical placement and associated

optoelectronic impact of carbon nanotubes in polymerfullerene solar cells”. Nano Letters, 7 (7): 1973-1979.

RAJAN R, J SHOMA, VP MUKUND, B VASUDEVAN, AND T

DEEPA (2011). Transferosomes – a vesicular transdermal

delivery system for enhanced drug permeation. Journal of

Advanced Pharmaceutical Technology and Research, 2(3):

–143.

KASHYAP PL, X XIANG AND P HEIDEN (2015). Chitosan

nanoparticle based delivery systems for sustainable

agriculture. International Journal of Biological Macromolecules,

, 36-51.

WU H, L SHABALA, S SHABALA AND JP GIRALDO (2018).

Hydroxyl radical scavenging by cerium oxide nanoparticles

improves Arabidopsis salinity tolerance by enhancing leaf

mesophyll potassium retention. Environmental Science:

Nano, 5(7): 1567-1583.

GHORMADE V, MV DESHPANDE AND KM PAKNIKAR

(2011). Perspectives for nano-biotechnology enabled

protection and nutrition of plants. Biotechnology Advances,

(6): 792–803.

GÓMEZ HG, FR GODINA, HO ORTIZ, AB MENDOZA, VR

TORRES AND MC DE-LA-FUENTE (2017). Use of chitosanpva hydrogels with copper nanoparticles to improve the growth

of grafted watermelon. Molecules, 22(7): 1031.

BARUAH S AND J DUTTA (2009). Nanotechnology

applications in pollution sensing and degradation in agriculture:

A review. Environmental Chemistry Letters, 7(3): 191–204.

ZHAO L, JR PERALTA-VIDEA,CM RICO,JA HERNANDEZVIEZCAS, Y SUN, G NIU,A SERVIN, JE NUNEZ,M DUARTEGARDEA AND JL GARDEA-TORRESDEY (2014). CeO2 and

ZnO nanoparticles change the nutritional qualities of cucumber

(Cucumis sativus). Journal of Agriculture Food Chemistry,

(13): 2752–2759.

TIWARI DK, N DASGUPTA-SCHUBERT, LM VILLASENOR

CENDEJAS, J VILLEGAS,L CARRETO-MONTOYA AND SE

BORJAS-GARCIA (2014). Interfacing carbon nanotubes

(CNT) with plants: Enhancement of growth, water and ionic

nutrient uptake in maize (Zea Mays) and implications for nano

agriculture. Applied Nanosciences, 4(5): 577–591.

ZHENG L, F HONG, S LU AND C LIU (2005). Effect of nanoTiO2 on strength of naturally aged seeds and growth of spinach.

Biological Trace Element Research, 104(1): 83-91.

MARSCHNER H (2012). Mineral nutrition of higher plants. pp

–364, Academic Press Limited Harcourt Brace and

Company, Publishers, London.

UPADHYAYA H, L BEGUM, B DEY, PK NATH AND SK PANDA

(2017). Impact of calcium phosphate nanoparticles on

rice plant. Journal of Plant Sciences Phytopathology, 1: 1-

SHOJAEI M, M ESHAGHI AND L NATEGHI (2019).

Characterization of hydroxypropyl methyl cellulose–whey

protein concentrate bionanocomposite films reinforced by

chitosan nanoparticles. Journal of Food Processing and

Preservation. 43 (10): e14158. https://doi.org/10.1111/

jfpp.14158.

MITTER N, EA WORRALL, KE ROBINSON, P LI, RG JAIN,

C TAOCHY, SJ FLETCHER, BJ CARROLL, GQ LU AND ZP

XU (2017). Clay nanosheets for topical delivery of RNAi for

sustained protection against plant viruses. Nature Plants, 3(2):

-10.

KOTTEGODA N, I MUNAWEERA, N MADUSANKA AND V

KARUNARATNE (2011). A green slow-release fertilizer

composition based on urea-modified hydroxyapatite

nanoparticles encapsulated wood. Current Science, 101: 73–

RAI M, AP INGLE, R PANDIT AND P PARALIKAR (2018).

Copper and copper nanoparticles: role in management of

insect-pests and pathogenic microbes. Nanotechnology

Reviews, 7(4): 303-315.

JAYASEELAN C, R RAMKUMAR, A ABDUL AND P PERUMAL

(2013). Green synthesis of gold nanoparticles using seed

aqueous extract of Abelmoschus esculentus and its antifungal

activity. Industrial Crops and Products, 45: 423-429.

SINGH R, R SINGH, D SINGH D, JK MANI, SS KARWASRA

AND MS BENIWAL (2010). Effect of weather parameters on

karnal bunt disease in wheat in karnal region of haryana.

Journal of Agrometeorology, 12(1): 99–101.

CHEN HAI, ZHOU KAI AND ZHAO GUANGHUA (2018). Gold

nanoparticles: From synthesis, properties to their potential

application as colorimetric sensors in food safety screening.

Trends in Food Science and Technology, 78: 83-94

PARDHA-SARADHI P, G YAMAL, T PEDDISETTY, P

SHARMILA, J SINGH, R NAGARAJAN AND KS RAO (2014).

Plants fabricate Fe-nanocomplexes at root surface to counter

and phytostabilize excess ionic Fe. Biometals, 27(1): 97–114.

RUI M, C MA, Y HAO, J GUO, Y RUI, X TANG, Q ZHAO, X

FAN, Z ZHANG, T HOU AND S ZHU (2016). Iron oxide

nanoparticles as a potential iron fertilizer for peanut (Arachis

hypogaea). Frontiers in Plant Science, 7: 815.

DIMKPA CO AND PS BINDRABAN (2018). Nanofertilizers:

new products for the industry? Journal of Agriculture and Food

Chemistry, 66(26): 6462-6473

TARAN NY, OM GONCHAR, KG LOPATKO, LM

BATSMANOVA, MV PATYKA AND MV VOLKOGON (2014).

The effect of colloidal solution of molybdenum nanoparticles

on the microbial composition in rhizosphere of Cicer arietinum

L. Nanoscale Research Letters, 9(1): 289.

DUMAS A AND P COUVREUR (2015). Palladium: a future

key player in the nanomedical field? Chemical Science, 6(4):

–2157.

ERIKA M-V, ITT LIBIA, CGM FERNANDO, SV MANUEL, SG

PROMETEO AND AAM MIGUEL (2019). Nanophosphorus

Fertilizer Stimulates Growth and Photosynthetic Activity and

Improves P Status in Rice, Journal of Nanomaterials. https://

doi.org/10.1155/2019/5368027.

XIANG L, C ZHAO AND J WANG (2011). Nanomaterials-based

electrochemical sensors and biosensors for pesticide

detection. Sensor Letters, 9(3): 1184-1189.

TARAFDAR JC (2016). Biosynthesis of potassium

nanoparticles and its effect on Chickpea (Cicer arientinum).

In Conference: International Conference on Biotechnology and

Nanotechnology at IIS University, Jaipur, India. pp: 51.

RASTOGI A, D K TRIPATHI,S YADAV, DKCHAUHAN, M

ZIVCAK, M GHOR, NI EL-SHEERY AND M BRESTIC (2019).

Application of silicon nanoparticles in agriculture.

Biotechnology, 3(9): 90.

YOUNES M, P AGGETT, F AGUILAR, R CREBELLI, B

DUSEMUND, M FILIPIC, MJ FRUTOS, P GALTIER, D GOTT,

U GUNDERT REMY, GG KUHNLE, J LEBLANC, IT

LILLEGAARD, P MOLDEUS, A MORTENSEN, A

OSKARSSON, I STANKOVIC,I WAALKENS BERENDSEN,

RA WOUTERSEN, M WRIGHT, P BOON, D CHRYSAFIDIS,

R GURTLER, P MOSESSO, D PARENT MASSIN, P

TOBBACK, N KOVALKOVICOVA, AM RINCON, A TARD AND

C LAMBRE (2018). Re evaluation of silicon dioxide (E 551)

as a food additive. European Food Safety Authority Journal,

(1): 5088.

MATVEEV JG, DA DRAPKINA, RL GLOBUS, Tr. IREA21

(1956) 83 – 89, Chemistry Abstracts, 52 (1958) 15474 e.

ANDERSEN CP, G KING, M PLOCHER, M STORM, LR

POKHREL, MG JOHNSON AND PT RYGIEWICZ

(2016). Germination and early plant development of ten plant

species exposed to titanium dioxide and cerium oxide

nanoparticles. Environmental Toxicology and Chemistry, 35(9):

-2229.

SABIR S, M ARSHAD AND S K CHAUDHARI (2014). Zinc

oxide nano particles for revolutionizing agriculture: synthesis

and applications. The Scientific World Journal, 1: 1-8.

WEIR A, P WESTERHOFF, L FABRICIUS, K HRISTOVSKI

AND N VON GOETZ (2012). Titanium dioxide nanoparticles

in food and personal care products. Environmental Science

and Technology, 46(4): 2242-2250.

DORIER M, D BEAL, C MARIE-DESVERGNE, M

DUBOSSON, F BARREAU AND E HOUDEAU, N HERLINEBOIME AND M CARRIERE (2017). Continuous in vitro

exposure of intestinal epithelial cells to E171 food additive

causes oxidative stress, inducing oxidation of DNA bases but

no endoplasmic reticulum stress. Nanotoxicology, 11(6): 751-

CFR (2018). Code of Federal Regulations (CFR). Electronic

code of federal regulations. Title 21: food and drugs. Part 184d

direct food substances affirmed as generally recognized as

safe. Subpart bd listing of specific substances affirmed as gras.

The United States office of the federal register (ofr) and The

United States. Government Publishing Office; 2018. https://

www.ecfr.gov/cgi-bin/text-idx?SID¼79a76b1d7e7a98ae

d8 8005 ab7058&mc¼true&node¼pt21.1.73 & rgn¼div5.

FDA (US) (2015). Color additive status list. United States Food

and Drug Administration.

EU (2011). Commission. Recommendation on the definition

of nanomaterial. Official Journal of the European Union.

FDA (US) (2018). Inventory of effective food contact substance

(FCS) notifications. United States Food and Drug

Administration.

EC (2008). Euroapen Commision. Regulation (EC) No. 1333/

of the European Parliament and of the Council of 16

December 2008 on Food Additives. The European Parliament

and The Council of The European Union; 2008. https://eurlex. europa.eu/legal-content/EN/TXT/?uri¼celex%3A32008

R1333.

CFR (2017). Code of Federal Regulations (CFR). Title 21–

food and drugs. Chapter I–Food and drug administration.

Department of health and human services. Subchapter B–

food for human consumption (continued). Part 172 – food

additives permitted for direct addition to food for human

consumption. Subpart E–anticakingagents. Sec. 172.480

silicon dioxide. United State Food and Drug Administration;

https://www.accessdata.fda.gov/scripts/ cdrh/ cfdocs/

cfCFR/CFRSearch.cfm?fr¼172.480.

SAHOO D, A MANDAL, T MITRA, K CHAKRABORTY, M

BARDHAN AND AK DASGUPTA (2018). Nanosensing of

pesticides by zinc oxide quantum dot: an optical and

electrochemical approach for the detection of pesticides in

water. Journal of Agriculture Food and Chemistry, 66(2): 414-

SUN Y, L FANG, Y WAN AND Z GU (2018). Pathogenic

detection and phenotype using magnetic nanoparticle-urease

nanosensor. Sensors and Actuators B: Chemical, 259: 428-

KEARNS H, GOODACRE R, LE JAMIESON, D GRAHAM

AND K FAULDS (2017). SERS detection of multiple

antimicrobial-resistant pathogens using nanosensors.

Analytical Chemistry, 89(23): 12666-12673.

PERCIN I, N IDIL, M BAKHSHPOUR, E YILMAZ, B

MATTIASSON AND A DENIZLI (2017). Microcontact imprinted

plasmonic nanosensors: powerful tools in the detection of

Salmonella paratyphi. Sensors, 17(6): 1375.

BANERJEE T, S SULTHANA, T SHELBY, B HECKERT, J

JEWELL AND K WOODY, O PASHCHENKO AND S SANTRA

(2016). Multiparametric magneto-fluorescent nanosensors for

the ultrasensitive detection of Escherichia coli O157: H7. ACS

Infectious Diseases, 2(10): 667-673.

ZHANG A, G ZHENG AND C LIEBER (2016). Nanowires:

building blocks for nano science and nanotechnology. Springer

International Publishing, Switzerland.

ZHANG W, Y HAN, X CHEN, X LUO, J WANG AND T YUE

AND Z LI (2017). Surface molecularly imprinted polymer

capped Mn-doped ZnS quantum dots as a phosphorescent

nanosensor for detecting patulin in apple juice. Food

Chemistry, 232: 145-154.

SHI S, W WANG, L LIU, S WU, Y WEI AND W LI (2013).

Effect of chitosan/nano-silica coating on the physicochemical

characteristics of longan fruit under ambient temperature.

Journal of Food Engineering, 118(1): 125-131.

ZAMBRANO ZML, E MERCADO-SILVA, E GUTI ERREZCORTEZ, MA CORNEJO-VILLEGAS AND D QUINTANARGUERRERO (2014). The effect of nano-coatings with àtocopherol and xanthan gum on shelf-life and browning index

of fresh-cut red delicious apples. Innovative Food Science and

Emerging Technologies, 22: 188-196.

ROBLEDO N, A BUNGER, C TAPIA AND L ABUGOCH (2018).

Effects of antimicrobial edible coating of thymol nano emulsion/

quinoa protein/chitosan on the safety, sensorial properties,

and quality of refrigerated strawberries (Fragaria_ ananassa)

under commercial storage environment. Food Bioprocessing

Technology, 11(8): 1566-1574.

GORRASI G AND V BUGATTI (2016). Edible bio-nano-hybrid

coatings for food protection based on pectins and LDHsalicylate: preparation and analysis of physical properties.

LWT-Food Science and Technology, 69: 139-145.

SALVIA-TRUJILLO L, MA ROJAS GRAU, R SOLIVAFORTUNY AND O M BELLOSO (2015). Use of antimicrobial

nanoemulsions as edible coatings: impact on safety and quality

attributes of freshcut fuji apples. Postharvest Biology and

Technology, 105: 8-16

OLIVEIRA HC, R STOLF-MOREIRA, CBR MARTINEZ, R

GRILLO, MB DE JESUS AND LF FRACETO (2015).

Nanoencapsulation enhances the post-emergence herbicidal

activity of atrazine against mustard plants. Public Library of

Science One, 10(7): e0132971.

CAO L, Z ZHOU, S NIU, C CAO, X LI, Y SHAN, Q HUANG, Y

LIN, Y SHAN AND C XU (2018). Positive charge functionalized

mesoporous silica nanoparticles as nanocarriers for controlled

, 4-dichlorophenoxy acetic acid sodium salt release. Journal

of Agriculture and Food Chemistry, 66(26): 6594-6603.

KUMAR S, D KUMAR AND N DILBAGHI (2017). Preparation,

characterization, and bio-efficacy evaluation of controlled

release carbendazim-loaded polymeric nanoparticles.

Environmental Science and Pollution Research, 24(1): 926-

DUHAN JS, R KUMAR, N KUMAR, P KAUR, K NEHRA AND

S DUHAN (2017). Nanotechnology: the new perspective in

precision agriculture. Biotechnology Reports, 15: 11-23.

SEKHON BS (2014). Nanotechnology in agri-food production:

an overview. Nanotechnoly Sciences Applications, 7: 31.

KHOT LR, S SANKARAN, JM MAJA, R ESHANI AND EW

SCHUSTER (2012). Applications of nanomaterials in

agricultural production and crop protection: a review. Crop

Protection, 35: 64-70.

DIMKPA CO, JE MCLEAN, DW BRITT AND AJ ANDERSON

(2013). Antifungal activity of ZnO nanoparticles and their

interactive effect with a biocontrol bacterium on growth

antagonism of the plant pathogen Fusarium graminearum.

Biometals, 26(6): 913-924.

RAJIV P, S RAJESHWARI AND VENKATESH (2013). Biofabrication of zinc oxide nanoparticles using leaf extract of

Parthenium hysterophorus L. and its size-dependent antifungal

activity against plant fungal pathogens. Spectrochimica Acta

Part A: Molecular and Biomolecular Spectroscopy, 112: 384-

TRIPATHI KM, A BHATI, A SINGH, AK SONKER, S SARKAR

AND SK SONKAR (2017). Sustainable changes in the

contents of metallic micronutrients in first generation gram

seeds imposed by carbon nano-onions: life cycle seed to seed

study. ACS Sustainable Chemical Engineering, 5(4): 2906-

KHALIFA NS AND MN HASANEEN (2018). The effect of

chitosan -PMAA-NPK nanofertilizer on Pisum sativum plants.

Biotech, 8(4): 193.

ABACIAB A, N AZZOUZ AND Y BOUZNIT (2014). A new

copper doped montmorillonite modified carbon paste electrode

for propineb detection. Applied Clay Science, 90: 130-140.

WIBOWO KM, MZ SAHDAN, NI RAMLI, A MUSLIHATI, N

ROSNI AND VH TSEN (2018). Detection of Escherichia coli

bacteria in wastewater by using graphene as a sensing

material. In: Journal of Physics: Conference Series. IOP

Publishing, 995: 012063.

DENG H, Y GAO, TPS DASARI, PC RAY AND H YU (2016). A

facile 3D construct of graphene oxide embedded with silver

nanoparticles and its potential application as water filter.

The Journal of The Mississippi Academy of Sciences, 61(2):

-197.

GESZKE-MORITZ M, G CLAVIER, J LULEK AND R

SCHNEIDER (2012). Copper-or manganese-doped

ZnS quantum dots as fluorescent probes for detecting folic

acid in aqueous media. Journal of Luminiscene, 132(4): 987-

ESSER B, JM SCHNORR AND TM SWAGER (2012).

Selective detection of ethylene gas using carbon nanotubebased devices: utility in determination of fruit ripeness.

Angewandte Chemie International Edition, 51(23): 5752-5756.

LIN YW, CC HUANG AND HT CHANG (2011). Gold

nanoparticle probes for the detection of mercury, lead and

copper ions. Analyst, 136(5): 863-871.

JOKAR M, MH SAFARALIZADEH, F HADIZADEH, F

RAHMANI AND MR KALANI (2016). Design and evaluation

of an apta-nano-sensor to detect Acetamiprid in vitro and in

silico. Biomolecular Structure and Dynamics, 34(11): 2505-

ZHAO L, C ORTIZ, AS ADELEYE, Q HU, H ZHOU, Y HUANG

AND KELLER (2016). Metabolomics to detect response of

lettuce (Lactuca sativa) to Cu(OH)2 nanopesticides: oxidative

stress response and detoxification mechanisms.

Environmental Science and Technology, 50(17): 9697-9707.

ZULFIQAR F, M NAVARRO, M ASHRAF, NA AKRAM AND S

MUNNE-BOSCH (2019). Nanofertilizer use for sustainable

agriculture: advantages and limitations. Plant Sciences, 289:

XHAO X, H CUI, Y WANG, C SUN, B CUI AND Z ZENG (2018).

Development strategies and prospects of nano-based smart

pesticide formulation. Journal of Agriculture Food Chemistry,

(26): 6504–6512.

GIRALDO JP, H WU, GM NEWKIRK AND S KRUSS (2019).

Nanobiotechnology approaches for engineering smart plant

sensors. Nature Nanotechnology, 14(6): 541–553.

FLOREANO D AND RJ WOOD (2015). Science, technology

and the future of small autonomous drones. Nature, 521(7553):

–466.

WAHABZADA M, AK MAHLEIN, C BAUCKHAGE, U

STEINER, EC OERKE AND K KERSTING (2016). Plant

phenotyping using probabilistic topic models: uncovering the

hyper spectral language of plants. Scientific Reports, 6(1): 1–

PARISI C, M VIGANI AND E RODRÍGUEZ-CEREZO (2015).

Agricultural nanotechnologies: what are the current

possibilities?. Nano Today, 10(2): 124-127.

THEIS T,D PARR,P BINKS,J YING,KE DREXLER,E

SCHEPERS,K MULLIS,C BAI,JJ BOLAND, R LANGER,P

DOBSON,CN RAO AND M FERRARI (2006).

Nan’o.tech.nol’o.gy n. Nature Nanotechnology, 1: 8–10.

HORNYAK GL, HF TIBBALS, J DUTTA AND JJ MOORE

(2008). Perspectives. In: Introduction to nanoscience and

nanotechnology, (eds. HORNYAK GL, HF TIBBALS, J DUTTA

AND JJ MOORE), CRC Press, Boca Raton. pp:1–104.

CUI Y, Q WEI, H PARK AND CM LIEBER (2001). Nanowire

nanosensors for highly sensitive and selective detection of

biological and chemical species. Science, 293(5533): 1289–

BANSOD SD, M BAWASKAR, S SHENDE, A GADE AND M

RAI (2019). Novel nanoplex-mediated plant transformation

approach. IET Nanobiotechnology, 13(6): 609–616.

DEMIRER GS, H ZHANG, JL MATOS, NS GOH, FJ

CUNNINGHAM, Y SUNG, R CHANG, AJ ADITHAM, L CHIO,

MJ CHO, B STASKAWICZ AND MP LANDRY (2019). High

aspect ratio nanomaterials enable delivery of functional genetic

material without DNA integration in mature plants. Nature

Nanotechnology, 14(5): 456–464.

GOLESTANIPOUR A, M NIKKHAH, A AALAMI AND S

HOSSEINKHANI (2018). Gene delivery to tobacco root cells

with single-walled carbon nanotubes and cell-penetrating

fusogenic peptides. Molecular Biotechnology, 60(12): 863–

HAJIAHMADI Z, R SHIRZADIAN-KHORRAMABAD AND M

KAZEMZAD ANDMM SOHANI (2019). Enhancement of

tomato resistance to Tuta absoluta using a new efficient

mesoporous silica nanoparticle-mediated plant transient gene

expression approach. Scientia Horticulturae (Amsterdam),

: 367–375.

ZHANG H, GS DEMIRER, H ZHANG, T YE, NS GOH, AJ

ADITHAM, FJ CUNNINGHAM, C FAN AND MP LANDRY

(2019). DNA nanostructures coordinate gene silencing in

mature plants. Proceedings of The National Academy of

Sciences, 116(15): 7543-7548.

KWAK SY, TTS LEW, CJ SWEENEY, VB KOMAN, MH WONG,

K BOHMERT-TATAREY, KD SNELL, JS SEO, NH CHUA AND

MS STRANO (2019). Chloroplast-selective gene delivery and

expression in planta using chitosan-complexed single-walled

carbon nanotube carriers. Nature Nanotechnology, 14(5): 447-

ZHAO X,Z MENG ,Y WANG,W CHEN,C SUN,B CUI,J CUI,M

YU,Z ZENG,S GUO,D LUO, JQ CHENG,R ZHANG AND H

CUI(2017). Pollen magnetofection for genetic modification with

magnetic nanoparticles as gene carriers. Natural Plants, 3(12):

–964.

PRASAD K AND AK JHA (2009). ZnO nanoparticles: synthesis

and adsorption study. Natural Science, 1(2): 129-135.

MAITY A, N NATARAJAN, M PASTOR, D VIJAY, CK GUPTA,

VK WASNIK AND PK GHOSH (2018). Nanoparticles influence

seed germination traits and seed pathogen infection rate in

forage sorghum (Sorghum bicolor) and cowpea (Vigna

unguiculata). Indian Journal of Experimental Biology, 56: 363–

SATHIYABAMA M AND R PARTHASARATHY (2016).

Biological preparation of chitosan nanoparticles and its in vitro

antifungal efficacy against some phytopathogenic fungi.

Carbohydrate Polymers, 151: 321-325.

MADHUKESHWARA, B PUTTAPPANAVARA AND V K

DESHPANDE (2019). Effect of nanoparticles on storability of

KRH-4 hybrid rice seeds. Bulletin of Environment,

Pharmacology and Life Sciences, 8(5): 99-105.

ANNUAL REPORT (2018-19) of AICRP-NSP (Crops).

SAXENA SN, RK KAKANI, LK SHARMA, D AGRAWAL AND

SS RATHORE (2015). Usefulness of hydro-matrix seed

priming in cumin (Cuminum cyminum L.) for hastening

germination. International Journal of Seed Spices, 5(1): 24-

MOHAMED AKS, MF QAYYUM, AM ABDEL-HADI, RA

REHMAN, S ALI, AND M RIZWAN (2017). Interactive effect

of salinity and silver nanoparticles on photosynthetic and

biochemical parameters of wheat. Archives of Agronomy and

Soil Science, 63(12): 1736-1747.

CHEN K AND R ARORA (2013). Priming memory invokes seed

stress-tolerance. Environmental and Experimental Botany, 94:

-45.

IBRAHIM EA (2016). Seed priming to alleviate salinity stress

in germinating seeds. Journal of Plant Physiology, 192: 38-

BUTLER LH, FR HAY, RH ELLIS, RD SMITH AND TB

MURRAY (2009). Priming and redrying improve the survival

of mature seeds of Digitalis purpurea during storage. Annals

of Botany, 103(8): 1261-1270.

HORII A, P MCCUE AND K SHETTY (2007). Seed vigour

studies in corn, soybean and tomato in response to fish protein

hydrolysates and consequences on phenolic-linked

responses. Bioresource Technology, 98(11): 2170-2177.

HUSSAIN S, M ZHENG, F KHAN, A KHALIQ, S FAHAD, S

PENG AND L NIE (2015). Benefits of rice seed priming are

offset permanently by prolonged storage and the storage

conditions. Scientific Reports, 5(1): 1-12.

MAHAKHAM W, P THEERAKULPISUT, S MAENSIRI, S

PHUMYING, AND AK SARMAH (2016). Environmentally

benign synthesis of phytochemicals-capped gold nanoparticles

as nanopriming agent for promoting maize seed germination.

Science of The Total Environment, 573: 1089-1102.

PANYUTA O, V BELAVA, S FOMAIDI, O KALINICHENKO, M

VOLKOGON AND N TARAN (2016). The effect of pre-sowing

seed treatment with metal nanoparticles on the formation of

the defensive reaction of wheat seedlings infected with the

eyespot causal agent. Nanoscale Research Letters, 11(1): 92.

TARAN NY, V STOROZHENKO, N SVIETLOVA, L

BATSMANOVA, V SHVARTAU AND M KOVALENKO (2017).

Effect of zinc and copper nanoparticles on drought resistance

of wheat seedlings. Nanoscale Research Letters, 12(1): 60.

SRIVASTAVA G (2014). Seed treatment with iron pyrite (FeS2)

nanoparticles increases the production of spinach. RSC

Advances, 4(102): 58495–58504.

LATEF AAHA, MFA ALHMAD AND KE ABDELFATTAH (2017).

The possible roles of priming with ZnO nanoparticles in

mitigation of salinity stress in lupine (Lupinus termis) Plants.

Journal of Plant Growth Regulation, 36(1): 60-70.

KOLE C, P KOLE, KM RANDUNU, P CHOUDHARY, R

PODILA, PC KE, AM ROA AND RK MARCUS (2013).

Nanobiotechnology can boost crop production and quality: first

evidence from increased plant biomass, fruit yield and

phytomedicine content in bitter melon (Momordica charantia).

BMC Biotechnology, 13(1): 37.

RATNIKOVA TA, PR RAO AND AG TAYLOR (2015).Tomato

seed coat permeability to selected carbon nanomaterials and

enhancement of germination and seedling growth. The

Scientific World Journal, 2: 1–9.

SERVIN AD AND JC WHITE (2016). Nanotechnology in

agriculture: next steps for understanding engineered

nanoparticle exposure and risk. NanolImpact, 1: 9-12.

GIRALDO JP, M P LANDRY, S M FALTERMEIER, T P

MCNICHOLAS, N M IVERSON, AA BOGHOSSIAN, N F

REUEL, A J HILMER, F SEN, JAJP BREW AND MS STRANO

(2014). Plant nanobionics approach to augment

photosynthesis and biochemical sensing. Nature Materials 13:

–408.

GALBRAITH DW (2007). Nanobiotechnology: silica breaks

through in plants. Nature Nanotechnology, 2(5): 272-273.

KHODAKOVSKAYA M, E DERVISHI, M MAHMOOD, Y XU, Z

LI, F WATANABE AND AS BIRIS (2009). Carbon nanotubes

are able to penetrate plant seed coat and dramatically affect

seed germination and plant growth. ACS Nanotechnology,

(10): 3221-3227.

GRILLO R, PC ABHILASH AND L F FRACETO (2016).

Nanotechnology Applied to Bio-Encapsulation of Pesticides.

Journal of Nanoscience and Nanotechnology, 16(1): 1231-

VALBE R, M TARKANOVSKAJA, U MAEORG, V REEDO, A

HOOP, I KINK AND A LOHMUS (2014). Elaboration of hybrid

cotton fibers treated with an ionogel/carbon nanotube mixture

using a sol-gel approach. Open Chemistry, 1.

MUKHERJEE A, S MAJUMDAR, AD SERVIN, L PAGANO,

OP DHANKHER AND JC WHITE (2016). Carbon

nanomaterials in agriculture: A critical review. Frontiers in Plant

Science, 7: 172.

ZAYTSEVA O AND G NEUMANN (2016). Carbon

nanomaterials: production, impact on plant development,

agricultural and environmental applications. Chemical and

Biological Technologies in Agriculture, 3(1): 17.

GUO S AND S DONG (2011). Graphene nanosheet: synthesis,

molecular engineering, thin film, hybrids, and energy and

analytical applications. Chemical Society Reviews, 40(5):

-2672.

OCSOY I, ML PARET, MA OCSOY, S KUNWAR, T CHEN, M

YOU AND W TAN (2013). Nanotechnology in plant disease

management: DNA-directed silver nanoparticles on graphene

oxide as an antibacterial against Xanthomonas perforans. ACS

Nanotechnolgy, 7(10): 8972-8980.

HU X AND Q ZHOU (2014). Novel hydrated graphene ribbon

unexpectedly promotes aged seed germination and root

differentiation. Scientific Reports, 4: 3782.

ZHANG M, B GAO, J CHEN AND Y LI (2015). Effects of

graphene on seed germination and seedling growth. Journal

of Nanoparticle Research, 17(2): 78.

LIU S, H WEI, Z LI, S LI, H YAN, Y HE AND Z TIAN (2015).

Effects of graphene on germination and seedling morphology

in rice. Journal of Nanoscience and Nanotechnology, 15(4):

-2701.

GEIM AK AND KS NOVOSELOV (2007). The rise of graphene.

Nature Materials, 6(3): 183-191.

NOVOSELOV KS, VI FALKO, L COLOMBO, PR GELLERT,

MG SCHWAB AND K KIM (2012). A roadmap for graphene.

Nature, 490(7419): 192-200.

DERVISHI, E Z LI, F WATANABE, A BISWAS, Y XU, AR BIRIS,

V SAINI AND AS BIRIS (2009). Large-scale graphene

production by RF-cCVD method. Chemical Communications,

: 4061-4063.

PATON KR, E VARRLA, C B ACKES, RJ SMITH, U KHAN, A

O’NEILL, C BOLAND, M LOTYA, OM ISTRATE AND P KING

(2014). Scalable production of large quantities of defect-free

few-layer graphene by shear exfoliation in liquids. Nature

Materials, 13(6): 624-630.

ZHU J (2008). Graphene production: new solutions to a new

problem. Nature Nanotechnology, 3(9): 528-529.

DREYER DR, S PARK, CW BIELAWSKI AND RS RUOFF

(2010). The chemistry of graphene oxide. Chemical Society

Reviews, 39(1): 228-240.

ZHONG YL, Z TIAN, GP SIMON AND D LI (2015). Scalable

production of graphene via wet chemistry: progress and

challenges. Materials Today, 18(2): 73-78.

PARK S AND RS RUOFF (2009). Chemical methods for the

production of graphenes. Nature Nanotechnology, 4(4): 217-

MARCANO DC, DV KOSYNKIN, JM BERLIN, A SINITSKII, Z

SUN, A SLESAREV, LB ALEMANY, W LU AND JM TOUR

(2010). Improved synthesis of graphene oxide. ACS

Nanotechnology, 4(8): 4806-4814.

ZHU YS, W MURALI, W CAI, X LI, JW SUK, JR POTTS AND

RS RUOFF (2010). Graphene and graphene oxide: synthesis,

properties, and applications. Advanced Materials, 22(35):

-3924.

CHOI W, I LAHIRI, R SEELABOYINA AND YS KANG (2010).

Synthesis of graphene and its applications: a review. Critical

Reviews in Solid State and Materials Sciences, 35(1): 52-71.

EDWARDS RS AND KS COLEMAN (2013).Graphene

synthesis: relationship to applications. Nanoscale, 5(1): 38-

SALAS EC, Z SUN, A LUTTGE AND JM TOUR (2010).

Reduction of graphene oxide via bacterial respiration. ACS

Nanotechhnology, 4(8): 4852-4856.

ZHANG H, X YU, D GUO, B QU, M ZHANG, Q LI AND T WANG

(2013). Synthesis of bacteria promoted reduced graphene

oxide-nickel sulfide networks for advanced supercapacitors.

ACS Applied Materials and Interfaces, 5(15): 7335-7340.

ATAROD M, MNASROLLAHZADEH AND SM SAJADI (2015).

Green synthesis of a Cu/reduced graphene oxide/Fe3O4

nanocomposite using Euphorbia wallichii leaf extract and its

application as a recyclable and heterogeneous catalyst for

the reduction of 4-nitrophenol and rhodamine B. RSC

Advances, 5(111): 91532-91543.

YIJIA H, L QIAN, K ZHOU, R HU, M HUANG, M WANG, G

ZHAO, Y LIU, Z XU, AND H ZHU (2019). Graphene oxide

promoted cadmium uptake by rice in soil. ACS Sustainable

Chemistry and Engineering, 7 (12): 10283-10292. DOI:

1021/acssuschemeng.8b06823

RANDVIIR EP, DA BROWNSON AND CE BANKS (2014). A

decade of graphene research: production, applications and

outlook. Materials Today, 17(9): 426-432.

FERRARI A (2016). Electrical and optical characterization of

graphene/germanium Schottky junctions.

HUMMERS JR WS AND RE OFFEMAN (1958). Preparation

of graphitic oxide. Journal of The American Chemical Society,

(6): 1339-1339.

CANAS JE, M LONG, S NATIONS, R VADAN, L DAI, M LUO,

R AMBIKAPATHI, EH LEE AND D OLSZYK (2008). Effects of

functionalized and nonfunctionalized single walled carbon

nanotubes on root elongation of select crop species.

Environmental Toxicology and Chemistry, 27(9): 1922-1931.

ZHANG BT, X ZHENG, HF LI AND JM LIN (2013). Application

of carbon-based nanomaterials in sample preparation: A

review. Analytica Chimica Acta, 784: 1-17.

TRIPATHI S AND S SARKAR (2015). Influence of water

soluble carbon dots on the growth of wheat plant. Applied

Nanoscience, 5(5): 609-616.

WANG X, H HAN, X LIU, X GU, K CHEN AND D LU (2012).

Multi-walled carbon nanotubes can enhance root elongation

of wheat (Triticum aestivum) plants. Journal of Nanoparticle

Research, 14(6): 841.

LAHIANI MH, EJ DERVISHI, J CHEN, Z NIMA, E GAUME,

AS BIRIS AND MV KHODAKOVSKAYA (2013). Impact of

carbon nanotube exposure to seeds of valuable crops. ACS

Applied Materials and Interfaces, 5(16): 7965-7973.

KHODAKOVSKAYA MV, K DE SILVA, AS BIRIS, E DERVISHI

AND H VILLAGARCIA (2012). Carbon Nanotubes Induce

Growth Enhancement of Tobacco Cells. ACS Nanotechnology,

(3): 2128-2135.

LIU Q, B CHEN, Q WANG, X SHI, Z XIAO, J LIN AND X FANG

(2009). Carbon nanotubes as molecular transporters for walled

plant cells. Nano Letters, 9(3): 1007-1010

POGODIN SNKH, SLATER AND VA BAULIN (2011). Surface

patterning of carbon nanotubes can enhance their penetration

through a phospholipid bilayer. ACS Nanotechnology, 5(2):

-1146.

WANG D, G WANG, G ZHANG, X XU AND F YANG (2013).

Using graphene oxide to enhance the activity of anammox

bacteria for nitrogen removal. Bioresources Technology, 131:

-530.

BEGUM P, R IKHTIARI AND B FUGETSU (2011). Graphene

phytotoxicity in the seedling stage of cabbage, tomato, red

spinach, and lettuce. Carbon, 49(12): 3907-3919.

NAIR R, MS MOHAMED, W GAO, T MAEKAWA, Y YOSHIDA,

PM AJAYAN AND DS KUMAR (2012). Effect of carbon

nanomaterials on the germination and growth of rice plants.

Journal of Nanoscience and Nanotechnology, 12(3): 2212-

SIDDIQUE YH, A FATIMA, S JYOTI, F NAZ, W KHAN, BR

SINGH AND AH NAQVI (2013). Evaluation of the toxic potential

of graphene copper nanocomposite (GCNC) in the third instar

larvae of transgenic Drosophila melanogaster (hsp70-lacZ)

Bg 9. PloS One, 8(12): 80944.

RAO RAK, S SINGH, BR SINGH, W KHAN AND A NAQVI

(2014). Synthesis and characterization of surface modified

grapheme zirconium oxide nanocomposite and its possible

use for the removal of chlorophenol from aqueous solution.

Journal of Environmental Chemical Engineering, 2(1): 199-

SIDDIQUE YH, W KHAN, S KHANAM, S JYOTI, F NAZ, BR

SINGH AND AH NAQVI (2014). Toxic potential of synthesized

graphene zinc oxide nanocomposite in the third instar larvae

of transgenic Drosophila melanogaster (hsp70-lacZ) Bg9.

BioMed Research International, 2014.

SHOEB MBR, M SINGH, GMG AFREEN, W KHAN AND AH

NAQVI (2015). Kinetic study on mutagenic chemical

degradation through three pot synthesiszed graphene@ ZnO

nanocomposite. PloS One, 10(8): e0135055.

SINGH BR, M SHOEB, W KHAN AND AH NAQVI

(2015).Synthesis of graphene/zirconium oxide nanocomposite

photocatalyst for the removal of rhodamine b dye from aqueous

environment. Journal of Alloys and Compounds, 651: 598-

KAH M, CN TUFENKJI AND JC WHITE (2019). Nano-enabled

strategies to enhance crop nutrition and protection. Nature

Nanotechnology, 14(6): 532-540.

ALI S, RIZWAN M, HUSSAIN A, ZIA UR REHMAN M, ALI B,

YOUSAF B, WIJAYA L, ALYEMENI MN AND AHMAD P (2019).

Silicon nanoparticles enhanced the growth and reduced the

cadmium accumulation in grains of wheat (Triticum aestivum

L.). Plant Physiology and Biochemistry, 140: 1–8.

DELFANI M, M BARADARN FIROUZABADI, N FARROKHI

AND H MAKARIAN (2014). Some physiological responses of

black-eyed pea to iron and magnesium nanofertilizers.

Communication in Soil Science and Plant Analysis, 45(4): 530–

PRADHAN S, P PATRA, S DAS, S CHANDRA, S MITRA, KK

DEY, S AKBAR, P PALIT AND A GOSWAMI (2013).

Photochemical modulation of biosafe manganese

nanoparticles on Vigna radiata: a detailed molecular,

biochemical, and biophysical study. Environmental Science

and Technology, 47: 13122–13131.

MAHAJAN P, SK DHOKE AND AS KHANNA (2011). Effect of

Nano-ZnO particle suspension on growth of mung (Vigna

radiata) and gram (Cicer arietinum) seedlings using plant agar

method. Journal of Nanotechnology. https://doi.org/10.1155/

/696535.

LIU L, T SHEN, Y YANG, B GAO, YC LI, J XIE, Y TANG, S

ZHANG, Z WANG AND J CHEN (2018). Bio-based large tablet

controlled-release urea: synthesis, characterization, and

controlled-released mechanisms. Journal of Agricultural and

Food Chemistry, 66(43): 11265-11272.

OLAD A, H ZEBHI, D SALARI, A MIRMOHSENI AND AR

TABAR (2018). Slow-release NPK fertilizer encapsulated by

carboxymethyl cellulose-based nanocomposite with the

function of water retention in soil. Materials Science and

Engineering: C, 90: 333-340.

KOTTEGODA N, C SANDARUWAN, G PRIYADARSHANA,

A SIRIWARDHANA, UA RATHNAYAKE, DMB ARACHCHIGE,

AR KUMARASINGHE, D DAHANAYAKE, V KARUNARATNE

AND A GAJ (2017). Urea-hydroxyapatite nanohybrids for slow

release of nitrogen. ACS Nanotechnology, 11: 1214–1221.

LI R, J HE, H XIE, W WANG, SK BOSE, Y SUN, J HU AND H

YIN (2019). Effects of chitosan nanoparticles on seed

germination and seedling growth of wheat (Triticum

aestivumL.). International Journal of Biological

Macromolecules, 126:91-100.

ELHAJ BADDAR Z AND JM UNRINE (2018). FunctionalizedZnO-nanoparticle seed treatments to enhance growth and Zn

content of wheat (Triticum aestivum) seedlings. Journal of

Agriculture and Food Chemistry, 66(46): 12166–12178.

BELAVA VN, OO PANYUTA, GM YAKOVLEVA, YM

PYSMENNA AND MV VOLKOGON (2017). The effect of silver

and copper nanoparticles on the wheat—pseudocercosporella

herpotrichoides pathosystem. Nanoscale Research Letters,

(1): 250.

HUSSAIN A, S ALI, M RIZWAN, MZ REHMAN UR, MF

QAYYUM, H WANG AND J RINKLEBE (2019). Responses of

wheat (Triticum aestivum) plants grown in a Cd contaminated

soil to the application of iron oxide nanoparticles. Ecotoxicology

and Environmental Safety, 173: 156-164.

OGUNYEMI SO, Y ABDALLAH, M ZHANG, H FOUAD, X

HONG, E IBRAHIM, MMI MASUM, A HOSSAIN, J MO AND B

LI (2019a). Green synthesis of zinc oxide nanoparticles using

different plant extracts and their antibacterial activity against

Xanthomonas oryzae pv. oryzae. Artificial Cells, Nanomedicine

and Biotechnology, 47(1): 341-352.

OGUNYEMI SO, F ZHANG, Y ABDALLAH, M ZHANG, Y

WANG, G SUN, W QIU AND B LI (2019b). Biosynthesis and

characterization of magnesium oxide and manganese dioxide

nanoparticles using Matricaria chamomilla L. extract and its

inhibitory effect on Acidovorax oryzae strain RS-2. Artificial

Cells, Nanomedicine, and Biotechnology, 47(1): 2230-2239.

SPAGNOLETTI FN, C SPEDALIERI, F KRONBERG AND R

GIACOMETTI (2019). Extracellular biosynthesis of bactericidal

Ag/AgCl nanoparticles for crop protection using the fungus

Macrophomina phaseolina. Journal of Environmental

Management, 231: 457–466.

CAMARA MC, EVR CAMPOS, RA MONTEIRO, ADE SANTO

PEREIRA, PL DE FREITAS PROENCA AND LF FRACETO

(2019). Development of stimuli-responsive nano-based

pesticides: emerging opportunities for agriculture. Journal of

Nanobiotechnology, 17(1): 100.

DAS S, A YADAV AND N DEBNATH (2019). Entomotoxic

efficacy of aluminium oxide, titanium dioxide and zinc oxide

nanoparticles against Sitophilus oryzae (L.): a comparative

analysis. Journal of Stored Product Research, 83: 92–96.

HUANG Y, W QIU, Z YU AND Z SONG (2017). Toxic effect of

cadmium adsorbed by different sizes of nano-hydroxyapatite

on the growth of rice seedlings. Environmental Toxicology and

Pharmacology, 52: 1-7.

MUKHERJEE K AND K ACHARYA (2018). Toxicological effect

of metal oxide nanoparticles on soil and aquatic habitats.

Archives of Environmental Contamination and Toxicology,

(2): 175-186.

SIMONIN M, AAM CANTARE, A CROUZET, J GERVAIX, JMF

MARTINS AND A RICHAUME (2018a). Negative effects of

copper oxide nanoparticles on carbon and nitrogen cycle

microbial activities in contrasting agricultural soils and in

presence of plants. Frontiers of Microbiology, 9: 3102.

SIMONIN M, BP COLMAN, W TANG, JD JUDY, SM

ANDERSON, CM BERGEMANN, JD ROCCA, JM UNRINE,

N CASSAR AND ES BERNHARDT (2018b). Plant and

microbial responses to repeated Cu(OH)2 nanopesticide

exposures under different fertilization levels in an agroecosystem. Frontiers of Microbiology, 9: 1769.

CHANDRIKA KSVP, RD PRASAD AND V GODBOLE (2019).

Development of chitosan-PEG blended films using

trichoderma: enhancement of antimicrobial activity and seed

quality. International Journal of Biological Macromolecules,

: 282–290.

ROMANAZZI G, E FELIZIANI AND D SIVAKUMAR (2018).

Chitosan, a biopolymer with triple action on postharvest decay

of fruit and vegetables: eliciting, antimicrobial and film-forming

properties. Frontiers of Microbiology, 9: 2745.

MA X, J GEISER-LEE, Y DENG AND A KOLMAKOV (2010).

Interactions between engineered nanoparticles (ENPs) and

plants: phytotoxicity, uptake and accumulation. Science of the

Total Environment, 408(16): 3053-3061.

SIDDIQUI MH AND AL WAHIBI MH (2014). Role of nano-SiO2

in germination of Tomato (Lycopersion esculentum). Saudi

Journal of Biological Sciences, 21(1): 13-17.

GHODAKE G, YD SEO AND DS LEE (2011). Hazardous

phytotoxic nature of cobalt and zinc oxide nanoparticles

assessed using Allium cepa. Journal of Hazardous Materials,

(1): 952-955.

FEIZI H, PR MOGHADDAM, N SHAHTAHMASSEBI AND A

FOTOVAT (2012). Impact of bulk and nanosized titanium

dioxide (TiO2) on wheat seed germination and seedling growth.

Biological Trace Element Research, 146(1): 101-106.

MAHAKHAM W, AK SARMAH, S MAENSIRI AND P

THEERAKULPISUT (2017). Nanopriming technology for

enhancing germination and starch metabolism of aged rice

seeds using phytosynthesized silver nanoparticles. Scientific

Reports, 7(1):1-21.

SHANKAR SS, A RAI, A AHMAD AND M SASTRY (2004).

Rapid synthesis of Au, Ag and bimetallic Au core-Ag shell

nanoparticles using neem (Azadirachta indica) leaf broth.

Journal of Colloid and Interface Science, 275(2): 496-502.

LEE HJ, LEE G, NR JANG, JH YUN, JY SONG AND BS KIM

(2011). Biological synthesis of copper nanoparticles using plant

extract. Nanotechnology, 1(1), 371-374..

VALODKAR M, RN JADEJA, MC THOUNAOJAM, RV

DEVKAR AND S THAKORE (2011). Biocompatible synthesis

of peptide capped copper nanoparticles and their biological

effect on tumor cells. Materials Chemistry and Physics, 128(1-

:83–89.

CHAUHAN R, A REDDY AND J ABRAHAM (2015).

Biosynthesis of silver and zinc oxide nanoparticles using Pichia

fermentans JA2 and their antimicrobial property. Applied

Nanoscience, 5(1): 63-71.

FATEMI M, N MOLLANIA, M MOMENI-MOGHADDAM AND

F SADEGHIFAR (2018). Extracellular biosynthesis of magnetic

iron oxide nanoparticles by Bacillus cereus strain HMH1:

characterization and in vitro cytotoxicity analysis on MCF-7

and 3T3 cell lines. Journal of Biotechnology, 270:1-11.

MISHRA S, BR SINGH, A SINGH, C KESWANI, AH NAQVI

AND HB SINGH (2014). Bio fabricated silver nanoparticles

act as a strong fungicide against Bipolaris sorokiniana causing

spot blotch disease in wheat. Public Library of Science

One, 9(5): e97881.

ROY K, CK SARKAR AND CK GHOSH (2015). Photocatalytic

activity of biogenic silver nanoparticles synthesized using yeast

(Saccharomyces cerevisiae) extract. Applied Nanosciences,

(8):953-959.

RALIYA R, P BISWAS AND JC TARAFDAR (2015). TiO2

nanoparticle biosynthesis and its physiological effect on mung

bean (Vigna radiata L.). Biotechnology Reports, 5:22-26.

BARAPATRE A, KR AADIL AND H JHA (2016). Synergistic

antibacterial and antibiofilm activity of silver nanoparticles

biosynthesized by lignin-degrading fungus. Bioresources and

Bioprocessing, 3(1):8.

EUGENIO M, N MULLER, S FRASES, R ALMEIDA-PAES,

LMT LIMA, L LEMGRUBER, M FARINA, W DE SOUZA AND

C SANTANNA (2016). Yeast-derived biosynthesis of silver/

silver chloride nanoparticles and their antiproliferative activity

against bacteria. RSC Advances, 6(12):9893-9904.

FERNÁNDEZ JG, ALMEIDA CA, FERNÁNDEZ-BALDO MA,

FELICI E, RABA J AND SANZ MI (2016). Development of

nitrocellulose membrane filters impregnated with different

biosynthesized silver nanoparticles applied to water

purification. Talanta, 146: 237-43. doi: 10.1016/

j.talanta.2015.08.060. Epub 2015 Aug 28. PMID: 26695258.

NABILA MI AND K KANNABIRAN (2018). Biosynthesis,

characterization and antibacterial activity of copper oxide

nanoparticles (CuO NPs) from actinomycetes. Biocatalysis and

Agricultural Biotechnology, 15:56-62.

SK£ADANOWSKI M, WYPIJ M, LASKOWSKI D, DAHM H

AND RAI M (2017). Silver and gold nanoparticles synthesized

from Streptomyces sp. isolated from acid forest soil with

special reference to its antibacterial activity against

pathogens. Journal of Cluster Sciences, 28: 59–79 https://

doi.org/10.1007/s10876-016-1043-6

AHMAD R, M MOHSIN, T AHMAD AND M SARDAR (2015).

Alpha amylase assisted synthesis of TiO2 nanoparticles:

structural characterization and application as antibacterial

agents. Journal of Hazardous Materials, 283:171-177.

DHAND V, L SOUMYA, S BHARADWAJ, S CHAKRA, D

BHATT AND B SREEDHAR (2016). Green synthesis of silver

nanoparticles using Coffea arabica seed extract and its

antibacterial activity. Materials Science and Engineering C,

:36-43.

SINGH P, YJ KIM, C WANG, R MATHIYALAGAN, EL-AGAMY

FARH AND DC YANG (2016). Biogenic silver and gold

nanoparticles synthesized using red ginseng root extract, and

their applications. Artificial Cells Nanomedical Biotechnology,

(3):811-816.

ADIO SO, MH OMAR, M ASIF AND TA SALEH (2017). Arsenic

and selenium removal from water using biosynthesized

nanoscale zerovalent iron: a factorial design analysis. Process

Safety and Environmental Protection, 107:518-527.

SARAVANAKUMAR A, M GANESH, J JAYAPRAKASH AND

HT JANG (2015). Biosynthesis of silver nano particles using

Cassia tora leaf extract and its antioxidant and antibacterial

activities. Journal of Industrial and Engineering

Chemistry, 28:277-281.

AMOOAGHAIE R, MR SAERI AND M AZIZI (2015). Synthesis,

characterization and biocompatibility of silver nanoparticles

synthesized from Nigella sativa leaf extract in comparison with

chemical silver nanoparticles. Ecotoxicology and

Environmental Safety, 120: 400-408.

RAVICHANDRAN V, S VASANTHI, S SHALINI, SAA SHAH

AND R HARISH (2016). Green synthesis of silver

nanoparticles using Atrocarpus altilis leaf extract and the study

of their antimicrobial and antioxidant activity. Materials Letters,

:264-267.

PATRA S, S MUKHERJEE, AK BARUI, A GANGULY, B

SREEDHAR AND CR PATRA (2015). Green synthesis,

characterization of gold and silver nanoparticles and their

potential application for cancer therapeutics. Materials Science

and Engineering: C, 53:298-309.

HYLLESTED JÆ, ME PALANCO, N HAGEN, KB

MOGENSON AND K KNEIPP (2015). Green preparation and

spectroscopic characterization of plasmonic silver

nanoparticles using fruits as reducing agents. Beilstein Journal

of Nanotechnology, 6(1): 293-299.

KHAN AU, Y WEI, A AHMAD, ZUH KHAN, KTAHIR, SU KHAN

AND Q YUAN (2016). Enzymatic browning reduction in white

cabbage, potent antibacterial and antioxidant activities of

biogenic silver nanoparticles. Journal of Molecular

Liquids, 215: 39-46.

PATTANAYAK S, MMR MOLLICK, D MAITY, S

CHAKRABORTY, SK DASH, S CHATTOPADHYAY, S ROY, D

CHATTOPADHYAY AND M CHAKRABORTY (2017). Butea

monosperma bark extract mediated green synthesis of silver

nanoparticles: characterization and biomedical applications.

Journal of Saudi Chemical Society, 21(6): 673-684.

AZIZI S, MB AHMAD, F MAMVAR AND R MOHAMAD (2014).

Green biosynthesis and characterization of zinc oxide

nanoparticles using brown marine macroalga Sargassum

muticum aqueous extract. Materials Letters, 116: 275-277.

GU H, X CHEN, F CHEN, X ZHOU AND Z Z PARSAEE (2018).

Ultrasound assisted biosynthesis of CuO-NPs using brown

alga Cystoseira trinodis: characterization, photocatalytic AOP,

DPPH scavenging and antibacterial investigations. Ultrasonic

Sonochemistry, 41:109-119.

LIANG W, A YU, G WANG, F ZHENG, J JIA AND H XU (2018).

Chitosan-based nanoparticles of avermectin to control pine

wood nematodes. International Journal of Biology and

Macromolecule. 112: 258–263.

MANNOOR MS, H TAO, JD CLAYTON, A SENGUPTA, DL

KALPAN, RR NAIK, N VERMA, FG OMENETTO AND MC

MCALPINE (2012). Graphene-based wireless bacteria

detection on tooth enamel. Nature communications, 3: 763.

WENG X AND S NEETHIRAJAN (2017). Ensuring food safety:

quality monitoring using microfluidics. Trends in Food Sciences

and Technology, 65: 10-22.

ASADNIA M, AGP KOTTAPALLI, KD KARAVITAKI, ME

WARKIANI, J MIAO, DP COREY AND M TRIANTAFYLLOU

(2016). From biological cilia to artificial flow sensors:

biomimetic soft polymer nanosensors with high sensing

performance. Scientific Reports, 6: 32955.

IKEDA M, N YAMAGUCHI, K TANI AND M NASU (2006). Rapid

and simple detection of food poisoning bacteria by bead assay

with a microfluidic chip-based system. Journal of

Microbiological Methods, 67(2): 241-247.

WENG X, G GAUR AND S NEETHIRAJAN (2016).Rapid

detection of food allergens by microfluidics ELISA-based

optical sensor. Biosensors, 6(2): 24.

WU SY, C YANG, W HSU AND L LIN (2015). 3D-printed

microelectronics for integrated circuitry and passive wireless

sensors. Microsystems and Nano Engineering, 1(1): 1-9.

YANG B, S LV, F CHEN, C LIU, C CAI, C CHEN AND CAI C

(2016). A resonance light scattering sensor based on

bioinspired molecularly imprinted polymers for selective

detection of papain at trace levels. Analytica Chimica Acta,

: 125-132.

WANG M, Y LIU, G REN, W WANG, S WU AND J SHEN

(2018). Bioinspired carbon quantum dots for sensitive

fluorescent detection of vitamin B12 in cell system. Analytica

Chimica Acta, 1032: 154-162.

KONG B, J TANG, Z WU, C SELOMULYA, H WANG, J WEI, Y

WANG, G ZHENG AND D ZHO (2014). Bioinspired porous

antenna-like nano cube/nanowire heterostructure as ultrasensitive cellular interfaces. NPG Asia Materials, 6(8): e117-

e117

BAETSEN-YOUNG AM, M VASHER, LL MATTA, P COLGAN,

EC ALOCILJA AND B DAY (2018). Direct colorimetric detection

of unamplified pathogen DNA by dextrin-capped gold

nanoparticles. Biosensors and Bioelectronics, 101: 29–36.

FANG Y AND RP RAMASAMY (2015). Current and

prospective methods for plant disease detection. Biosensors,

(3): 537–561.

RAZO SC, NA PANFEROVA, VG PANFEROV, IV

SAFENKOVA, NV DRENOVA, YA VARITSEV, AV ZHERDEV,

EN PAKINA AND BB DZANTIEV (2019). Enlargement of gold

nanoparticles for sensitive immune chromatographic

diagnostics of potato brown rot. Sensors, 19(1): 153.

KWAK SY, JP GIRALDO, MH WONG, VB KOMAN, TTS LEW,

J EII, MC WEIDMAN, RM SINCLAIR, MP LANDRY, WA

TISDALE AND MS STRANO (2017). A nano bionic lightemitting plant. Nano Letters, 17(12): 7951-7961.

WONG MH,JP GIRALDO,SY KWAK,VB KOMAN,R

SINCLAIR,TTS LEW,G BISKER,P LIU AND MS STRANO

(2017). Nitroaromatic detection and infrared communication

from wild-type plants using plant nanobionics. Nature

Materials, 16(2): 264–272.

DEUSCHLE K, B CHAUDHURI, S OKUMOTO, I LAGER, S

LALONDE AND WB FROMMER (2006). Rapid metabolism

of glucose detected with FRET glucose nanosensors in

epidermal cells and intact roots of Arabidopsis RNA-silencing

mutants. The Plant Cell, 18(9): 2314–2325.

HONDRED JA, JC BREGER, NJ ALVES, SA TRAMMELL,

SA WALPER, IL MEDINTZ AND JC CLAUSSEN (2018).

Printed graphene electrochemical biosensors fabricated by

inkjet maskless lithography for rapid and sensitive detection

of organophosphates. ACS Applied Materials and

Interfaces, 10(13): 11125-11134.

XU S, X CHEN, G PENG, L JIANG AND H HUANG (2018). An

electrochemical biosensor for the detection of Pb2+ based on

G-quadruplex DNA and gold nanoparticles. Analytical and

Bioanalytical Chemistry, 410(23): 5879-5887.

CHEN B, C LIU, L SHANG, H GUO, J QIN, L GE, CJ JING, C

FENG AND K HAYASHI (2019). Electric-field enhancement

of molecularly imprinted sol-gel-coated Au nano-urchin

sensors for vapour detection of plant biomarkers. Journal of

Materials Chemistry C, 8(1): 262–269.

LI Z, R PAUL, TB TIB, AC SAVILLE, JC HANSEL, T YU, JB

RISTAINO AND Q WEI (2019). Non-invasive plant disease

diagnostics enabled by smartphone-based fingerprinting of

leaf volatiles. Nature Plants, 5(8): 856-866.

VITHANAGE M, I HERATH, YA ALMAROAI, AU

RAJAPAKSHA, L HUANG, JK SUNG, SS LEE AND OK YS

(2017). Effects of carbon nanotube and biochar on

bioavailability of Pb, Cu and Sb in multi-metal contaminated

soil. Environmental Geochemical Health, 39(6): 1409–1420.

ASADISHAD B, S CHAHAL, A AKBARI, V CIANCIARELLI, M

AZODI, S GHOSHAL AND N TUFENKJI (2018). Amendment

of agricultural soil with metal nanoparticles: effects on soil

enzyme activity and microbial community composition.

Environmental Science and Technology, 52(4): 1908-1918.

PASCOLI M, MT JACQUES, DA AGARRAYUA, DS AVILA, R

LIMA AND LF FRACETO (2019). Neem oilbased nano

pesticide as an environmentally-friendly formulation for

applications in sustainable agriculture: an ecotoxicological

perspective. Science of The Total Environment, 677: 57-

WU H, I SANTANA, J DANSIE AND JP GIRALDO (2017). In

vivo delivery of nanoparticles into plant leaves. Current

Protocol of Chemical Biology, 9(4): 269–284.

MARRANI D (2013). Nanotechnologies and novel foods in

European law. Nano Ethics, 7(3): 177-188.

XIAOJIA H, D HUA, AG WINFRED AND H HUEY-MIN (2018).

Regulation and safety of nanotechnology in the food and

agriculture industry. In: Food applications of nanotechnology

(ed. MOLINA G) CRC Press, Taylor & Francis Group.

ARNALDI S AND A MURATORIO (2013). Nanotechnology,

uncertainty and regulation. A guest editorial. Springer. pp 173-

AZAMAT A AND S KUNAL (2015). Risks of nanotechnology

in the food industry: a review of current regulation. Nanotechnol

Perceptions, 11: 27-30.

JAIN A, S RANJAN, N DASGUPTA AND C RAMALINGAM

(2018). Nanomaterials in food and agriculture: an overview

on their safety concerns and regulatory issues. Critical Reviews

in Food Science and Nutrition, 58(2): 297-317.

KAPHLE A, PN NAVYA, A UMAPATHI, AND HK DAIMA (2018).

Nanomaterials for agriculture, food and environment:

applications, toxicity and regulation. Environmental Chemistry

Letters, 16(1): 43-58.

WACKER MG, A PROYKOVA AND GML SANTOS (2016).

Dealing with nanosafety around the globe- regulation vs.

innovation. International Journal of Pharmacology, 509(1-2):

-106.

FDA (US) (2011). Guidance for Industry use of nanomaterials

in food for animals. Rockville, MD: Center for Veterinary

Medicine, Division of Animal Feeds (HFV-226), United States

Food and Drug Administration.

EU (2012). Second regulatory review on nanomaterial.

EU (2012a). Nanomaterials. Commission proposes case by

case approach to assessment. MEMO-12-732_EN. Brussels:

European Commission.

EU (2012b). Nanomaterials. Case by case safety approach

for breakthrough technology. IP-12-1050_EN. Brussels:

European Commission.

FDA (US) (2014). Guidance for Industry, assessing the effects

of significant manufacturing process changes, Including

emerging technologies, on the safety and regulatory status of

food Ingredients and food contact substances, including food

Ingredients that are colour additives. College Park, MD: Office

Of food additive safety, HFS-205 center for food safety and

applied nutrition.United States Food and Drug Administration.

ELLIOTT KC (2014). Risk, Precaution, and Nanotechnology.

In: SANDLER RL (eds) Ethics and Emerging Technologies.

PALGRAVE MACMILLAN, London. https://doi.org/10.1057/

_27

BOWMAN D AND G HODGE (2006). Nanotechnology:

Mapping the wild regulatory frontier. Futures, 38 (9): 1060–

DAVIES J C (2008). Nanotechnology oversight: An agenda

for the next administration at the wayback machine.

ROWE G (2005). Difficulties in evaluating public engagement

initiatives: reflections on an evaluation of the uk gm nation?

Public debate about transgenic crops. Public Understanding

of Science, 14 (4): 331–352.

MAYNARD A (2008). Testimony by Dr. Andrew Maynard for

the U.S. House Committee on Science and Technology at

the Way back Machine.

FAUNCE T, K MURRAY, H NASU AND D BOWMAN (2008).

Sunscreen Safety: The precautionary principle, the Australian

therapeutic goods Administration and Nanoparticles in

Sunscreens. NanoEthics, 2(3): 231–240

ALAKESON V, A ALSOP, A ARNALL, J AYRES, ET AL. (2004).

Nanoscience and nanotechnologies: opportunities and

uncertainties. Royal Society and Royal Academy of

Engineering, pp: 1-127.

HARTHORN AND B HERR (2009). Nanotechnology

today. Archived at the Wayback Machine.

CDC (2012). “CDC – Nanotechnology – NIOSH workplace

safety and health topic”. National Institute for Occupational

Safety and Health. June 15, 2012.

CDC (2012a)”CDC – NIOSH publications and products –

Filling the knowledge gaps for safe Nanotechnology in the

workplace”. National Institute for Occupational Safety and

Health. November 7, 2012. doi:10.26616/ NIOSHPUB

MURRAY RGE (1993). Advances in Bacterial Paracrystalline

Surface Layers, (eds. BEVERIDGE TJ AND SF KOVAL), pp.

–9, Plenum Press.

DAVID R (2008). Testimony of David Rejeski for U.S. Senate

committee on commerce, science and transportation at

the wayback machine project on emerging nanotechnologies.

DELVECCHIO R (2006). Berkeley considering need for nano

safety at the Wayback Machine. sfgate.com

BRAY AND HIAWATHA (2007). Cambridge considers

nanotech curbs – City may mimic Berkeley bylaws at

the wayback machine. The Boston Globe, 26.

ROBERT W HEALY (2008). Recommendations for a municipal

health and safety policy for nanomaterials: a report to the

cambridge city manager at the wayback machine. Retrived

from nanolawreport.com.

WOLFRAM S (2002). A new kind of science. Champaign, I,

Wolfram Media, Inc. 5: 130.

BYRNE JD AND JA BAUGH (2008). The significance of

nanoparticles in particle-induced pulmonary fibrosis. An

international forum for the advancement of medical sciences

by students. McGill Journal of Medicine, 11(1): 43–50.

ELDER, A. (2006). Tiny Inhaled Particles Take Easy Route

from Nose to Brain.urmc.rochester.edu Archived September

, 2006, at the Wayback Machine.

WU J, W LIU, C XUE, S ZHOU, F LAN, L BI, H XU, X YANG

AND FD ZENG (2009). Toxicity and penetration of TiO2

nanoparticles in hairless mice and porcine skin after

subchronic dermal exposure. Toxicology Letters, 191(1): 1–

JONAITIS TS, JW CARD AND B MAGNUSON (2010).

Concerns regarding nano-sized titanium dioxide dermal

penetration and toxicity study. Toxicology Letters, 192(2): 268-

RANDVIIR EP AND CE BANKS (2017). Graphene and

graphene oxide for energy storage. Nanotechnology for

Energy Sustainability. pp 725-744.

SCHNEIDER A (2010). Amid nanotech’s dazzling promise,

health risks grow. AOL News.

WEISS R (2008). Effects of nanotubes may lead to cancer,

study says at the way back machine. Retrived from https://

www.washingtonpost.com/wp dyn/content/article/2008/05/20/

AR2008052001331.html?hpid=sechealth&sid=ST2008052100104.

PAULL J AND K LYONS (2008). Nanotechnology: the next

challenge for organics. Journal of Organic Systems, 3(1): 3-

SMITH R (2009). Nanoparticles used in paint could kill,

research suggests. London Telegraph, May 19.

SCHINWALD A, FA MURPHY, A PRINA-MELLO, CA POLAND,

F BYRNE, D MOVIA, JR GLASS, JC DICKERSON, DA

SCHULTZ, CE JEFFREE, W MACNEE AND K DONALDSON

(2012). The threshold length for fiber-induced acute pleural

inflammation: shedding light on the early events in asbestosinduced mesothelioma. Toxicological Sciences, 128(2): 461–

CUSHEN M, J KERRY, M MORRIS, M CRUZ-ROMERO AND

E CUMMINS (2012). Nanotechnologies in the food industry,

recent developments, risks and regulation. Trends in Food

Science and Technology, 24(1): 30–46.

LÓPEZ-VÁZQUEZ E, T A BRUNNER AND M SIEGRIST

(2012). Perceived risks and benefits of nanotechnology applied

to the food and packaging sector in México. British Food

Journal, 114 (2): 197–205.

SUPPAN S (2013). Nanomaterials in soil: our future food

chain? minneapolis, mn: institute for agriculture and trade

policy. Downloaded from: http://www.iatp.org/files/

_04_23_Nanotech_SS.pdf.

BOHOLM M AND R ARVIDSSON (2014). Controversy over

antibacterial silver: implications for environmental and

sustainability assessments. Journal of Cleaner Production, 68:

–143.

WANG Q, X MA, W ZHANG, H PEI AND Y CHEN (2012). The

impact of cerium oxide nanoparticles on tomato (Solanum

lycopersicum L.) and its implications for food safety.

Metallomics, 4(10): 1105–1112.

CHAUDHRY Q, SCOTTER M, BLACKBURN J, ROSS B,

BOXALL A, CASTLE L, AITKEN R, WATKINS R (2008).

Applications and implications of nanotechnologies for the food

sector. Food Additives and Contaminants, 25(3): 241–258. doi:

1080/02652030701744538.

MOMIN JK, C JAYAKUMAR AND JB PRAJAPATI (2013).

Potential of nanotechnology in functional foods. Emirates

Journal of Food and Agriculture, 25(1): 10–19.

SASTRY RK, HB RASHMI, NH RAO AND SM ILYAS (2010).

Integrating nanotechnology into agri-food systems research

in India: a conceptual framework. Technological Forecasting

and Social Change, 77(4): 639-648.

European Commission (2013). European Commission.

Brussels, Belgium: 2013. Commission Delegated Regulation

(EU) No …/.. of 12.12.2013 Amending Regulation (EU) No

/2011 of the European Parliament and of the Council on

the Provision of Food Information to Consumers as Regards

the Definition of ‘Engineered Nanomaterials’ Downloaded

from: http://www.europarl.europa.eu/meetdocs/2009_2014/

documents/envi/dv/envi20140212_dea_nano_/envi

_dea_nano_en.pdf.

SCHLYTER C, A WESTLUND, KT LIOTARD, C KLAB, S

PIETIKAINEN AND F RIES (2014). Motion for a

Resolution. Brussels, Belgium: European Parliament.

Retrievedfrom: http://www.europarl.europa.eu/meetdocs/

_2014/documents/envi/re/1015/1015222/1015222en.pdf.

CHUN AL (2009). Will the public swallow nanofood. Nature

Nanotechnology, 4(12): 790-791.

GEORGE S, G KAPTAN, J LEE AND L FREWER (2014).

Awareness on adverse effects of nanotechnology increases

negative perception among public: survey study from

Singapore. Journal of Nanoparticle Research,16(12): 2751.

HANDFORD CE, M DEAN, M SPENCE, M HENCHION, CT

ELLIOTT AND K CAMPBELL (2015). Awareness and attitudes

towards the emerging use of nanotechnology in the agri-food

sector. Food Control, 57: 24-34.

BROWN J, L FATEHI AND J KUZMA (2015). Altruism and

skepticism in public attitudes toward food nanotechnologies.

Journal of Nanoparticle Research, 17(3): 122.

CORMICK C (2009). Why do we need to know what the public

thinks about nanotechnology. Nanoethics, 3(2): 167-173.

ZHOU G AND W HU (2018). Public acceptance of and

willingness-to pay for nano foods in the U.S. Food Control,

: 219-226.

BENNETT D AND T RADFORD (2017). Public perceptions of

nanotechnologies: lessons from genetically modified foods.

In: Nanotechnologies in food (Eds.CHAUDHRY Q, CASTLE

L, WATKINS R,): Edition 2. Royal Society of Chemistry. p. 60-

HANNON JC, JP KERRY, M CRUZ-RUMERO, S AZLINASLIM, M MORRIS AND E CUMMINS (2016). Assessment

of the migration potential of nano silver from nanoparticlecoated low density polyethylene food packaging into food

simulants. Food Additives and Contaminants: Part A, 33(1):

-178.

HWANG HM, PC RAY, H YU AND X HE (2012). Toxicology of

designer/ engineered metallic nanoparticles. In: Sustainable

preparation of metal nanoparticles: methods and applications,

(eds. LUQUE R AND R VARMA), Royal Society of Chemistry

Cambridge, United Kingdom.

HE X, WG AKER, J LESZCZYNSKI AND HM HWANG (2014).

Using a holistic approach to assess the impact of engineered

nanomaterials inducing toxicity in aquatic systems. Journal of

Food and Drug Analysis, 22(1): 128-146.

HE X, WG AKER, MJ HUANG, DJ WATTS AND HM HWANG

(2015). Metal oxide nanomaterials in nanomedicine:

applications in photodynamic therapy and potential toxicity.

Current Topics in Medicinal Chemistry, 15(18): 1887-1900.

HE X, WG AKER AND HM HWANG (2015a). An in vivo study

on the photo enhanced toxicities of S-doped TiO2

nanoparticles to zebrafish embryos (Danio rerio) in terms of

malformation, mortality, rheotaxis dysfunction, and DNA

damage. Nanotoxicology, 8(1): 185-195.

HE X, WG AKER, PP FU AND HM HWANG (2015). Toxicity of

engineered metal oxide nanomaterials mediated by nano-bioeco-interactions: a review and perspective. Environmental

Science: Nano, 2(6): 564-582.

HE X, P FU, WG AKER AND HM HWANG (2018). Toxicity of

engineered nanomaterials mediated by nano-bio-eco

interactions. Journal of Environmental Science and Health,

Part C, 36(1): 21-42.

SIEG H, C KASTNER, B KRAUSE, T MEYER, A BUREL, L

BEOHMERT, D LICHTENSTEIN, H JUNGNICKEL, J

TENTSCHERT, P LAUX, A BRAUEUNING, I ESTRELALOPIS, F GAUFFRE, V FESSARD, J MEIJER, A LUCH, AN

THUNEMAAN AND A LAMPEN (2017). Impact of an artificial

digestion procedure on aluminium-containing nanomaterials.

Langmuir, 33(40): 10726-10735.

DENG H, Y ZHANG AND H YU (2018). Nanoparticles

considered as mixtures for toxicological research. Journal of

Environmental Science and Health, 36(1): 1-20.

DENG H AND H YU (2015). A mini review on controlling the

size of Ag nanoclusters by changing the stabilizer to Ag ratio

and by changing DNA sequence. Advance in Natural Science,

(12): 1-9.

DENG H AND H YU (2018). Self-assembly of rhodamine 6G

on silver nanoparticles. Chemical Physics Letters, 692: 75-

RAY PC, H YU AND PP FU (2009). Toxicity and environmental

risks of nano materials: challenges and future needs. Journal

of Environmental Science and Health Part C, 27(1): 1-35.

MCSHAN D, PC RAY AND H YU (2014). Molecular toxicity

mechanism of nano silver. Journal of Food and Drug

Analysis, 22(1): 116-127.

FU PP, Q XIA, HM HWANG, PC RAY AND H YU (2014).

Mechanisms of nanotoxicity: generation of reactive oxygen

species. Journal of Food and Drug Analysis, 22(1): 64-75.

MCSHAN D, Y ZHANG, H DENG, PC RAY AND H YU (2015).

Synergistic antibacterial effect of silver nanoparticles combined

with ineffective antibiotics on drug resistant Salmonella

typhimurium DT104. Journal of Environmental Science and

Health, Part C, 33(3): 369-384.

DASARI T, H DENG, D MCSHAN AND H YU (2014).

Nanosilver-based antibacterial agents for food safety. Food

Poisoning: Outbreaks, Bacterial Sources and Adverse Health

Effects, pp. 35-62.

KHAN MI, A MOHAMMAD, G PATIL, SAH NAQUI, LKS

CHAUHAN AND I AHMAD (2012). Induction of ROS,

mitochondrial damage and autophagy in lung epithelial cancer

cells by iron oxide nanoparticles. Biomaterials, 33(5): 1477-

LONG TC, J TAJUBA, P SAMA, N SALEH, C SWARTZ, J

PARKER, S HESTER, GV LOWRY AND B VERONESI (2007).

Nano size titanium dioxide stimulates reactive oxygen species

in brain microglia and damages neurons in vitro Environmental

Health Perspectives, 115(11): 1631-1637.

SINGH N, B MANSHIAN, GJ JENKINS, SM GRIFFITHS, PM

WILLIAMS, TG MAFFEIS, C J WRIGHT AND S H DOAK

(2009). Nano Genotoxicology: The DNA damaging potential

of engineered nanomaterials. Biomaterials, 30(23-24): 3891-

HE X AND HM HWANG (2016). Nanotechnology in food

science: functionality, applicability, and safety assessment.

Journal of Food and Drug Analysis, 24(4): 671-681.

CHEN XX, B CHENG, YX YANG, A CAO, JH LIU, LJ DU, L

YUNGFANG AND W HAIGANG (2013). Characterization and

preliminary toxicity assay of nanotitanium dioxide additive in

sugar-coated chewing gum. Small, 9(9-10): 1765-1774.

MAERTENS A AND H PLUGGE (2018). Better metrics for

“sustainable by design”: toward an in silico green toxicology

for green(er) chemistry. ACS Sustainable Chemistry and

Engineering, 6(2): 1999-2003.

GOU N, A ONNIS-HAYDEN AND AZ GU (2010). Mechanistic

toxicity assessment of nanomaterials by whole-cell-array

stress genes expression analysis. Environmental Science and

Technology, 44(15): 5964-5970.

LI X, C ZHANG, Q BIAN, N GAO, X ZHANG, Q MENG, S WU,

S WANG, Y XIA AND R CHEN (2016). Integrative functional

transcriptomic analyses implicate specific molecular pathways

in pulmonary toxicity from exposure to aluminium oxide

nanoparticles. Nanotoxicology, 10(7): 957-969.

WATERS BM AND GC TROUPE (2012). Natural variation in

iron use efficiency and mineral remobilization in cucumber

(Cucumis sativus). Plant Soil, 352(1-2): 185–197.

XU FS, YH WANG AND J MENG (2001). Mapping boron

efficiency gene (s) in Brassica napus using RFLP and AFLP

markers. Plant Breeding, 120(4): 319–324.

DU CW, YH WANG,FS XU, YH YANG AND HY WANG (2002).

Study on the physiological mechanism of boron utilization

efficiency in rape cultivars. Journal of Plant Nutrition, 25(2):

–244.

LIU G, C JIANG, Y WANG, SA PENG, B ZHONG, Q CENG

AND S YUAN (2011). Changes in mineral element contents

of Newhall’ navel orange (Citrus sinensis Osb.) grafted on two

different rootstocks under boron deficiency. Plant Nutrition and

Fertilizer Science, 17(1): 180-185.

LIU GD, RD WANG, LS WU, SA PENG, YH WANG AND CC

JIANG (2012). Boron distribution and mobility in navel orange

grafted on citrange and trifoliate orange. Plant and Soil, 360(1-

: 123-133.

WANG N, T YAN, L FU, G ZHOU, YZ LIU AND SA PENG

(2014). Differences in boron distribution and forms in four citrus

scion–rootstock combinations with contrasting boron efficiency

under boron-deficient conditions. Trees, 28(6): 1589–1598.

LEHTO T, A LAYOLA, E KALLIO AND PJ APHALO (2004).

Boron uptake by ectomycorrhizas of silver birch. Mycorrhiza,

(3): 209-212.

SARAFI E, P TSOUVALTZIS, C CHATZISSAVVIDIS, A

SIOMOS AND L THERIOS (2017). Melatonin and resveratrol

reverse the toxic effect of high boron (B) and modulate

biochemical parameters in pepper plants (Capsicum annuum

L.). Plant Physiology and Biochemistry, 112: 173-182.

NAWAZ MA, Y HUANG, X MU AND Z BIE (2016). Melatonin

application alters the root morphology and nitrogen uptake of

watermelon. In Proceedings of the Second Asian Horticultural

Congress, Chengdu, China, pp: 28–29.

KOTHARI SK, H MARSCHNER AND V ROMHELD (1990).

Direct and indirect effects of VA mycorrhizal fungi and

rhizosphere microorganisms on acquisition of mineral nutrients

by maize (Zea mays L.) in a calcareous soil. New Phytology,

: 637-645.

ADESEMOYE AO, H TORB HA AND JW KLOEPPER (2008).

Enhanced plant nutrient use efficiency with PGPR and AMF

in an integrated nutrient management system. Canadian

Journal of Microbiology, 54(10): 876–886.

RUUHOLA T AND T LEHTO (2014). Do ectomycorrhizas affect

boron uptake in Betula pendula.Canadian Journal of Forest

Research, 44(9): 1013-1019.

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Submitted

2024-09-11

Published

2024-11-28

How to Cite

SHIV K YADAV, SK LAL, S YADAV, J LAXMAN, B VERMA, MK SUSHMA, R CHOUDHARY, PK SINGH, SP SINGH, V SHARMA, & BRIJRAJ SINGH. (2024). Use of Nanotechnology in Agri-food Sectors and Apprehensions: An Overview. Seed Research, 47(2), 99-149. https://doi.org/10.56093/sr.v47i2.156378