Seed Priming: Tool towards Sustainable Agriculture


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Authors

  • VIDYA CJ University of Agricultural Sciences (GKVK), Bengaluru, Karnataka - 560 065, India Author
  • N NETHRA University of Agricultural Sciences (GKVK), Bengaluru, Karnataka - 560 065, India Author
  • N NETHRA University of Agricultural Sciences (GKVK), Bengaluru, Karnataka - 560 065, India Author
  • N NETHRA University of Agricultural Sciences (GKVK), Bengaluru, Karnataka - 560 065, India Author

https://doi.org/10.56093/sr.v52i1.158743

Keywords:

Priming, Germination, Molecular mechanism, Stress, Seed physiology, Sustainable agriculture

Abstract

Seed germination stands as a pivotal and intricate physiological occurrence in the life cycle of plants, frequently susceptible to environmental and biological stressors culminating in unpredictable germination patterns. Priming, a time-honoured technique traditionally employed for ensuring synchronized seedling growth and a steadfast crop stand, has evolved into a formidable instrument for promoting sustainable agriculture in contemporary times. Its application extends to mitigating an array of abiotic stresses, encompassing salinity, drought, cold, and heavy metal stresses, concurrently fostering the robust growth of crop plants. Notably, priming has demonstrated efficacy against biotic stress agents, countering pathogenic bacteria and fungi. This exhaustive review seeks to encapsulate diverse, successful priming methodologies that have yielded commendable outcomes, spanning enhanced growth, augmented yield, bolstered disease resistance and heightened tolerance to both abiotic and biotic stresses. The exploration delves into the subcellular transformations induced by priming, elucidating the underlying molecular and physiological aspects. The specific proteomic changes during imbibition and seed dehydration processes associated with priming, contributing significantly to elevated seed vigour, are also meticulously summarized. Against the backdrop of escalating global demands for food supply, driven by an expanding population and the excessive application of chemical fertilizers compromising soil health, seed priming emerges as a prudent, cost-effective, and eco-friendly alternative. It presents a pragmatic approach to address the imperatives of global food security through sustainable agricultural innovation.

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References

PANDEY C AND H DIWAN (2020). Assessing fertilizer use

behaviour for environmental management and sustainability:

a quantitative study in agriculturally intensive regions of Uttar

Pradesh, India. Environ Dev Sustain, 6:1–24.

TANOU G, V FOTOPOULOS AND A MOLASSIOTIS (2012).

Priming against environmental challenges and proteomics in

plants: update and agricultural perspectives. Front Plant Sci,

:216.

GONZALEZ-ZERTUCHE L, C VAZQUEZ-YANES, A

GAMBOA, ME SANCHEZ-CORONADO, P AGUILERA AND

A ROZCO-SEGOVIA (2001). Natural priming of Wigandia

urens seeds during burial: effects on germination, growth and

protein expression. Seed Sci Res, 11:27–34.

WIJAYRATNE UC AND DA PYKE (2012). Burial increases

seed longevity of two Artemisia tridentata (Asteraceae)

subspecies. Am J Bot, 99(3):438–447.

SOUZA ML, DRP SILVA, LB FANTECELLE AND JPD LEMOS

(2015). Key factors affecting seed germination of Copaifera

langsdorffii, a Neotropical tree. Acta Bot Bras, 29:473–477.

SILVA BF, IHF AZEVEDO, A MAYHE-NUNES, T BREIER AND

FREITAS AFND (2019). Ants promote germination of the tree

Guarea guidonia by cleaning its seeds. Floresta Ambiente

https://doi.org/10.1590/2179-8087.015118.

HEYDECKER W (1974). Germination of an idea: the priming

of seeds. Reports of School of Agricultural University

Nottingham. 1973, pp 50–67.

VARIER A, AK VARI AND M DADLANI (2010). The subcellular

basis of seed priming. Curr Sci, 25:450-456.

HUSSAIN S, F KHAN, HA HUSSAIN AND L NIE (2016).

Physiological and biochemical mechanisms of seed priminginduced chilling tolerance in rice cultivars. Front Plant Sci,

:116.

SELVARANI K AND R UMARANI (2011). Evaluation of seed

priming methods to improve seed vigour of onion (Allium cepa

cv. aggregatum) and carrot (Daucus carota). J Agric Technol,

(3):857–867.

TANOU G, V FOTOPOULOS AND A MOLASSIOTIS (2012).

Priming against environmental challenges and proteomics in

plants: update and agricultural perspectives. Front Plant Sci,

:216.

BALMER A, V PASTOR, J GAMIR, V FLORS AND B MAUCHMANI (2015). The ‘prime-ome’: towards a holistic approach

to priming. Trends Plant Sci, 20(7):443–452.

GAO YP, L YOUNG, PC BONHAM-SMITH AND LV GUSTA

(1999). Characterization and expression of plasma and

tonoplast membrane aquaporins in primed seed of Brassica

napus during germination under stress conditions. Plant Mol

Biol, 40:635–644.

CHEN K, A FESSEHAIE AND R ARORA (2013). Aquaporin

expression during seed osmopriming and post-priming

germination in spinach. Biol Plant, 57(1):193–198.

MATSUNAMI M, H HAYASHI, M MURAI-HATANO AND J

ISHIKAWA-SAKURAI (2021). Effect of hydropriming on

germination and aquaporin gene expression in rice. Plant

Growth Regul, 4:1–8.

VANDER WILLIGEN C, O POSTAIRE, C TOURNAIRE-ROUX,

Y BOURSIAC AND C MAUREL (2006). Expression and

inhibition of aquaporins in germinating Arabidopsis seeds.

Plant Cell Physiol, 47(9):1241–1250.

FAROOQ M, SM BARSA AND A WAHID (2006). Priming of

field-sown rice seed enhances germination, seedling

establishment, allometry and yield. Plant Growth Regul, 49(2–

:285–294.

ASHRAF M AND MR FOOLAD (2005). Pre-sowing seed

treatment-a shotgun approach to improve germination, plant

growth, and crop yield under saline and nonsaline conditions.

Adv Agron, 88:223–271.

CHEN K, A FESSEHAIE AND R ARORA (2012). Dehydrin

metabolism is altered during seed osmopriming and

subsequent germination under chilling and desiccation in

Spinacia oleracea L. cv. Bloomsdale: possible role in stress

tolerance. Plant Sci, 183:27–36.

BATTAGLIA M AND AA COVARRUBIAS (2013). Late

embryogenesis abundant (LEA) proteins in legumes. Front

Plant Sci, 4:190.

GALLARDO K, C JOB, SP GROOT, M PUYPE, H DEMOL, J

VANDEKERCKHOVE AND D JOB (2001). Development and

hormone action proteomic analysis of Arabidopsis seed

germination and priming. Plant Physiol, 126(2):835–848.

SOEDA Y, MC KONINGS, O VORST, AM VAN

HOUWELINGEN, GM STOOPEN, CA MALIEPAARD, JB

KODDE, SP GROOT AND AH VAN DER GEEST (2005). Gene

expression programs during Brassica oleracea seed

maturation, osmopriming, and germination are indicators of

progression of the germination process and the stress

tolerance level. Plant Physiol, 137(1):354–368.

PAUL S AND A ROYCHOUDHURY (2017). Effect of seed

priming with spermine/ spermidine on transcriptional regulation

of stress-responsive genes in salt-stressed seedlings of an

aromatic rice cultivar. Plant Gene, 11:133–142.

PAPAEFTHIMIOU D, E LIKOTRAFITI, A KAPAZOGLOU, K

BLADENOPOULOS AND A TSAFTARIS (2010). Epigenetic

chromatin modifiers in barley: III. Isolation and characterization

of the barley GNAT-MYST family of histone acetyltransferases

and responses to exogenous ABA. Plant Physiol Biochem,

(2–3):98–107.

ZHANG J, F CHEN, Z WANG, H CAO, X LI, X DENG, WJ

SOPPE, Y LI AND Y LIU (2012). A novel role for histone

methyltransferase KYP/SUVH4 in the control of Arabidopsis

primary seed dormancy. N Phytol, 193(3):605–616.

KIM W, Y LEE, J PARK, N LEE AND G CHOI (2013). HONSU,

a protein phosphatase 2C, regulates seed dormancy by

inhibiting ABA signaling in Arabidopsis. Plant Cell Physiol,

(4):555–572.

SHU K, XD LIU, Q XIE AND ZH HE (2016). Two faces of one

seed: hormonal regulation of dormancy and germination. Mol

Plant, 9(1):34–45

DIAZ-VIVANCOS P, G BARBA-ESPÍN AND JA HERNΑNDEZ

(2013). Elucidating hormonal/ROS networks during seed

germination: insights and perspectives. Plant Cell Rep,

(10):1491–1502.

SUKIFTO R, R NULIT, YC KONG, N SIDEK, SN MAHADI, N

MUSTAFA AND RA RAZAK (2020). Enhancing germination

and early seedling growth of Malaysian indica rice (Oryza

sativa L.) using hormonal priming with gibberellic acid (GA3).

AIMS Agric Food, 5(4):649.

OLUOCH MO AND GE WELBAUM (1996). Viability and vigor

of osmotically primed muskmelon seeds after nine years of

storage. J Am Soc Hortic Sci, 121(3):408–413.

TOOROP PE, AC VAN AELST AND HW HILHORST (1998).

Endosperm cap weakening and endo-β-mannanase activity

during priming of tomato (Lycopersicon esculentum cv.

Moneymaker) seeds are initiated upon crossing a threshold

water potential. Seed Sci Res, 8(4):483–492.

HUSSAIN S, H YIN, S PENG, FA KHAN, F KHAN, M

SAMEEULLAH, HA HUSSAIN, J HUANG AND K CUI, L NIE

(2016). Comparative transcriptional profiling of primed and

non-primed rice seedlings under submergence stress. Front

Plant Sci, 7:1125.

MAGNESCHI L, RL KUDAHETTIGE, A ALPI AND P PERATA

(2009). Expansin gene expression and anoxic coleoptile

elongation in rice cultivars. J Plant Physiol, 166(14):1576–

SANCHEZ MD, SH GURUSINGHE, KJ BRADFORD AND JM

VAZQUEZ-RAMOS (2005). Differential response of PCNA and

Cdk-A proteins and associated kinase activities to

benzyladenine and abscisic acid during maize seed

germination. J Exp Bot, 56(412):515–523.

OZBINGOL N, F CORBINEAU, SP GROOT, RJ BINO AND D

COME (1999). Activation of the cell cycle in tomato

(Lycopersicon esculentum Mill.) seeds during osmo

conditioning as related to temperature and oxygen. Ann Bot,

(2):245–251.

BECKERS GJ, M JASKIEWICZ, Y LIU, WR UNDERWOOD,

SY HE, S ZHANG AND U CONRATH (2009). Mitogenactivated protein kinases 3 and 6 are required for full priming

of stress responses in Arabidopsis thaliana. Plant Cell,

(3):944–953.

CONRATH U (2011) Molecular aspects of defence priming.

Trends Plant Sci, 16(10):524–531.

XUE LJ, JJ ZHANG AND X HONG-WEI (2009).

Characterization and expression profiles of miRNAs in rice

seeds. Res Spec Publ, 37(3):916–930.

CHENG J, L WANG, P ZENG, Y HE, R ZHOU, H ZHANG AND

Z WANG (2017). Identification of genes involved in rice seed

priming in the early imbibition stage. Plant Biol, 19(1):61–69.

SHETEIWY MS, J AN, M YIN, X JIA, Y GUAN, F HE AND J

HU (2019). Cold plasma treatment and exogenous salicylic

acid priming enhances salinity tolerance of Oryza sativa

seedlings. Protoplasma, 256(1):79–99.

DEVOTO A, P PIFFANELLI, I NILSSON, E WALLIN, R

PANSTRUGA, G VON HEIJNE AND P SCHULZE-LEFERT

(1999). Topology, subcellular localization, and sequence

diversity of the Mlo family in plants. J Biol Chem,

(49):34993–35004.

ASSMANN SM (2002). Heterotrimeric and unconventional

GTP binding proteins in plant cell signaling. Plant Cell 14(Suppl

, S355–S373.

BAI X, L YANG, Y YANG, P AHMAD, Y YANG AND X HU (2011).

Deciphering the protective role of nitric oxide against salt stress

at the physiological and proteomic levels in maize. J Proteome

Res, 10(10):4349–4364.

YANG P, X LI, X WANG, H CHEN, F CHEN AND S SHEN

(2007). Proteomic analysis of rice (Oryza sativa) seeds during

germination. Proteomics, 7(18):3358–3368.

MOOSAVI A, R TAVAKKOL AFSHARI, F SHARIF-ZADEH AND

A AYNEHBAND (2009). Effect of seed priming on germination

characteristics, polyphenoloxidase, and peroxidase activities

of four amaranth cultivars. J Food Agric Environ, 7:353–358.

VARI A, S MITRABINDA, M DADLANI AND SP SHARMA

(2003). Physiological and biochemical changes associated

with osmopriming in maize seeds. In: 2nd International

congress of plant physiology, pp 8–12.

GALLARDO K, C JOB, SP GROOT, C PUYPE, H DEMOL, J

VANDEKEREKHOVE AND D JOB (2004). Proteomics of

Arabidopsis seed germination and priming. In: The biology of

seeds: recent advances. CABI, Cambridge, pp 199–209.

KESTER ST, RL GENEVE AND RL HOUTZ (1997). Priming

and accelerate ageing affect L-isoaspartyl methyltransferase

activity in tomato (Lycopersicon esculentum Mill.) seed. J Exp

Bot, 48(4):943–949,

WANG W, A HE, S PENG, J HUANG, K CUI AND L NIE (2014).

The effect of storage condition and duration on the

deterioration of primed rice seeds. Front Plant Sci, 9:172.

PAPARELLA S, SS ARAUJO, G ROSSI, M WIJAYASINGHE,

D CARBONERA AND A BALESTRAZZI (2015). Seed priming:

state of the art and new perspectives. Plant Cell Rep,

(8):1281–1293.

JEEVAN KUMAR SP, S RAJENDRA PRASAD, R BANERJEE

AND C THAMMINENI (2015). Seed birth to death: dual

functions of reactive oxygen species in seed physiology. Ann

Bot, 116(4):663–668.

APEL K AND H HIRT (2004). Reactive oxygen species:

metabolism, oxidative stress, and signal transduction. Annu

Rev Plant Biol, 5:373–399.

DIETZ KJ, R MITTLER AND G NOCTOR (2016). Recent

progress in understanding the role of reactive oxygen species

in plant cell signaling. Plant Physiol, 171(3):1535–1539.

ZHAO B, R LIANG, L GE, W LI, H XIAO, H LIN, K RUAN AND

Y JIN (2007). Identification of drought-induced microRNAs in

rice. Biochem Biophys Res Commun, 354(2):585–590.

HE D, Q WANG, K WANG AND P YANG (2015). Genomewide dissection of the microRNA expression profile in rice

embryo during early stages of seed germination. PLoS ONE,

(12):0145424.

KIM JY, KJ KWAK, HJ JUNG, HJ LEE AND H KANG (2010).

MicroRNA402 affects seed germination of Arabidopsis thaliana

under stress conditions via targeting DEMETER-LIKE Protein3

mRNA. Plant Cell Physiol, 51(6):1079–1083.

WU MF, Q TIAN AND JW REED (2006). Arabidopsis

microRNA167 controls patterns of ARF6 and ARF8 expression,

and regulates both female and male reproduction and

development Genomics, 133(21):4211–4218.

WEI L, LF QIN AND T WANG (2011). Deep sequencing on

genome-wide scale reveals the unique composition and

expression patterns of microRNAs in developing pollen of

Oryza sativa. Genome Biol, 12(6):1–16.

WATANABE KA, P RINGLER, L GU AND QJ SHEN (2014).

RNA-sequencing reveals previously unannotated protein- and

microRNA-coding genes expressed in aleurone cells of rice

seeds. Genomics, 103(1):122–134.

BERJAK P AND NW PAMMENTER (2002). Orthodox and

recalcitrant seeds. In: Tropical tree seed handbook. USDA,

pp 137–147.

BERJAK P AND N PAMMENTER (2013). Implications of the

lack of desiccation tolerance in recalcitrant seeds. Front Plant

Sci, 4:478.

BECERRA-VΑZQUEZ AG, R COATES, S SΑNCHEZ-NIETO,

R REYES-CHILPA AND A OROZCO-SEGOVIA (2020). Effects

of seed priming on germination and seedling growth of

desiccation-sensitive seeds from Mexican tropical rainforest.

J Plant Res, 133(6):855–872.

MOHANLALL V, K ODAYAR AND B ODHAV (2013). The role

of nanoparticles on the plant growth of orthodox and

recalcitrant seeds. Adv Compos Biocompos Nanocompos

(1):287–304.

CASTRO-COLINA L, M MARTINEZ-RAMOS, ME SANCHEZCORONADO, P HUANTE, A MENDOZA AND A OROZCOSEGOVIA (2012). Effect of hydropriming and acclimation

treatments on Quercus rugosa acorns and seedlings. Eur J

For Res, 131(3):747–756.

FATOKUN K, RP BECKETT, B VARGHESE AND NW

PAMMENTER (2021). Cathodic water enhances seedling

emergence and growth of controlled deteriorated orthodox

seeds. Plants, 10(6):1170.

FATOKUN K, RP BECKETT, B VARGHESE, J CLOETE AND

NW PAMMENTER (2020). Influence of cathodic water

invigoration on the emergence and subsequent growth of

controlled deteriorated pea and pumpkin seeds. Plants,

(8):955.

GONDWE DSB, P BERJAK, NW PAMMENTER AND B

VARGHESE (2016). Effect of priming with cathodic water and

subsequent storage on invigoration of Pisum sativum,

Cucurbita maxima and Lycopersicon esculentum seeds. Seed

Sci Technol, 44(2):370–381.

WANG Z, H LI, X LI, C XIN, J SI, S LI, Y LI, X ZHENG, H LI, X

WEI AND Z ZHANG (2020). Nano-ZnO priming induces salt

tolerance by promoting photosynthetic carbon assimilation in

wheat. Arch Agron Soil Sci, 66(9):1259–1273.

LUTTS S, P BENINCASA, L WOJTYLA, S KUBALA, R PACE,

LECHOWSKA, K QUINET AND M GARNCZARSKA (2016).

Seed priming: new comprehensive approaches for an old

empirical technique. In: New challenges in seed biology: basic

and translational research driving seed technology., vol 12.

InTech Open, Rijeka, pp 1-46.

DEY S, R KUNDU, G GOPAL, A MUKHERJEE, A NAG AND S

PAUL (2019), Enhancement of nitrogen assimilation and photosynthetic efficiency by novel iron pulsing technique in Oryza

sativa L. var Pankaj. Plant Physiol Biochem, 144:207–221.

DEY S, S PAUL, A NAG, R BANERJEE, G GOPAL, A

MUKHERJEE AND R KUNDU (2021). Iron-pulsing, a novel

seed invigoration technique to enhance crop yield in rice: a

journey from lab to field aiming towards sustainable agriculture.

Sci Total Environ, 769:144-671.

MACDONALD C AND B SINGH (2014). Harnessing plant–

microbe interactions for enhancing farm productivity.

Bioengineered, 5(1):5–9.

KHALAKI MA, M MOAMERI, BA LAJAYER AND T ASTATKIE

(2021). Influence of nano-priming on seed germination and

plant growth of forage and medicinal plants. Plant Growth

Regul, 93:13–28.

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. Sci Rep

(1):1–21.

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Submitted

2024-10-23

Published

2024-10-28

How to Cite

VIDYA CJ, N NETHRA, N NETHRA, & N NETHRA. (2024). Seed Priming: Tool towards Sustainable Agriculture. Seed Research, 52(1), 30-40. https://doi.org/10.56093/sr.v52i1.158743