Projekat Ministarstva nauke Republike Srbije, br. BTR 200089: Unapređenje sortimenta, tehnologije proizvodnje i primarne dorade uljane tikve-golice i nevena

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Projekat Ministarstva nauke Republike Srbije, br. BTR 200089: Unapređenje sortimenta, tehnologije proizvodnje i primarne dorade uljane tikve-golice i nevena

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Publications

Novel approaches to implementation of pumpkin resistance in control of viral diseases

Bulajić, Aleksandra; Vučurović, Ana; Stanković, Ivana; Ristić, Danijela; Berenji, Janoš; Krstić, Branka

(Institut za pesticide i zaštitu životne sredine, Beograd i Društvo za zaštitu bilja Srbije, Beograd, 2010)

TY  - JOUR
AU  - Bulajić, Aleksandra
AU  - Vučurović, Ana
AU  - Stanković, Ivana
AU  - Ristić, Danijela
AU  - Berenji, Janoš
AU  - Krstić, Branka
PY  - 2010
UR  - http://aspace.agrif.bg.ac.rs/handle/123456789/2252
AB  - As there is a growing frequency of viral plant diseases in epidemic proportions, the possibilities for successful control are constantly being explored. Despite the fact that integral and simultaneous employment of numerous control measures may contribute to the decreasing amount of yield losses, especially concerning non-persistently aphid-transmitted viruses, these measures are often not efficient enough. Research into the basis of resistance to viral infection and principles of its inheritance, introduction of sources of resistance in susceptible genotypes, by conventional or genetic manipulations, are very intensive for cucurbit crops, especially pumpkins. Pumpkin crops are being endangered by a great number of different viruses, among which the Zucchini yellow mosaic virus, (ZYMV), Watermelon mosaic virus (WMV) and Cucumber mosaic virus (CMV) are present every year in Serbia, frequently causing epidemics. The majority of pumpkin cultivars are not resistant or tolerant to viral infections, but sources of resistance have been identified in various related species. So far, the identified sources of resistance to the ZYMV are found in Cucurbita moschata and Citrullus lanatus var. lanatus genotypes and consist of one or several major dominant genes of resistance. It is a similar case with WMV, although the sources of dominant major genes are identified in C. lanatus and C. colocynthis. The sources of resistance to CMV in the form of one dominant gene have been identified in the genotype C. moschata, although the introduction of this gene by conventional means proved to be very difficult. Besides the aforementioned, substantial efforts are being made in developing genotypes with multiple resistance against several viruses and even other pathogens, as well as genotypes with resistance to the most significant plant aphid species, through mechanisms of antixenosis or antibiosis. The other way of obtaining resistant genotypes includes genetic manipulation. Genetically modified resistant pumpkins have been among the first successfully developed crops. Genotypes with pathogen derived resistance can already be found in commercially grown pumpkins in some parts of the world, and they have been developed by introducing the coat protein gene of one, two or all three viruses which are the most frequent, ZYMV, WMV and CMV. Yet, this approach to the control of pumpkin viral diseases is related to possible negative consequences, mostly through the already detected gene transfer to wild plants and development of resistant transgenic weeds of unpredictable impact on the environment. Improved host plant genetic resistance to viral infections or biological vectors, developed by conventional or genetic engineering methods, represents the most dynamic and prominent field of research. It is economically and ecologically the most justified approach to the control of pumpkin and other plant diseases caused by viruses non-persistently transmitted by aphids.
AB  - Kako je pojava brojnih viroza gajenih biljaka u epidemijskim razmerama sve češća, mogućnosti za uspešnu kontrolu stalno se ispituju. Integralna i istovremena primena brojnih pojedinačnih mera kontrole, naročito u slučaju virusa koji se prenose biljnim vašima na neperzistentan način, mogu da doprinesu smanjenju šteta, ali često nisu dovoljno efikasne. Proučavanja osnova otpornosti i načina nasleđivanja, unošenje izvora otpornosti u osetljive genotipove, konvencionalnim ili genetičkim manipulacijama, vrlo su intenzivna kod vrežastih kultura, posebno tikve. Tikve ugrožava veliki broj raznorodnih virusa od kojih se u Srbiji svake godine javljaju virus žutog mozaika cukinija (Zucchini yellow mosaic virus, ZYMV), virus mozaika lubenice (Watermelon mosaic virus, WMV) i virus mozaika krastavca (Cucumber mosaic virus, CMV), a pojedinih godina izazivaju epidemije. Većina sorti gajenih tikava ne poseduje otpornost ili tolerantnost na virusne zaraze, ali izvori otpornosti identifikovani su u različitim srodnim vrstama. Do sada identifikovani izvori otpornosti na ZYMV nalaze se u genotipovima Cucurbita moschata i Citrullus lanatus var. lanatus i obuhvataju jedan ili nekoliko major gena rezistentnosti koji se nasleđuju dominantno. Slična situacija je i sa WMV, mada su izvori dominantnih major gena identifikovani u C. lanatus i C. colocynthis. Izvor otpornosti na CMV u vidu jednog dominantnog gena identifikovan je u genotipu C. moschata, mada je unošenje ovog gena konvencionalnim putem bilo veoma teško. Pored toga, veliki napori ulažu se u dobijenje genotipova sa istovremenom otpornošću na više virusa čak i drugih patogena, kao i genotipova koji ispoljavaju otpornost na najznačajnije vrste biljnih vaši, kroz mehanizme antiksenoze ili antibioze. Drugi pravac dobijanja otpornih genotipova podrazumeva genetičke manipulacije. Genetski modifikovane otporne tikve su među prvima, od svih gajenih biljaka, uspešno razvijene. Genotipovi sa PD (pathogen derived) otpornošću već se nalaze u komercijalnoj proizvodnji tikava u nekim delovima sveta i dobijeni su unošenjem gena za CP (coat protein) jednog, dva ili sva tri u svetu najraširenija virusa, ZYMV, WMW i CMV. Ipak, ovaj prilaz kontroli virusnih oboljenja tikava vezan je za uočene moguće negativne posledice, pre svega kroz već registrovan transfer gena u biljke spontane flore i nastanak otpornih transgenih korova nepredvidljivog ponašanja i značaja u prirodi. Poboljšana genetička otpornost biljke domaćina bilo na infekciju virusima, bilo na biološke vektore, dobijena konvencionalnim ili metodama genetičkog inženjeringa predstavlja najdinamičnije i najperspektivnije polje istraživanja kao ekonomski i ekološki najopravdaniji pristup kontroli oboljenja tikava i drugih biljaka koje izazivaju virusi koji se neperzistetno prenose biljnim vašima.
PB  - Institut za pesticide i zaštitu životne sredine, Beograd i Društvo za zaštitu bilja Srbije, Beograd
T2  - Pesticidi i fitomedicina
T1  - Novel approaches to implementation of pumpkin resistance in control of viral diseases
T1  - Novi pravci primene otpornosti tikava u kontroli virusnih oboljenja
EP  - 211
IS  - 3
SP  - 201
VL  - 25
DO  - 10.2298/PIF1003201B
ER  - 
@article{
author = "Bulajić, Aleksandra and Vučurović, Ana and Stanković, Ivana and Ristić, Danijela and Berenji, Janoš and Krstić, Branka",
year = "2010",
abstract = "As there is a growing frequency of viral plant diseases in epidemic proportions, the possibilities for successful control are constantly being explored. Despite the fact that integral and simultaneous employment of numerous control measures may contribute to the decreasing amount of yield losses, especially concerning non-persistently aphid-transmitted viruses, these measures are often not efficient enough. Research into the basis of resistance to viral infection and principles of its inheritance, introduction of sources of resistance in susceptible genotypes, by conventional or genetic manipulations, are very intensive for cucurbit crops, especially pumpkins. Pumpkin crops are being endangered by a great number of different viruses, among which the Zucchini yellow mosaic virus, (ZYMV), Watermelon mosaic virus (WMV) and Cucumber mosaic virus (CMV) are present every year in Serbia, frequently causing epidemics. The majority of pumpkin cultivars are not resistant or tolerant to viral infections, but sources of resistance have been identified in various related species. So far, the identified sources of resistance to the ZYMV are found in Cucurbita moschata and Citrullus lanatus var. lanatus genotypes and consist of one or several major dominant genes of resistance. It is a similar case with WMV, although the sources of dominant major genes are identified in C. lanatus and C. colocynthis. The sources of resistance to CMV in the form of one dominant gene have been identified in the genotype C. moschata, although the introduction of this gene by conventional means proved to be very difficult. Besides the aforementioned, substantial efforts are being made in developing genotypes with multiple resistance against several viruses and even other pathogens, as well as genotypes with resistance to the most significant plant aphid species, through mechanisms of antixenosis or antibiosis. The other way of obtaining resistant genotypes includes genetic manipulation. Genetically modified resistant pumpkins have been among the first successfully developed crops. Genotypes with pathogen derived resistance can already be found in commercially grown pumpkins in some parts of the world, and they have been developed by introducing the coat protein gene of one, two or all three viruses which are the most frequent, ZYMV, WMV and CMV. Yet, this approach to the control of pumpkin viral diseases is related to possible negative consequences, mostly through the already detected gene transfer to wild plants and development of resistant transgenic weeds of unpredictable impact on the environment. Improved host plant genetic resistance to viral infections or biological vectors, developed by conventional or genetic engineering methods, represents the most dynamic and prominent field of research. It is economically and ecologically the most justified approach to the control of pumpkin and other plant diseases caused by viruses non-persistently transmitted by aphids., Kako je pojava brojnih viroza gajenih biljaka u epidemijskim razmerama sve češća, mogućnosti za uspešnu kontrolu stalno se ispituju. Integralna i istovremena primena brojnih pojedinačnih mera kontrole, naročito u slučaju virusa koji se prenose biljnim vašima na neperzistentan način, mogu da doprinesu smanjenju šteta, ali često nisu dovoljno efikasne. Proučavanja osnova otpornosti i načina nasleđivanja, unošenje izvora otpornosti u osetljive genotipove, konvencionalnim ili genetičkim manipulacijama, vrlo su intenzivna kod vrežastih kultura, posebno tikve. Tikve ugrožava veliki broj raznorodnih virusa od kojih se u Srbiji svake godine javljaju virus žutog mozaika cukinija (Zucchini yellow mosaic virus, ZYMV), virus mozaika lubenice (Watermelon mosaic virus, WMV) i virus mozaika krastavca (Cucumber mosaic virus, CMV), a pojedinih godina izazivaju epidemije. Većina sorti gajenih tikava ne poseduje otpornost ili tolerantnost na virusne zaraze, ali izvori otpornosti identifikovani su u različitim srodnim vrstama. Do sada identifikovani izvori otpornosti na ZYMV nalaze se u genotipovima Cucurbita moschata i Citrullus lanatus var. lanatus i obuhvataju jedan ili nekoliko major gena rezistentnosti koji se nasleđuju dominantno. Slična situacija je i sa WMV, mada su izvori dominantnih major gena identifikovani u C. lanatus i C. colocynthis. Izvor otpornosti na CMV u vidu jednog dominantnog gena identifikovan je u genotipu C. moschata, mada je unošenje ovog gena konvencionalnim putem bilo veoma teško. Pored toga, veliki napori ulažu se u dobijenje genotipova sa istovremenom otpornošću na više virusa čak i drugih patogena, kao i genotipova koji ispoljavaju otpornost na najznačajnije vrste biljnih vaši, kroz mehanizme antiksenoze ili antibioze. Drugi pravac dobijanja otpornih genotipova podrazumeva genetičke manipulacije. Genetski modifikovane otporne tikve su među prvima, od svih gajenih biljaka, uspešno razvijene. Genotipovi sa PD (pathogen derived) otpornošću već se nalaze u komercijalnoj proizvodnji tikava u nekim delovima sveta i dobijeni su unošenjem gena za CP (coat protein) jednog, dva ili sva tri u svetu najraširenija virusa, ZYMV, WMW i CMV. Ipak, ovaj prilaz kontroli virusnih oboljenja tikava vezan je za uočene moguće negativne posledice, pre svega kroz već registrovan transfer gena u biljke spontane flore i nastanak otpornih transgenih korova nepredvidljivog ponašanja i značaja u prirodi. Poboljšana genetička otpornost biljke domaćina bilo na infekciju virusima, bilo na biološke vektore, dobijena konvencionalnim ili metodama genetičkog inženjeringa predstavlja najdinamičnije i najperspektivnije polje istraživanja kao ekonomski i ekološki najopravdaniji pristup kontroli oboljenja tikava i drugih biljaka koje izazivaju virusi koji se neperzistetno prenose biljnim vašima.",
publisher = "Institut za pesticide i zaštitu životne sredine, Beograd i Društvo za zaštitu bilja Srbije, Beograd",
journal = "Pesticidi i fitomedicina",
title = "Novel approaches to implementation of pumpkin resistance in control of viral diseases, Novi pravci primene otpornosti tikava u kontroli virusnih oboljenja",
pages = "211-201",
number = "3",
volume = "25",
doi = "10.2298/PIF1003201B"
}
Bulajić, A., Vučurović, A., Stanković, I., Ristić, D., Berenji, J.,& Krstić, B.. (2010). Novel approaches to implementation of pumpkin resistance in control of viral diseases. in Pesticidi i fitomedicina
Institut za pesticide i zaštitu životne sredine, Beograd i Društvo za zaštitu bilja Srbije, Beograd., 25(3), 201-211.
https://doi.org/10.2298/PIF1003201B
Bulajić A, Vučurović A, Stanković I, Ristić D, Berenji J, Krstić B. Novel approaches to implementation of pumpkin resistance in control of viral diseases. in Pesticidi i fitomedicina. 2010;25(3):201-211.
doi:10.2298/PIF1003201B .
Bulajić, Aleksandra, Vučurović, Ana, Stanković, Ivana, Ristić, Danijela, Berenji, Janoš, Krstić, Branka, "Novel approaches to implementation of pumpkin resistance in control of viral diseases" in Pesticidi i fitomedicina, 25, no. 3 (2010):201-211,
https://doi.org/10.2298/PIF1003201B . .
1

Frequency and molecular characterization of watermelon mosaic virus from Serbia

Vučurović, Ana; Bulajić, Aleksandra; Stanković, Ivana; Ristić, Danijela; Berenji, Janoš; Krstić, Branka

(Institut za pesticide i zaštitu životne sredine, Beograd i Društvo za zaštitu bilja Srbije, Beograd, 2010)

TY  - JOUR
AU  - Vučurović, Ana
AU  - Bulajić, Aleksandra
AU  - Stanković, Ivana
AU  - Ristić, Danijela
AU  - Berenji, Janoš
AU  - Krstić, Branka
PY  - 2010
UR  - http://aspace.agrif.bg.ac.rs/handle/123456789/2251
AB  - Watermelon mosaic virus (WMV) is widespread in cucurbit crops, most commonly occuring in temperate and Mediterranean regions. In Serbia WMV has been detected in single and mixed infections with Zucchini yellow mosaic virus and Cucumber mosaic virus in field-grown pumpkin and squash crops. Among pumpkin-affecting viruses WMV is the most frequent one, both by the number of localities and its incidence at each location. During the growing season of 2009, samples from 583 plants of Cucurbita pepo cvs. Olinka, Belgrade zucchini and Tosca (Zucchini group), as well as from C. maxima and C. moschata showing symptoms of virus infection were collected from 12 commercial fields at eight localities and analyzed by DAS-ELISA using polyclonal antisera specific to six most important cucurbit viruses. Interestingly, WMV was detected at fewer sites and had lower incidence rate than in two previous years. In single infections, WMV was found in 11% of tested plants in three fields; in mixed infections with ZYMV, it was recorded in 9.9% of plants in five fields and with CMV in only 0.2% in one field. The partial coat protein gene and 3' non-translated region from two representative isolates of WMV originating from different localities and host plant species were amplified by RT-PCR, sequenced, and compared with the sequences available in GenBank database. The PCR-amplified fragment of predicted size of approximately 1017 bp was obtained. The sequences of isolates 137-08 (Acc. No. GQ259958) and 159-08 (GU144020) proved to be 94-99% identical at the nucleotide level with those from other parts of the world. The sequences of these two isolates differed from each other only at two nucleotide positions, without any amino acid substitution. Phylogenetic analysis of 57 isolates based on 750 bp sequences of the coat protein gene showed no correlation between isolates and their geographic origin, and it also indicated that these isolates fell into three molecular groups of strains. Serbian WMV isolates belong to group I, the most widespread group of isolates of this virus in the world.
AB  - Virus mozaika lubenice (Watermelon mosaic virus, WMV) široko je rasprostranjen u usevima vrežastih kultura, mada se najčešće javlja na Mediteranu i regionima sa umerenom klimom. U Srbiji, WMV je detektovan u pojedinačnim i mešanim infekcijama sa virusom žutog mozaika cukinija (Zucchini yellow mosaic virus, ZYMV) i virusom mozaika krastavca (Cucumber mosaic virus, CMV) u usevima tikava i bundeva gajenim na otvorenom polju. Od virusa tikava, WMV je često prevalentan virus, kako po broju lokaliteta u kojima je dokazan, tako i po učestalosti u samom usevu. Iz ukupno 12 komercijalnih useva na osam lokaliteta, 2009. godine sakupljeno je 583 biljaka Cucurbita pepo cvs. Olinka, Beogradska tikvica i Tosca (cukini forma), kao i C. maxima i C. moschata, sa simptomima virusnih zaraza, koje su analizirane na prisustvo šest najznačajnijih virusa tikava primenom DAS-ELISA metode. WMV je detektovan na manjem broju lokaliteta i u manjoj učestalosti u poređenju sa prethodne dve vegetacije. U pojedinačnim infekcijama, WMV je detektovan u 11% testiranih biljaka u tri useva, a u mešanim sa ZYMV u 9,9% testiranih biljaka u pet useva i sa CMV u 0,2% testiranih biljaka u jednom usevu. Deo gena za protein omotača virusa i deo 3' neprepisujućeg regiona dva odabrana izolata WMV poreklom iz različitih lokaliteta i biljaka domaćina umnožen je primenom RT-PCR metode, sekvencioniran i upoređen sa sekvencama dostupnim u GenBank bazi podataka. Dobijen je PCR produkt očekivane veličine od 1017 bp. Sekvence izolata 137-08 (Acc. No. GQ259958) i 159-08 (GU144020) pokazale su 94-99% nukleotidne identičnosti sa izolatima WMV iz drugih delova sveta. Sekvence ova dva izolata razlikovala su se jedna od druge samo u dva nukleotidna mesta što nije imalo za posledicu aminokiselinske supstitucije. Filogenetske analize 57 izolata, na osnovu 750 bp sekvence gena za protein omotača, nisu ukazale na korelaciju sa geografskim poreklom izolata, a pokazala su grupisanje izolata u tri molekularne grupe sojeva. Izolati WMV iz Srbije pripadaju grupi I, grupi koja obuhvata najrasprostranjenije izolate ovog virusa u svetu.
PB  - Institut za pesticide i zaštitu životne sredine, Beograd i Društvo za zaštitu bilja Srbije, Beograd
T2  - Pesticidi i fitomedicina
T1  - Frequency and molecular characterization of watermelon mosaic virus from Serbia
T1  - Učestalost pojave i molekularna karakterizacija virusa mozaika lubenice poreklom iz Srbije
EP  - 230
IS  - 3
SP  - 213
VL  - 25
DO  - 10.2298/PIF1003213V
ER  - 
@article{
author = "Vučurović, Ana and Bulajić, Aleksandra and Stanković, Ivana and Ristić, Danijela and Berenji, Janoš and Krstić, Branka",
year = "2010",
abstract = "Watermelon mosaic virus (WMV) is widespread in cucurbit crops, most commonly occuring in temperate and Mediterranean regions. In Serbia WMV has been detected in single and mixed infections with Zucchini yellow mosaic virus and Cucumber mosaic virus in field-grown pumpkin and squash crops. Among pumpkin-affecting viruses WMV is the most frequent one, both by the number of localities and its incidence at each location. During the growing season of 2009, samples from 583 plants of Cucurbita pepo cvs. Olinka, Belgrade zucchini and Tosca (Zucchini group), as well as from C. maxima and C. moschata showing symptoms of virus infection were collected from 12 commercial fields at eight localities and analyzed by DAS-ELISA using polyclonal antisera specific to six most important cucurbit viruses. Interestingly, WMV was detected at fewer sites and had lower incidence rate than in two previous years. In single infections, WMV was found in 11% of tested plants in three fields; in mixed infections with ZYMV, it was recorded in 9.9% of plants in five fields and with CMV in only 0.2% in one field. The partial coat protein gene and 3' non-translated region from two representative isolates of WMV originating from different localities and host plant species were amplified by RT-PCR, sequenced, and compared with the sequences available in GenBank database. The PCR-amplified fragment of predicted size of approximately 1017 bp was obtained. The sequences of isolates 137-08 (Acc. No. GQ259958) and 159-08 (GU144020) proved to be 94-99% identical at the nucleotide level with those from other parts of the world. The sequences of these two isolates differed from each other only at two nucleotide positions, without any amino acid substitution. Phylogenetic analysis of 57 isolates based on 750 bp sequences of the coat protein gene showed no correlation between isolates and their geographic origin, and it also indicated that these isolates fell into three molecular groups of strains. Serbian WMV isolates belong to group I, the most widespread group of isolates of this virus in the world., Virus mozaika lubenice (Watermelon mosaic virus, WMV) široko je rasprostranjen u usevima vrežastih kultura, mada se najčešće javlja na Mediteranu i regionima sa umerenom klimom. U Srbiji, WMV je detektovan u pojedinačnim i mešanim infekcijama sa virusom žutog mozaika cukinija (Zucchini yellow mosaic virus, ZYMV) i virusom mozaika krastavca (Cucumber mosaic virus, CMV) u usevima tikava i bundeva gajenim na otvorenom polju. Od virusa tikava, WMV je često prevalentan virus, kako po broju lokaliteta u kojima je dokazan, tako i po učestalosti u samom usevu. Iz ukupno 12 komercijalnih useva na osam lokaliteta, 2009. godine sakupljeno je 583 biljaka Cucurbita pepo cvs. Olinka, Beogradska tikvica i Tosca (cukini forma), kao i C. maxima i C. moschata, sa simptomima virusnih zaraza, koje su analizirane na prisustvo šest najznačajnijih virusa tikava primenom DAS-ELISA metode. WMV je detektovan na manjem broju lokaliteta i u manjoj učestalosti u poređenju sa prethodne dve vegetacije. U pojedinačnim infekcijama, WMV je detektovan u 11% testiranih biljaka u tri useva, a u mešanim sa ZYMV u 9,9% testiranih biljaka u pet useva i sa CMV u 0,2% testiranih biljaka u jednom usevu. Deo gena za protein omotača virusa i deo 3' neprepisujućeg regiona dva odabrana izolata WMV poreklom iz različitih lokaliteta i biljaka domaćina umnožen je primenom RT-PCR metode, sekvencioniran i upoređen sa sekvencama dostupnim u GenBank bazi podataka. Dobijen je PCR produkt očekivane veličine od 1017 bp. Sekvence izolata 137-08 (Acc. No. GQ259958) i 159-08 (GU144020) pokazale su 94-99% nukleotidne identičnosti sa izolatima WMV iz drugih delova sveta. Sekvence ova dva izolata razlikovala su se jedna od druge samo u dva nukleotidna mesta što nije imalo za posledicu aminokiselinske supstitucije. Filogenetske analize 57 izolata, na osnovu 750 bp sekvence gena za protein omotača, nisu ukazale na korelaciju sa geografskim poreklom izolata, a pokazala su grupisanje izolata u tri molekularne grupe sojeva. Izolati WMV iz Srbije pripadaju grupi I, grupi koja obuhvata najrasprostranjenije izolate ovog virusa u svetu.",
publisher = "Institut za pesticide i zaštitu životne sredine, Beograd i Društvo za zaštitu bilja Srbije, Beograd",
journal = "Pesticidi i fitomedicina",
title = "Frequency and molecular characterization of watermelon mosaic virus from Serbia, Učestalost pojave i molekularna karakterizacija virusa mozaika lubenice poreklom iz Srbije",
pages = "230-213",
number = "3",
volume = "25",
doi = "10.2298/PIF1003213V"
}
Vučurović, A., Bulajić, A., Stanković, I., Ristić, D., Berenji, J.,& Krstić, B.. (2010). Frequency and molecular characterization of watermelon mosaic virus from Serbia. in Pesticidi i fitomedicina
Institut za pesticide i zaštitu životne sredine, Beograd i Društvo za zaštitu bilja Srbije, Beograd., 25(3), 213-230.
https://doi.org/10.2298/PIF1003213V
Vučurović A, Bulajić A, Stanković I, Ristić D, Berenji J, Krstić B. Frequency and molecular characterization of watermelon mosaic virus from Serbia. in Pesticidi i fitomedicina. 2010;25(3):213-230.
doi:10.2298/PIF1003213V .
Vučurović, Ana, Bulajić, Aleksandra, Stanković, Ivana, Ristić, Danijela, Berenji, Janoš, Krstić, Branka, "Frequency and molecular characterization of watermelon mosaic virus from Serbia" in Pesticidi i fitomedicina, 25, no. 3 (2010):213-230,
https://doi.org/10.2298/PIF1003213V . .