Hegedus Attila

Dr. Hegedus Attila

Department of Plant Biotechnology, Institute of Genetics and Biotechnology, Hungarian University of Agriculture and Life Sciences, 1118 Budapest, Hungary
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Research Focus & Metrics

Academic Career Length

30Years (1997-Present)

(Calculated once Scilit publication data is synced: current year − year of first publication + 1)

Representative Publications

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1 May 2001 in Plant Science
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Journal Article
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Hegedus AttilaHegedus Attila
Hegedus Attila
SESára Erdei
Sára Erdei
GHGábor Horváth
Gábor Horváth

30 May 2014 in Biological Research
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Journal Article
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MGMuttalip Gundogdu
Muttalip Gundogdu
KOKoray Ozrenk
Koray Ozrenk
Sezai ErcisliSezai Ercisli
Sezai Ercisli
TKTuncay Kan
Tuncay Kan
OKOssama Kodad
Ossama Kodad
Hegedus AttilaHegedus Attila
Hegedus Attila
The Hawthorn (Crateagus sp.) mostly occurs around the temperate region of the world with a high number of species, producing a fruit with numerous beneficial effects for human health. The aim of the study was to determine organic acid and sugar contents in the fruit of a number of hawthorn species grown in Erzincan province of Turkey. Citric acid was the predominant organic acid in all hawthorn species and C. pseudoheterophylla had the highest citric acid content (23.688 g/100 g). There were not statistically significant differences among hawthorn species (except C. atrosanguinea Pojark) in terms of fumaric acid content. C.pontica C.Koch had a higher content of vitamin C (9.418 mg/100 g) compared to other species. Fructose was the predominant sugar component in all species and C. monogyna subsp. monogyna Joiq had the highest fructose content (18.378 g/100 g). The high fruit quality of the studied species indicates the importance of this fruit in human nutrition as a natural source. The study revealed that there were differences in terms of fruit characteristics among hawthorn species and thus better quality hawthorn genotypes can be selected within the species. Hence, this study is considered to be a valuable reference for forthcoming studies. The high fruit quality of the studied species indicates the importance of this fruit in human nutrition as a natural source.

7 October 2010 in Journal of Food Science
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Hegedus AttilaHegedus Attila
Hegedus Attila
RERita Engel
Rita Engel
LALászló Abrankó
László Abrankó
EBEmó´kE Balogh
Emó´kE Balogh
ABAnna Blázovics
Anna Blázovics
ÉSÉva Stefanovits‐Bányai
Éva Stefanovits‐Bányai

1 May 2004 in Plant Science
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Journal Article
Closed access
Hegedus AttilaHegedus Attila
Hegedus Attila
SESára Erdei
Sára Erdei
TJTibor Janda
Tibor Janda
ETErika Tóth
Erika Tóth
GHGábor Horváth
Gábor Horváth
DDDénes Dudits
Dénes Dudits

25 January 2010 in International Journal of Food Science and Technology
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Journal Article
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NPNóra Papp
Nóra Papp
BSBlanka Szilvássy
Blanka Szilvássy
LALászló Abrankó
László Abrankó
TSTibor Szabó
Tibor Szabó
PPPéter Pfeiffer
Péter Pfeiffer
Hegedus AttilaHegedus Attila
Hegedus Attila

1 September 2010 in Journal of the American Society for Horticultural Science
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JHJúlia Halász
Júlia Halász
APAndrzej Pedryc
Andrzej Pedryc
SESezai Ercisli
Sezai Ercisli
KYKadir Ugurtan Yilmaz
Kadir Ugurtan Yilmaz
Hegedus AttilaHegedus Attila
Hegedus Attila
The S -genotypes of a set of Turkish and Hungarian apricot ( Prunus armeniaca L.) cultivars were determined by polymerase chain reaction (PCR) amplification of their S - RNase intron regions. In addition, the S -genotyping method was extended to the SFB gene to detect the non-functional S C -haplotype and hence reliably identify self-compatible apricot cultivars. We determined the complete S -genotype of 51 cultivars and the partial S -genotype of four cultivars. A total of 32 different S -genotypes were assigned to the 51 cultivars, and many of them (28) were classified into newly established cross-incompatibility groups III through XIV. Another 12 cultivars demonstrated unique incompatible genotypes and seven self-compatible cultivars were identified in the examined accessions. The fact that Turkish and Hungarian apricot cultivars carry 12 and five S -alleles, respectively, and all five alleles detected in Hungarian cultivars were also present in Turkish apricots furnished molecular evidence supporting the long-suspected historical connection between Hungarian and Turkish apricots. The connection between these two gene pools appeared to be relatively recent and associated with historical events dating back 300 years. Our results confirm that Turkish germplasm contributed considerably to the development of several desirable Hungarian apricot cultivars. Results suggest that the mutation rendering the S C -haplotype non-functional might have occurred somewhere east of central Turkey.