Graft Hybrids Bibliography
- Bianchi, F. (1963) Transmission of male sterility in Petunia by grafting. Genen Phaenen 8: 53-64.
- Burbidge, F. W. (1875) Curiosities of Grafting. The Garden, 8: 460.
- Corbett M. K. and R. Edwardson (1964) Inter-graft transmission of
cytoplasmic male sterility. Nature 201: 847-848.
- Curtis, G. J. (1967) Graft-transmission of male sterility in sugar beet (Beta vulgaris L.) Euphytica 16(3): 419-424.
- Daniel, L. (1894) Création de
variétés nouvelles au moyen de la greffe. Compte Rendus 118(14): 992-995.
- Daniel, L. (1897) La greffe mixte. Comptes Rendus 75: 661-664.
- Daniel, L. (1921) Grafting and Evolution. Scientific American 4:115-117.
- Daniel, L. Bibliography
- Darwin: Laburnocytisus
- Eisen, G. (1871) The reciprocal influence of stock and scion. Zoe 2: 108-111
- Evans, A. M. and D. G. Jones (1964) Effect of Graft and Sexual
Hybridization on the Nodulation of Trifolium ambiguum M.B. Annals
of Botany 28: 221-228.
- Frankel, R. (1956) Graft induced transmission to progeny of cytoplasmic male sterility in Petunia. Science 124: 684-685.
- Frankel, R. (1962) Future evidence on graft induced transmission
to progeny of cytoplasmic male sterility in petunia. Genetics 47:
641-646.
- Glushchenko, I. E. (1950) The importance of vegetative hybrids to understanding the heredity of plants.
- Hirata, Y. (1979) Graft-induced changes in eggplant (S.
melongena L.) I. Changes of hypocotyl color in the grafted scions and in
the progenies of the grafted scions. JPN J Breed 29:
318-323.
- Hirata, Y. (1980) Graft-induced changes in eggplant (S.
melongena L.) II. Changes of fruit color and fruit shape in the grafted
scions and in the progenies of the grafted scions. JPN J Breed 30: 83-90.
- Hirata, Y. (1980) Graft-induced
changes in skin and flesh color in tomato (Lycopersicon esculentum). Jpn.
Soc. Hort. Sci.,
- Hirata, Y. (2003) Molecular mechanism of graft
transformation in red pepper (Capsicum annuum L.). Acta Hort. 625:
125-130
- Hirata, Y. (1993) Prospects for graft transformation and
plant chimera. 41-43. Wide
Crosses in Plants and Utilization of Cell and Tissue Culture, Ed.Takeda, G. (Tokyo, Japan)
- Hirata, Y. and N. Yagishita
(1986) Graft-induced changes in
soybean storage proteins. I. Appearance of the changes. Euphytica, 35:
395-401
- Hirata, Y. and N. Yagishita
(1993) Graft-induced genetic changes in red pepper (Capsicum annuum L.) In
vitro chimera formation in Brassica. Crop Improvement in Asia, 599-604
- Hirata, Y., H. Sassa and N.
Yagishita (1989) Graft transformation in tobacco (Nicotiana tabacum L.) Sixth
Inter. Cong. SABRAO, (Tsukuba)
- Hirata, Y., N. Yagishita, L.
Ledoux and M. Thiry, (1986) Graft-induced changes in pepper (Capsicum annuum L.), 4th Meeting on Genetics and Breeding on
Capsicum and Eggplant, Zaragoza, Spain
- Hirata, Y., T. Noguchi, M. Kita,
T. Kan and L. Ledoux (1995) Graft
transformation and its mechanism in higher plants. Modification of gene
expression and non-Mendelian Inheritance. US-Japanese Joint Meeting, NIAR Japan pp. 325-340 (Tsukuba)
- Kalantidis K (2004) Grafting the way to the
systemic silencing signal in plants. PLoS Biol 2(8):
e224.
- Kan, T., Y. Hirata and H. Sassa
(1993) Graft transformation in tobacco (Nicotiana tabacum). Crop
Improvement in Asia, 591-598
- Michurin I.V. (1929): Principles and Methods: Vegetative Approximation
- Nawa, S., M-A Yamada, Y. Ohta (1975) Hereditary changes in Capsicum annuum L. III. Induced by DNA treatment. Japanese Journal of Genetics 50(4) 341-344
- Ohsawa, R., Y. Hirata, and N.
Yagishita (1989) Pollen-mixture
effect on germination and tube growth of pollen in Cyclamen and Primula. Bull.
General Educ. Tokyo Univ. Agr. & Techn. 26:183-189.
- Ohta, Y. (1991) Graft-transformation, the mechanism for graft-induced genetic changes in higher plants. Euphytica 55(1):
91-99.
- Ohta, Y. and P. V. Chuong (1975) Hereditary changes in Capsicum annuum L. I. Induced by ordinary grafting. Euphytica 24(2): 355-368.
- Ohta, Y. and P. V. Chuong (1975) Hereditary changes in Capsicum annuum L. II. Induced by virus-inoculated grafting. Euphytica 24(3): 605-611.
- Pandey K.K. (1976) Genetic transformation and
"graft-hybridization" in flowering plants. Theor Appl Genet, 47:
299-302.
- Scientific Committee (1899) Results of Sowing Tomato Seed saved from Potato Plant grafted with Tomato. Proc. Roy. Hort. Soc. XXIII: xxii.
- Scion (1898) The effect of the graft on the flavour of the fruit. Gardeners’ Chronicle (Ser. 3) 24: 246
- Sonoda, S. and M. Nishiguchi (2000) Graft transmission of post-transcriptional gene silencing: target specificity for RNA degradation is transmissible between silenced and non-silenced plants, but not between silenced plants. The Plant Journal 21(1); 1-8.
- Swingle, W. (1927) Graft Hybrids in Plants. J Hered. 18: 73-94
- Taller, J, Y. Hirata, N. Yagishita, M. Kita, S. Ogata (1998)
Graft-induced genetic changes and the inheritance of several characteristics in
pepper (Capsicum annuum L.). Theor Appl Genet 97:
705-713.
- Taller, J., Y. Hirata, M. Kita and
C. Sugitani (1997) Characterization of
Graft-Induced Genetic Changes in Pepper (Capsicum Annuum L.). 8th SABRAO General Congre., (Seoul, Korea)
- Taller, J., N. Yagishita and Y.
Hirata (1997) Practice Use
Grafting-Induced Variation in Breeding of Pepper (Capsicum Annuum L.). 8th SABRAO General Congre., (Seoul,
Korea)
- Taller, J., N. Yagishita and Y.
Hirata (1999) Graft-induced variants
as a source of novel characteristics in the breeding of pepper (Capsicum
annuum L.). Euphytica, 108: 73-78
- Taller, J., Y. Hirata and N.
Yagishita and M. Kita, and S. Ogata (1998) Graft-induced genetic changes and the inheritance of several
characteristics in pepper (Capsicum annuum L.) Theor. Appl. Genet., 97:
705-713.
- Traka-Mavrona, E., M. Koutsika-Sotirioub and T. Pritsa (2000) Response of squash (Cucurbita spp.) as rootstock for melon (Cucumis melo L.) Scientia Horticulturae 83(3-4): 353-362.
- Van Marrewijk, G.A.M. (1969) Cytoplasmic male sterility in petunia. I. Restoration of fertility with special reference to the influence of environment. Euphytica 18(1): 1-20.
- Yagishita N (1961) Studies on graft hybrids of Capsicum annuum L. I. Variation in fruit shape caused by grafting and the effects in the first and second generations. Botanical Magazine (Tokyo) 74: 122-130
- Yagishita N (1961) Studies on graft hybrids of Capsicum annuum L. II. Variation in fruit shape caused by grafting the effects in the progenies. Botanical Magazine (Tokyo)74: 480-489.
- Yagishita, N. and Y. Hirata
(1986) Genetic nature of bushy
plant type in the variant strain induced by grafting in Capsicum annuum L. Euphytica, 35:17-23
- Yagishita, N. and Y. Hirata (1987)
Graft-induced change in fruit shape in Capsicum annuum L. I. Genetic analysis by crossing. Euphytica, 36: 809-814
- Yagishita, N., H. Ushiki and Y.
Hirata (1988) Computer analysis of graft-induced change in fruit shape I.
Correlation between meterological observations and fruit shape in the progenies
from the graft in Capsicum annuum L. Bull. General Educ. Tokyo Univ. Agr. & Techn., 25:
293-308
- Yagishita, N., Y. Hirata, H.
Mizukami, H. Ohashi, and K. Yamashita (1990) Genetic nature of low capsaicin content in the variant strains induced by grafting in Capsicum annuum L.
Euphytica 46(3): 249-252.
- Yagishita, N.,Y. Hirata, K.
Okochi, K. Miura, H. Mizukami and H. Ohashi (1985) Characterization of graft-induced change in capsaicin
content of Capsicum annuum L. Euphytica, 34: 297-301
- Zhang D-H, Z-H Meng, W-M Xiao, X-C Wang, Sodmergen (2002)
Graft-induced inheritable variation in mung bean and its application in mung
bean breeding. Acta Bot Sin, 44: 832-837.
Genetics Today: Proceedings of the XI International Congress of Genetics (1963) p. 218-219
13.29. Alterations of Hereditary Traits in Solanum melongena induced by Grafts with Solanum nigrum.
C. C. Mathon, M. Stroun and J. Stroun (Poitiers, France).
The pupil plant is the "white round" eggplant, and the mentor plant a strain of black nightshade.
The pupil is the epibiota and the mentor the hypobiota. Controls are represented by homografts of the pupil variety. The technical conditions are as follows: for the pupil plant: of a less advanced age than the mentor-plant and total removal of leaves all along evolution; for the mentor plant: maintenance of leaves and absence of flower-buds which are cut off as soon as they appear.
The influence of the black nightshade mentor on the "white round" eggplant pupil became apparent only in the offsprings of the third generation of grafts. Out of 7 symbionts carrying fruit at the third generation of grafts, 2 offer in their descendency an alteration that so far prevailed down to F3: the colour of the stem is slightly purple. These anthocyanins are extremely thermolabile.
Chromatographic analyses made so far show the Rf of anthocyanins to be different from those found in the black nightshade.
In these interspecific grafts we did not observe any mentor-oriented alterations. However, the new traits that have become apparent in the descendency of both modified plants are of the same type, therefore, the influence of the mentor may be assumed to work in both pupils in the same direction.
Article to be published in: Comptes rendus des séances de la Société de Biologie de France, 1963;
Archives des Sciences de Genève, 1963.
Genetics Today: Proceedings of the XI International Congress of Genetics (1963) p. 219
13.30. Alteration of Traits obtained in Solanum melongena as a Consequence of Inter-variety
Grafts.
M. Stroun and J. Stroun (Poitiers, France).
The "Early Violet" variety was used as mentor-plant and the "White Round" variety as pupil-plant. The mentor-epibiont / pupil-hypobiont grafting procedure is applied as follows: the pupil-plant is totally rid of its leaves all along its development, whereas the mentor-plant retains its foliage but is rid of its flower buds which are cut off. The graft is repeated on each new generation until alterations appear. Sexual crossbreeds were also made "White Round"
x "Early Violet"
.
The 19 homografted "White Round"/"White Round" controls did not show any alterations.
The influence of the mentor-plant "Early Violet" on the pupil variety "White Round" appeared only at the third generation of grafts. Out of 24 fruit-bearing symbionts, 9 presented various alterations in fruit and stem colour, shape of fruit, or in a trait of the stamen. These alterations resemble the traits of the mentor variety. They are found again in the sexual descendants of the modified symbionts, studied so far down to F2. They often differ from the characteristics conveyed by sexual crossings between the two varieties used. There is a disjunction in F1, only part of the alterations being transmitted. Futhermore, new traits appear on certain plants. To all appearances therefore, grafts, as practised by the authors, seem to influence the hereditary traits of a given variety.
C. R. Acad. Sci. 255, 561-563, 1962; Arch. Sci. Genéve, 1963, to be published.
Also, Epigenetics, Gene Silencing, RNAi