Most popular articles
Everything About Peaches. Clemson University Cooperative Extension Service Everything About Peaches Website: whether you are a professional or backyard peach...
Mission Statement. For the sake of mankind and the world as a whole a further increase of the sustainability...
Newsletter 9: July 2013 - Temperate Fruits in the Tropics and Subtropics. Download your copy of the Working Group Temperate...
USA Walnut varieties. The Walnut Germplasm Collection of the University of California, Davis (USA). A description of the Collection and a History...
China Walnut varieties.

Articles

MOLECULAR GENETICS AND GENOMICS AND KIWIFRUIT BREEDING

Article number
913_5
Pages
63 – 70
Language
English
Abstract
All breeding stocks for kiwifruit improvement have been recently collected from wild populations.
The 1904 accession into New Zealand gave rise to a successful cultivar, ‘Hayward’, after two or three generations.
Crossing diverse parents one and two generations away from wild populations resulted in the cultivar ‘Hort16A’. Current breeding programmes are also only a few generations from wild populations, and have investigated and utilized only a small proportion of the available genetic diversity.
This is a different situation from almost all other fruit trees and vines, where novelty is mostly sought from recombination of alleles from elite cultivars and selections; that is, from a comparatively narrow genetic base many generations away from original wild populations, which may no longer exist.
In Actinidia, the process of accumulating desirable combinations of alleles has just begun.
Fortunately, this comes at a time when molecular genetics and genomics are rapidly evolving high-throughput and increasingly cheap protocols.
Although Actinidia is a challenging genus – dioecious, polyploid, taxonomically difficult because of reticulate evolution – the process of utilizing molecular genetics and genomics to predict outputs from crosses is under way.

Publication
Authors
M.A. McNeilage, L.G. Fraser, G.K. Tsang, P.M. Datson, H.N. De Silva, R.N. Crowhurst , A.R. Ferguson
Keywords
Actinidia, expressed sequence tags (ESTs), simple sequence repeats (SSRs) or microsatellites, genetic maps, association studies, genomic selection
Full text
Online Articles (96)
M.A. McNeilage | L.G. Fraser | G.K. Tsang | P.M. Datson | H.N. De Silva | R.N. Crowhurst | A.R. Ferguson
R.A. Beatson | P.A. Alspach | A.J. Currie | P.M. Harris-Virgin | A. White
Y.J. Wu | M. Xie | Q.C. Zhang | H.Q. Zhang | J.B. Fang
M. Montefiori | R.V. Espley | D.D. Stevenson | J.M. Cooney | P.M. Datson | A. Saiz | R.G. Atkinson | T. McGhie | R.P. Hellens | A.C. Allan
Y. Wang | H. Yang | J. Yang | Y. Man | L. Zhang | Z. Jiang | R. Qin | H. Huang
A. Taglienti | M. Ritota | S. Cozzolino | P. Sequi | M. Valentini | L. Conte | M. Terlizzi
Y.B. Kwack | H.L. Kim | W.B. Chae | D.W. Lee | H.S. Choi | K.H. KAng
H. Matsumoto | T. Seino | K. Beppu | K. Suezawa | T. Fukuda | I. Kataoka
E. Rugini | V. Cristofori | D. Martignoni | P. Gutierrez-Pesce | S. Orlandi | E. Brunori | R. Biasi | R. Muleo | P. Magro
E.J.F. Souleyre | C.S. Günther | M.Y. Wang | R.D. Newcomb | K.B. Marsh
E. Varkonyi-Gasic | R. Wu | S. Moss | R.P. Hellens
Youn-Sup Cho | Hye-Sung Cho | Moon-Young Park | Kyeong-Cheol Ma | Dong-Geun Lim | Byeong-Joon Jeong | Sung-Cheol Kim
S. Nardozza | H.L. Boldingh | A.C. Richardson | G. Costa | E.A. MacRae | M.J. Clearwater
B. Morandi | P. Losciale | M. Zibordi | L. Manfrini | L. Corelli Grappadelli
Y. Ebrahimi | H. Jorshari | K. Lashtneshaii | K. Homam
M.B. Currie | K.J. Patterson | T. Dawson | P. Ramankutty | P. Blattmann
G. Costa | F. Spinelli | A. Soto | S. Nardozza | L. Asteggiano | G. Vittone
B. Dichio | G. Montanaro | M. Mazzeo | A. Lang
H. Liang | Y. Hu | W. Pang | W. Liu | M. Yang
Y.B. Kwack | H.L. Kim | H.D. Kim | Y.H. Choi
N.M.R. Vattiprolu | D.J. Woolley | B.M. van Hooijdonk
G.M. Balestra | M. Renzi | L. Ricci | M.C. Taratufolo | A. Quattrucci | A. Rossetti | A. Mazzaglia
M.N. Pearson | D. Cohen | R. Chavan | A. Blouin
K.V. Wurms | A. Ah Chee | T. Reglinski | J.T. Taylor | M.Y. Wang | E.N. Friel | R. Chynoweth
S. Di Lenarda | M. Martini | R. Osler | G. Vizzotto | G. Prete | C. Frausin
T. Yano | S. Shimizu | T. Miyoshi | N. Miyata | K. Immon | T. Shinozaki | H. Sawada | K. Kageyama
C.H. Crisosto | J. Zegbe | J. Hasey | G.M. Crisosto
B. Pancino | D. Ferrucci | N. Passeri | P. Grassi | G. Cassoni
D. Remorini | F. Tardelli | R. Massai | L. Guidi | E. Degl'Innocenti | G. Agati
M.D.C. Antunes | D.A.C. Rodrigues | A.M. Cavaco | M.G. Miguel
G. Costa | E. Bonora | G. Fiori | M. Noferini
T. Cooper | K. Sagredo | A. Mansilla | J. Streif
N. Lallu | J. Burdon | D. Billing | P. Pidakala | K. McDermott | G. Haynes
L. Asteggiano | L. Giordani | A. Bevilacqua | G. Vittone | G. Costa
C.M. Cantin | A. Soto | G.M. Crisosto | C.H. Crisosto
D. Ceccarelli | A.M. Simeone | A. Del Toro | P. Nota | M.G. Piazza | A. Sartori | L. Conte | M. Terlizzi | A. Di Cintio | E. Caboni
R. van den Dungen | S. Te Lintel Hekkert | S.M. Cristescu | F.J.M. Harren
D. Ferrucci | N. Passeri | B. Pancino | D. Scipione
A.R. Ferguson | G. Costa