Almond breeding programme in CEBAS-CSIC, in Murcia (Spain)

Similar documents
Self-pollination versus cross-pollination of six self-compatible almond cultivars: Pollen tube growth and fruit set

Recent advances in breeding for autogamy in almond

Almond Breeding: important issues and challenges for research

Nine Hungarian almond cultivars in the Republic of Macedonia

Determination of the best time of harvest in different commercial Iranian pistachio nuts

Current status of loquat in Chile

Almond breeding and evaluation activities in Central California: past and future

An elite self-compatible selection from the Zaragoza breeding programme

Almond selection in microclimate areas of northeast Anatolia

Chickpea production in Turkey

Cubero J.I. (ed.), Saxena M.C. (ed.). Present status and future prospects of faba bean production and improvement in the Mediterranean countries

Emergence dates of Eurytoma amygdali Enderlein adults in the south-east of France and control strategy

Flower buds drop in the almond

Faba bean production in Turkey

Fruit set and some fruit traits of Pistachio cultivars grown under rainfed conditions at Ceylanpinar State Farm

Comparison among ten loquat cultivars in Campania area

Agronomic and bread-making characteristics of durum wheat genotypes deriving from interspecific hybridisation with bread wheat

Paternal Effects on Fruit Characteristics of some Almond Cultivars

Effects of pollen of different Pistacia spp. on the protein and oil content in pistachio nut

SELF-POLLINATED HASS SEEDLINGS

National programme for the production of certified citrus plants in Tunisia

Optimization of pomegranate jam preservation conditions

Hull, shell and kernel relationships in almond fresh fruits

The effect of protected tomato seedlings on the growth and yield of late summer tomato in Egypt

Ecological distribution study of wild pistachios for selection of roostock

MALUMA HASS : A NEW RELEASED CULTIVAR IN COMPARISON WITH HASS

MALUMA HASS : A NEW RELEASED CULTIVAR IN COMPARISON WITH HASS

Flower description and fertility of the main Tunisian almond cultivars

Effect of two rootstocks on growth, yield and nut characteristics of Mateur and Achouri pistachio varieties

Growing Hazelnuts in the Pacific Northwest Hazelnut Varieties

Effect of supplementary pollination by different pollinizers on fruit set and nut physicochemical traits of Supernova, a self-compatible almond

Some physical properties in nut and kernel of two almond varieties ( Marcona and Tuono ) grown in Northern Morocco

Pecan scab #1 biological production constraint in this region.

Haskap: The shape of things to come? by Dr. Bob Bors

Effects of Medicago polymorpha L. cover cropping in Sardinia vineyards

Citrus tristeza virus and its vectors in Northern Sudan

Analysis of compatibility relationships among some almond genotypes using fruit set and fluorescence microscopy

Recent developments of almond culture in the southeast Anatolia region of Turkey

FLOWERING BEHAVIORS OF TAIWAN AVOCADO CULTIVARS

Pecan Pollination. Dr. Patrick Conner University of Georgia, Horticulture Department

SELF-INCOMPATIBILITY AND EFFECT OF RECIPROCAL CROSS AND OPEN POLLINATION ON FRUIT SET AND FRUIT CHARACTERISTIC IN JORDANIAN ALMOND LANDRACES

N.P. Tavoljanskiy, P.V. Chiryaev, S.V. Scherstyuk, V.I. Altinnikova and V.T. Tikhomirov *

HISTORY USES AND HEALTH BENEFITS. Figure 31. Nanking cherries

Jefferson Hazelnut (OSU ) EM 9028 July Rebecca L. McCluskey, Shawn A. Mehlenbacher, and David C. Smith. Tree growth and habit.

The Crunch Factor: Apple Development at the Minnesota Landscape Arboretum

AVOCADO GENETICS AND BREEDING PRESENT AND FUTURE

HARVEST MATURITY OF ALMOND CULTIVARS IN CALIFORNIA S SACRAMENTO VALLEY

WORLD SOUR CHERRY PRODUCTION (2011)

Almond trunk injury treatment following bark damage during shaker harvest

From Asia to Aigina: the story of the pistachio tree

Selection for nutritional quality in faba bean

Agriculture & Natural Resources

Response of selected almond varieties and sélections to Pseudomonas amygdali, the causal agent of the "hyperplastic bacterial canker" of almond


Varietal Decisions on Citrus

Conditions to improve controls for certification of Sardinian PDO cheeses

Do the Kanza and Excel pecan cultivars have a place in Georgia orchards?

Confectionary sunflower A new breeding program. Sun Yue (Jenny)

Observing pollen tube growth in self-compatible almond cultivars by means of fluorescence

An investigation on the determination of pomological and morphological traits of wild almond grown at Sanliurfa province

Progress Report on Avocado Breeding

PASSEPORT D HIVER. VALIDE JUSQU AU 19 MARS 2018 VALID UNTIL MARCH 19 th, 2018

Catalogue of vines grown in France Cabernet franc N

SELECTION STUDIES ON FIG IN THE MEDITERRANEAN REGION OF TURKEY

GENETICS AND EVOLUTION OF CORN. This activity previews basic concepts of inheritance and how species change over time.

ROMANIAN CHERRIES BREEDING PROGRAMME

New Sweet Cherries from Cornell are Too Good for the Birds

Hybrid Seeds Production

Dr. Patrick Conner University of Georgia Tifton Campus

Regional Breeding Program

Pecan Production 101: Sunlight, Crop Load Management, Pollination. Lenny Wells UGA Extension Horticulture

Dr. Patrick Conner University of Georgia Horticulture Dept.

Breeding faba bean (Vicia faba L.) for resistance to Orobanche crenata Forsk

Department of Horticultural Sciences, Islamic Azad University, Abhar Branch, Iran

Results of Testing Highbush Blueberry Cultivars in The Netherlands

Chickpea breeding in Spain

POD PORTION AND TYPE EFFECTS ON SEX, GROWTH AND YIELD IN FLUTED PUMPKIN ABSTRACT

Evaluating Hazelnut Cultivars for Yield, Quality and Disease Resistance

Prevar Limited: Update

Research and Breeding Institute of Pomology Holovousy Ltd.

Fruit and berry breeding and breedingrelated. research at SLU Hilde Nybom

Evaluation of the effect of complementary pollination on Actinidia deliciosa CV. Hayward in northwest Portugal

Comparison of the Improved Coconut Hybrid CRIC65 with its Reciprocal Cross and the Parental Varieties for Reproductive Traits

FLOWERING OF TOMATO IN RELATION TO PRE-PLANTING LOW TEMPERATURES

40 Sexual Reproduction in Plants

Flowering and Fruiting Morphology of Hardy Kiwifruit, Actinidia arguta

TECHNICAL WORKING PARTY FOR FRUIT CROPS. Fortieth Session Angers, France, September 21 to 25, 2009

Structural optimal design of grape rain shed

(v) A vegetable crop needs 90 to 100 days maturation period and it produces a potential yield of 40 to 60 tons/ha. Select the crop from the following;

Evaluate Characteristics of new cherry tomato varieties of Mahasarakham University

Chile. Tree Nuts Annual. Almonds and Walnuts Annual Report

N E W S L E T T E R Information Bulletin of the Research Network on Nuts (FAO-CIHEAM) Number 16 May 2014

Large fruit could also indicate large yields if plants produce many berries. And that does seem to be the case with Boreal Blizzard.

Key words: fruit breeding, cultivar description, pollenizer, tetraploidy, few-seeded fruit

Morphological Characteristics of Greek Saffron Stigmas from Kozani Region

THE EVALUATION OF WALNUT VARIETIES FOR CALIFORNIA S CENTRAL COAST REGION 2007 HARVEST

Kiwifruit Production in SE U.S. Jay Spiers

Discrimination of Ruiru 11 Hybrid Sibs based on Raw Coffee Quality

Brief information about the species status of Utricularia cornigera Studnička.

AVOCADOS IN THE SAN JOAQUIN VALLEY

Transcription:

Almond breeding programme in CEBAS-CSIC, in Murcia (Spain) Dicenta F., Ortega E., Martínez-Gómez P., Sánchez-Pérez R., Martínez-García P.J., Cremades T., Egea J. in Zakynthinos G. (ed.). XIV GREMPA Meeting on Pistachios and Almonds Zaragoza : CIHEAM / FAO / AUA / TEI Kalamatas / NAGREF Options Méditerranéennes : Série A. Séminaires Méditerranéens; n. 94 2010 pages 215-219 Article available on line / Article disponible en ligne à l adresse : http://om.ciheam.org/article.php?idpdf=801306 To cite this article / Pour citer cet article Dicenta F., Ortega E., Martínez-Gómez P., Sánchez-Pérez R., Martínez-García P.J., Cremades T., Egea J. Almond breeding programme in CEBAS-CSIC, in Murcia (Spain). In : Zakynthinos G. (ed.). XIV GREMPA Meeting on Pistachios and Almonds. Zaragoza : CIHEAM / FAO / AUA / TEI Kalamatas / NAGREF, 2010. p. 215-219 (Options Méditerranéennes : Série A. Séminaires Méditerranéens; n. 94) http://www.ciheam.org/ http://om.ciheam.org/

Almond breeding programme in CEBAS-CSIC, in Murcia (Spain) F. Dicenta, E. Ortega, P. Martínez-Gómez, R. Sánchez-Pérez, P.J. Martínez-García, T. Cremades and J. Egea Department of Plant Breeding, CEBAS-CSIC, PO Box 164, 30100 Espinardo, Murcia (Spain) E-mail: fdicenta@cebas.csic.es Abstract. The almond cross breeding program of CEBAS-CSIC began in 1985 with the objective of obtaining new self-compatible late flowering cultivars; since then more than 12,000 seedlings have been obtained. In 1995 the cultivars Antoñeta and Marta, which fit the established objectives, were released. Afterwards we follow the breeding programme with the objective of delay more and more the flowering time, to obtain new extra-late flowering self-compatible almonds. These new cultivars could be grown in the colder areas where the culture of almond is being expanded, without risk of frost. A lot of hectares, nowadays cultured with less profitable cultures, could be replaced by almond. In 2007 we released Penta and Tardona. Both are self-compatible (S 2 S f and S 5 S f, respectively) with a high level of autogamy. They are extra-late flowering, between 10 and 15 days after Ferragnès, what reduce more than 80% the risk of damage by frost in comparison with traditional late-flowering cultivars. Both are very floriferous and productive. While Penta matures very early, Tardona matures with Ferragnès. Both are hard shelled with 27% and 25% of kernel percentage. The kernel weight is 1 g for Penta, and smaller (0.8 g) for Tardona. Due to their extra-late flowering, they are recommended for areas with a high risk of frost. Both have been registered in the Community Plant Variety Office of the European Union. Keywords. Almond breeding Self-compatibility Extra-late flowering New cultivars. Le programme d amélioration génétique de l amandier du CEBAS-CSIC, à Murcie (Espagne) Résumé. Le programme d'amélioration génétique de l'amandier du CEBAS-CSIC a commencé en 1985 avec l'objectif d'obtenir de nouvelles variétés auto-compatibles à floraison tardive ; depuis, plus de 12 000 plantes issues de croisements contrôlés ont été obtenues. En 1995, nous avons sélectionné les variétés Antoñeta et Marta, qui correspondent aux objectifs pré-établis. Afin de retarder encore plus la période de floraison, nous avons poursuivi ce programme pour obtenir de nouvelles variétés d'amandier auto-compatibles à floraison ultra-tardive. Ce type de variétés pourrait être cultivé dans les zones plus froides où la culture de l'amandier est étendue, sans risque du gel. De nos jours, beaucoup d'hectares cultivés avec des cultures moins rentables pourraient être remplacés par l'amandier. En 2007, nous avons sélectionné Penta et Tardona. Toutes deux sont auto-compatibles (S 2 S f and S 5 S f, respectivement), avec un haut niveau d'autogamie et à floraison ultra-tardive (entre 10 et 15 jours après Ferragnès), ce qui réduit de plus de 80% le risque de dégâts par le gel en comparaison des variétés traditionnelles à floraison tardive. Toutes deux sont très florifères et productives. Penta mûrit très tôt en saison alors que Tardona arrive à l'époque de Ferragnès, avec un fort rendement au cassage respectivement de 27% et 25%. Le poids de l'amandon est 1 g pour Penta et de 0,8 g pour Tardona. Enregistrées à l'office Communautaire des Variétés Végétales (Union Européenne), ces deux variétés sont recommandées en zones de production à fort risque de gel, en raison de leur floraison ultra-tardive. Mots-clés. Amélioration génétique Auto-compatibilité Floraison ultra-tardive Nouvelles variétés. I Introduction The studies on almond breeding in the CEBAS-CSIC began in 1971. In 1981 we established a collection with 81 cultivars from Murcia, Spain and other countries, which were evaluated for 10 years. It was in 1985 when the first crosses were done. Progenitors and crosses were selected mainly considering two objectives: late flowering and self-compatibility (Dicenta et al., 2002b). Options Méditerranéennes, A no. 94, 2010 XIV GREMPA Meeting on Pistachios and Almonds 215

Late flowering increases the possibilities of a cultivar to escape to the late frost, which is the main factor of the low productivity in Spain. On the other hand, self-compatibility allows the growers to cultivate only one cultivar in the orchard, with the numerous well known advantages (Dicenta et al., 2000) and neither inconvenience (Dicenta et al., 2002a; Ortega et al., 2002, 2006) for almond production. Other evaluated traits were high productivity, good size of the seed, lack of double kernels and resistance to fungus diseases. Since 1995, we focused the objectives to delay more and more the flowering time in order to avoid the late frosts and let the growers cultivate of almond in the traditional areas and in new colder areas, without any risk of lost of production by frosts. II Materials and methods As pointed out above, progenitors used in our Breeding Programme have been very diverse, from autochthonous cultivars well adapted to arid conditions (but early flowering and selfincompatible) to foreign late-flowering and self-compatible cultivars. Nowadays most of progenitors we are using are ourselves selections. The methodology to obtain the descendants is the classical in cross breeding programs: (i) Selection of the male and female progenitors. (ii) Extraction of pollen of the male progenitor. (iii) Emasculation and pollination of the female progenitor. (iv) Harvest of mature fruits obtained. (v) Germination of seeds by stratification. (vi) Establishment of the nursery. (vii) Planting the young trees in the experimental orchard. From several years ago, we apply the early selection using molecular markers (MAS) for selfcompatible genotypes by PCR of S-RNase alleles in the nursery (Ortega and Dicenta, 2003, 2004), so only the self-compatible genotypes are taken to the experimental orchard. Three years later, trees come into bearing and they are evaluated for different traits: (i) Blooming date (Julian days when 50% of flowers were opened). (ii) Blooming density (scored between 0 = null and 5 = maximum). (iii) Productivity (scored between 0 = null and 5 = maximum). (iv) Ripening date (Julian days when 95% of fruits had their mesocarp opened). The fruit and kernel traits usually studied are: (i) In-shell weight (g). (ii) Shell hardness (scored between 1= very soft and 5= very hard, by cracking with a hammer). (iii) Kernel weight (g). (iv) In-shell/kernel ratio (%). (v) Empty nuts (%) (nuts without kernels). (vi) Double kernels (%) (two deformed kernels in the same nut). (vii) Kernel thickness (scored: 1.flat, 2.intermediate, 3.globose). 216 Options Méditerranéennes, A no. 94, 2010

(viii) Kernel shrivelling (scored: 1.smooth, 2.intermediate, 3.wrinkle). (ix) Pellicle colour intensity (scored between 1= very light brown and 5= very dark brown). (x) Kernel bitterness (by tasting some almonds by two people, classifying each genotype as sweet, slightly bitter or bitter). (xi) Susceptibility to fungus diseases (scored between 1= very resistant 5= very susceptible). Since the beginning of the Almond Programme, more than 12,000 seedlings have been obtained and evaluated. III Results and discussion In 1995, we released the cultivars Antoñeta and Marta almonds, which fit most of the objectives established. - Antoñeta is self-compatible and late-flowering (close to Ferragnès) with a great vigour and productivity (Egea et al., 2000). The ramification is abundant and its habit a little dropping. The kernel is very big and attractive, with a very clear tegument. - Marta is also self-compatible and late-flowering (a little earlier than Ferragnès). It has a greater vigour than Antoñeta and is very productive (Egea et al., 2000). The ramification and the habit are intermediate. The kernel is also very attractive. In 2007 we released the cultivars Penta and Tardona (Table 1). Table 1. Main traits of Penta and Tardona almonds Characteristic Penta Tardona Pedigree S5133 Lauranne S5133 R1000 Self-compatibility Yes Yes S-genotype S 2 S f S 5 S f Flowering time Ferragnès + (10 to 20 days) Ferragnès + (20 to 30 days) Ripening time Early Intermediate Kernel weight (g) 1.0 0.8 Percentage of kernel 27 25 Shell hardness Hard Hard Double kernels 0% 0% Empty nuts 0% 0% Ramification Intermediate Dense Growth habit Intermediate Intermediate Resistance to diseases Intermediate Intermediate S5133 is a late-flowering self-incompatible selection of CEBAS-CSIC. R1000 is a late-flowering self-compatible French selection coming from Tardy Nonpareil Tuono. - Penta is self-compatible. It flowers between 10 and 20 days after Ferragnès (depending on years and areas). It has a percentage of kernel of 27% and a kernel weight of 1 gram. It has not double kernels and it matures very early (Fig. 1). - Tardona is also self-compatible. It flowers between 20 and 30 days after Ferragnès. It has a percentage of kernel of 25% and a kernel weight of 0.8 gram. It has not double kernels and it matures intermediate (Figs 1 and 2). As far as we know, is the latest flowering almond cultivar in the world. XIV GREMPA Meeting on Pistachios and Almonds 217

Penta Tardona Fig. 1. Nuts and fruits of Penta and Tardona. Fig. 2. Fruits of Ferragnès and flowers of Tardona in Santomera. This year Tardona flowered 41 days after Ferragnès. The four cultivars were bagged before flowering to check their ability to produce almonds in absence of bees, and the fruit sets were very high. However, we recommend putting beehives in the orchard (not only for our cultivars but for all the self-compatible or incompatible cultivars). We think that these self-compatible extra-late almond cultivars will allow the culture of almond in solid orchards, in areas where nowadays production is usually lost because of late frost, and also in new inland colder areas where the almond culture was unthinkable because of frosts. The four cultivars are protected and numerous nurseries under license of CSIC are propagating these cultivars. 218 Options Méditerranéennes, A no. 94, 2010

Acknowledgements This study was financed by project "Mejora Genética del Almendro" from the Spanish Ministry of Education and Science. References Dicenta F., Ortega E., Cánovas J.A. and Egea J., 2000. Hacia la plantación monovarietal de almendro con variedades autocompatibles. In: Fruticultura Profesional, 111, p. 11-18. Dicenta F., Ortega E., Cánovas J.A. and Egea J., 2002a. Self-pollination vs. cross-pollination in almond: Pollen tube growth, fruit set and fruit characteristics. In: Plant Breeding, 121, p. 163-167. Dicenta F., Ortega E., Martínez-Gómez P., Sánchez-Pérez R., García-Gusano M. and Egea J., 2002b. Programa de Mejora Genética del Almendro del CEBAS de Murcia. In: Actas de Horticultura, 34, p. 437-442. Egea J., Dicenta F., Berenguer T. and García J.E., 2000. Antoñeta and Marta almonds. In: HortScience, 35(7), p. 1358-1359. Ortega E. and Dicenta F., 2003. Inheritance of self-compatibility in almond: Breeding strategies to assure self-compatibility in the progeny. In: Theoretical and Applied Genetics, 106, p. 904-911. Ortega E. and Dicenta F., 2004. Suitability of four methods to identify self-compatible seedlings in an almond breeding programme. In: Journal of Horticultural Science and Biotechnology, 79, p. 747-753. Ortega E., Egea J., Cánovas J.A. and Dicenta F., 2002. Pollen tube dynamics following half- and fullycompatible pollinations in self-compatible almond cultivars. In: Sexual Plant Reproduction, 15, p. 47-51. Ortega E., Martínez-García P. and Dicenta F., 2006. Influence of self-pollination in fruit quality of autogamous almonds. In: Scientia Horticulturae, 109, p. 293-296. XIV GREMPA Meeting on Pistachios and Almonds 219