Axillary bud proliferation of 2 North American oak species: Quercus alba and Quercus rubra

Similar documents
A micropropagation system for Eucalyptus dunnii Eucalyptus sp

Micropropagation and ex vitro rooting of several clones of late-flushing Quercus robur L

Improving Single-Sided Room Ventilation by Using a Ceiling Fan

AVOCADO CALLUS AND BUD CULTURE

Micropropagation of GF-677 rootstocks (Prunus amygdalus x P. persica)

Supporting acoustic environment design in spatial planning of urban areas

Title: Development of Micropropagation and Acclimation Protocols for the Commercialization of a New Bonsai Ornamaental Tree for the California Market.

International Journal of Pharma and Bio Sciences DIRECT REGENERATION FROM EMBRYO CULTURES OF LYCOPERSICON ESCULENTUM MILL CV PUSA RUBY ABSTRACT

SOMATIC EMBRYOGENESIS OF DREPANOSTACHYUM FALCATUM AN IMPORTANT HILL BAMBOO-A RAPID MEANS OF MICROPROPAGATION

TISSUE CULTURE II. Organogenesis. PlSc 300 LAB Learn tissue culture techniques that promote organ formation.

Summary and conclusion

Rooting and weaning of apple rootstock YP

Evaluation of fixed point H2S gas detectors intended for use in industrial safety applications

H. E. Sommer, H. Y. Wetzstein and N. Lee

Keywords: Agarwood, satalum, resin, micropropagation, tok

REGENERATION SYSTEMS FOR PYRAMIDING DISEASE RESISTANCE INTO WALNUT ROOTSTOCKS

Plant Regeneration via Organogenesis and Somatic Embryogenesis

ORGANOGENESIS IN CHRYSANTHEMUM MORIFOLIUM RAMAT (CULTIVAR ROMICA ) CALLUS CULTURES SMARANDA VÂNTU

Plantlet Regeneration via Somatic Embryogenesis in Four Species of Crocus

GENERATION AND SELECTION OF PHYTOPHTHORA CINNAMOMI RESISTANT AVOCADO ROOTSTOCKS THROUGH SOMACLONAL VARIATION

Micropropagation of two French prune cultivars (Prunus domestica L.)

Micropropagation of Salvia broussonetii Benth. - A Medicinal Plant Species

IPC TECHNICAL PAPER SERIES NUMBER 264

Room Acoustic Design in Open-Plan Offices

CHAPTER 2. IN VITRO REGENERATION OF Gerbera jamesonii Bolus Ex. Hook f. Previous research has proven that Gerbera jamesonii could successfully be

In vitro Conservation of Rose Coloured Leadwort: Effect of Mannitol on Growth of Plantlets

VETIVER PROPAGATION. Nurseries and Large Scale Propagation. Dr Paul Truong Veticon Consulting Brisbane, Australia

Gregor Mendel Foundation Proceedings 2007:

Plant Tissue Culture. Dr. Alain Lemansour UAE University Date Palm Development Research Unit Dept.

Plant regeneration through direct shoot bud formation from leaf cultures of Paphiopedilum orchids

2. What are the advantages and disadvantages of plant tissue culture?

IN VITRO PROPAGATION OF EGYPTIAN DATE PALM: 11-DIRECT AND INDIRECT SHOOT PROLIFERATION FROM SHOOT-TIP EXPLANTS OF Phoenix dactylifera L. CV. ZAGHLOOL.

HORMONE ROOT-SOAK CAN INCREASE INITIAL GROWTH OF PLANTED HARD- WOOD STOCK 1

In Vitro Flowering and Shoot Multiplication from Nodal Explants of Ceropegia bulbosa Roxb. var. bulbosa

Adult Plants and Juvenile Seedlings of Persimmon (Diospyros kaki L.)

Micropropagation of Chlorophytum borivilliens through direct organogenesis

In vitro Plant Regeneration of Withania somnifera. Ujjwala Supe, Fanisha Dhote and M.G. Roymon

Real-Time Active Pipeline Integrity Detection (RAPID) System for Corrosion Detection and Quantification

Micro propagation of sugarcane (Saccharum officinarum L.) through auxiliary buds

Use of Tissue culture to alleviate the supply of quality planting materials among cacao smallholder farmers in Cote d Ivoire

Original Papers Plant Tissue Culture Letters, 11(3), (1994) INouE**, Koji NoMuRA***, Seiko TAKAHASHi**, OsHIMA* and Kiyoshi MASUDA**

TISSUE CULTURE AND EX-VITRO ACCLIMATION OF RHODODENDRON sp.

Organogenic plant regeneration via callus induction in chickpea (Cicer arietinum L.) Role of genotypes, growth regulators and explants

MULTIPLICATION AND EVALUATION OF TISSUE CULTURE DERIVED WALNUT PLANTS. Gale McGranahan, Walt Tulecke, Chuck Leslie

MICROPROPAGATION OF JATROPHA CURCAS (L.)

Vegetative propagation of Robinia pseudoacacia L.

Establishing new trees possible impacts of rootstock propagation method on young tree growth Ute Albrecht

American-Eurasian Journal of Sustainable Agriculture, 6(4): , 2012 ISSN Somatic Embryogenesis and Plantlet Regeneration in Amla

HOSTA MULTIPLICATION KIT

INFLUENCE OF PLANT GROWTH REGULATORS ON IN VITRO CLONAL PROPAGATION OF DENDROBIUM SONIA EARSAKUL

Selection of mother plant. Preparation of explants. Fresh inoculation. Multiplication. Rooting. Planting out. Primary hardening. Secondary hardening

Efficient micropropagation of Vanilla planifolia Andr. under influence of thidiazuron, zeatin and coconut milk

Effect of BA and 2iP on Shoot Proliferation and Somaclonal Variation of Gardenia jasminoides Ellis in vitro Culture

Chapter 1 Introduction

Low Cost Smart Stick for Blind and Partially Sighted People

In vitro clonal propagation of the neem tree (Azadirachta indica A. Juss.)

IPC TECHNICAL PAPER SERIES NUMBER 263

Received : Accepted:

In vitro propagation of Musa sp (Banana)

Title: Enhancement of Bramble Production in the Southeastern U.S. Through Micropropagation, Virus Indexing, and Field Evaluation for Trueness to Type

Caroline Scotto. To cite this version: HAL Id: hal

Somaclonal Variation as a Breeding Tool in American Chestnut

In Vitro Propagation of Jojoba [Simmondsia chinensis (Link) Schneider] through Nodal Segments of Female Plants

Direct Regeneration of Shoot from Axillary Bud of Citrus Reticulate

ESTABLISHMENT AND CLONAL PROPAGATION OF IN VITRO PLANTLETS OF LEPTOSPERMUM SCOPARIUM

Shoot Proliferation of Dendrobium Orchid with BAP and NAA

Studies on Vegetative Propagation ~.f Tulips Regeneration of Bulblets in Bulb Scale Segments Culturt. 1 in vitro

Micropropagation of Selected Trees of Arbutus unedo L. through Axillary Shoot Proliferation and Somatic Embryogenesis

IN VITRO BUD CULTURE OF KINNOW TREE

International Journal of Pharma and Bio Sciences RAPID IN VITRO PROPAGATION TECHNIQUE FOR SUGARCANE VARIETY 018

GERMINATION MODULE GOAL OBJECTIVES INTRODUCTION. Time to completion: 15 days Difficulty level: Easy

RAPID MICROPROPAGATION OF GRAPEVINE CV. AGIORGITIKO THROUGH LATERAL BUD DEVELOPMENT

In vitro Clonal Propagation of Vitex negundo L. An Important Medicinal Plant. M.R. Islam, Ruseli Khan, S.N. Hossain, G. Ahmed and L.

Seed Germination and Vegetative Propagation of Seneca Snakeroot (Polygala senega L.) SEED GERMINATION WITH COLD STRATIFICATION 1. In moist sand, cold-

MICROPROPAGATION OF CHRYSANTHEMUM (CHRYSANTHEMUM MORIFOLIUM) USING SHOOT TIP AS EXPLANT

ARRESTING PLANT MATURATION TO MAINTAIN HIGH PROPAGATION SUCCESS WITH AMERICAN SYCAMORE CUTTINGS. S. B. Land, Jr.:

In vitro REGENERATION OF MUNGBEAN (Vigna radiata L.) FROM DIFFERENT EXPLANTS

EFFECT OF BENZYLAMINO PURINE AND NAPHTHALENE ACETIC ACID ON CALLUS AND PROTOCORM FORMATION OF DENDROBIUM CV. BANYAT PINK

D. M. Tricoli, Graduate Student State University of New York College of Environmental Science and Forestry Syracuse, New York 13210

In Vitro Microcorm Formation in Saffron (Crocus sativus L.)

application in propagating Butterfly attracting Plants

AFRICAN VIOLET MULTIPLICATION KIT

B. C. D. B. C. D. B. C. D. B. C. D.

EFFECT OF GROWTH REGULATORS ON MERISTEM TIP CULTURE OF LOCAL POTATO CVS DESIREE AND PATRONES

Plantlet regeneration of Pinus kesiya Royle ex Gord. from mature embryos

EX-SITU CONSERVATION OF LAVANDULA ANGUSTIFOLIA USING IN VITRO TECHINQUES. BY Dr. D. LEELAVATHI MES COLLEGE,MALLESWARAM, Bangalore

In vitro propagation of Coscinium fenestratum (Gaertn.) Colebr. (Menispermaceae) - an endangered medicinal plant

PlSc 300 Plant Propagation. Final Exam (150 points) Spring 2010

Effect of Genotype, Explant Type and Culture Medium on Shoot Regeneration in Tomato (Lycopersicon esculentum Mill.) in vitro

Appendix Ex vitro performance of peanut plants from TDZ-pretreated seeds

PROPAGATION AND RETESTING OF WALNUT ROOTSTOCK GENOTYPES PUTATIVELY RESISTANT TO PESTS AND DISEASES

The effects of BA and NAA on multiplication of Butterwort (Pinguicula gigantea) in vitro

MICROPHOPAGATION OF DATE PALM (PHOENIX TISSUE CULTURE TECHNIQUE

AN ECONOMICAL AND EFFICIENT METHOD FOR MASS PROPAGATION OF IXORA COCCINEA

Effect of BA NAA and 2,4-D on Micropropagation of Jiaogulan (Gynostemma pentaphyllum Makino)

Micropropagation of Sterile and Non-Flowering Nicotiana Lines

Literature on micropropagation of awa (Piper

Callus induction and plant regeneration from leaf explants of Spilanthes acmella Murr. : An endangered medicinal plant

Alarm Management at Operators Workstations

The application of leafy explant micropropagation protocol in enhancing the multiplication ef ciency of Alstroemeria

Transcription:

Axillary bud proliferation of 2 North American oak species: Quercus alba and Quercus rubra Oj Schwarz, Se Schlarbaum To cite this version: Oj Schwarz, Se Schlarbaum. Axillary bud proliferation of 2 North American oak species: Quercus alba and Quercus rubra. Annales des sciences forestières, INRA/EDP Sciences, 1993, 50 (Suppl1), pp.340s-343s. <hal-00882908> HAL Id: hal-00882908 https://hal.archives-ouvertes.fr/hal-00882908 Submitted on 1 Jan 1993 HAL is a multi-disciplinary open access archive for the deposit and dissemination of scientific research documents, whether they are published or not. The documents may come from teaching and research institutions in France or abroad, or from public or private research centers. L archive ouverte pluridisciplinaire HAL, est destinée au dépôt et à la diffusion de documents scientifiques de niveau recherche, publiés ou non, émanant des établissements d enseignement et de recherche français ou étrangers, des laboratoires publics ou privés.

Original article Axillary bud proliferation of 2 North American oak species: Quercus alba and Quercus rubra OJ Schwarz SE Schlarbaum 1 Department of Botany, The University of Tennessee, Knoxville, TN, 37996-1100; 2 Department of Forestry, Wildlife and Fisheries, Agricultural Experiment Station, The University of Tennessee, Knoxville, TN, 37901-1071, USA Summary Quercus alba, white oak, and Quercus rubra, northern red oak, were selected to develop in vitro plantlet regeneration methods from bud and embryo explants. Various hormonal combinations were applied to explants to induce axillary bud proliferation. Maximal multiple shoot production was obtained when an intermediate micromolar range of benzyladenine (0.44-4.44 μm) was applied alone or in combination with low concentrations of naphthaleneacetic acid (1.0-100 μm). In vitro rooting of 1 Q alba microshoot was accomplished. axillary bud proliferation / Quercus / in vitro / regeneration Résumé Prolifération de bourgeons axillaires de 2 chênes nord-américains, Quercus alba et Quercus rubra. Des méthodes de multiplication in vitro à partir de bourgeons ou d embryons ont été développées. De nombreuses combinaisons hormonales ont été testées pour induire la prolifération de bourgeons axillaires chez les explants. Les meilleurs résultats ont été obtenus avec une solution micromolaire de benzyl adénine variant de 0,44 μm à 4,44 μm appliquée seule ou en mélange avec de l acide naphtalèneacétique (1,0-100 μm). L enracinement in vitro de microplants de Q alba a été obtenu. prolifération de bourgeons axillaires /Quercus /in vitro / régénération INTRODUCTION The genus Quercus contains some of the most commercially important hardwood species in the world. In North America, Quercus alba L, white oak, and Quercus rubra L, northern red oak, are the 2 most valuable oak species used by the lumber and furniture industries. Veneer quality trees command a premium price and are a significant commodity in the wood export market. Clonal propagation of valuable trees is being explored in a number of species. The genetic fidelity of clones make them of potential value for a variety of purposes, ranging from research on genotype x environmental interaction to increasing com-

mercial yields. Quercus species, however, have had a relatively small role in clonal forestry because they are difficult to vegetatively propagate. Two commonly used sources of explant material, rescued embryos and buds, both terminal and lateral, from young seedlings, were used to develop in vitro axillary bud proliferation systems for Q alba and Q rubra. MATERIALS AND METHODS the fungicide solution. After the fungicide soak, the leaves were removed, and the stem axis was immersed in a 70% ethanol/water, v/v, dip for 45 s and rinsed in sterile H2O for 2-3 min. The stems were then placed in a 20% Clorox/ H2O, v/v, plus 0.2% Tween 20 solution for 4 min and rinsed in sterile H2O for 5 min. Under sterile conditions, a dissection microscope was used to aid removal of the outer bud scales, followed by excision of the buds. The buds were placed in a 5% Clorox/H 2O solution for 5 min, given 3 rinses in sterile, distilled H2O and placed into culture tubes. Plant materials Quercus rubra acorns were obtained from bulked collection made in the Shawnee National Forest in southern Indiana, USA, and stratified for 90 days prior to embryo removal. Seedlings of Q alba were from bulked acorns obtained from the Chuck Swan State Forest in eastern Tennessee and grown for 3 months before buds were harvested. Culture medium The mineral medium (VSV) developed by Vieitez et al (1985) for in vitro regeneration of Quercus robur L was selected as the basal medium and was modified to contain various combinations of 2 plant growth regulators, benzyladenine (BA) and naphthaleneacetic acid (NAA). Quercus rubra embryo culture Sterilization procedures The outer seed coat and subsequent tissue of Q rubra acorns were removed to expose the cotyledons, followed by immersion in a 20% commercial bleach (Clorox)/H 2O, v/v, plus 0.2% Tween 20 solution for 5 min. The remaining tissue was further dissected to remove 90% of the cotyledons to produce a rectangular block containing the embryonic axis. The tissue block was sterilized for 2 min in a Clorox solution (as above) and rinsed 3 times in sterile water for 5 min each, followed by removal of the remaining cotyledonary tissue to isolate the embryonic axis for in vitro culture. Greenhouse-grown Q alba seedlings were treated with a fungicide spray (Benomyl, at label application rates) once-a-week after emergence from soil. At age 3 months, the seedlings were harvested at ground level and placed in a solution of Zyban (2.5 g of 75% WP/L H2O), a broad spectrum systemic-contact fungicide for 24-36 h under fluorescent light and a moderate air flow to promote rapid transpirational uptake of A single experiment was conducted using VSV medium containing different combinations of BA (44.4 nm, and 0.44, 4.44 or 44.4 μm) and NAA (0, 1.0 nm, 10 μm) in a Latin square design with a minimum of 10 replications/treatment. The embryos were kept on hormone medium for 22 weeks, when data were recorded. Cultures were transferred to fresh medium every 6 weeks. Quercus alba bud culture Experiments were conducted using VSV medium containing different combinations of growth hormones in Latin square designs. Experiment 1 was a preliminary study to investigate if in vitro bud elongation was possible and used the same concentrations of BA and NAA as in the Q rubra study. Experiments 2, 3 and 4 used BA concentrations as above, with various NAA levels. Experiment 2 used NAA levels of 0, 1.0 nm, 100 nm and 1.0 μm, while experiments 3 and 4 used NAA levels of 0, 1.0 nm and 1.0 μm. The number of explant buds in each treatment varied

among experiments, ranging from 5 to 12 buds. Buds were kept on hormone medium for 12, 6, 23 and 12 weeks in experiments 1, 2, 3 and 4, respectively. Observations All cultures were scored for shoot development and proliferation. The cultures were also observed for callusing. RESULTS Quercus rubra embryo culture All embryos produced callus growth, although callusing was very limited in treatments without NAA. The extent of callus production increased with higher NAA concentrations. Maximal multiple shoot production with respect to number of explants/ treatment and number of shoots/explant was in the 4.44 μm BA/O NAA treatment. Sixty percent of the explants in that treatment produced multiple shoots with a maximum of 6 shoots/embryo. Addition of NAA to 4.44 μm BA reduced both the number of explants producing shoots and the number of shoots/explant. Quercus alba bud culture An initial experiment demonstrated that buds could be induced to elongate in culture. Explants in treatments involving the combinations of 4.44 μm BA and 0 or 1 nm NAA resulted in the highest percentages of shoot development, 72% and 100% respectively. Maximum callus production occurred with the 44.4 μm BA and 10 μm NAA treatment combination. Based on these results, the maximum level of NAA used in experiments 2-4 was 1.0 μm, with an intermediate level (100 nm) between 1.0 nm and 1.0 μm added in experiment 2. The results of experiments 2, 3 and 4 each showed that the highest percentages of explants producing multiple shoots occurred in treatments whose BA levels were 0.44 nm or 4.44 μm and NAA concentrations ranged between 0 and 100 nm. Experiment 3 (23 wk on hormone medium) induced the most shoots/explant (40), but had fewer explants producing multiple shoots than experiments 2 and 4. One explant in this series of experiments produced 17 shoots. These shoots were excised and transferred to separate culture tubes to promote further development. Subsequently, 1 microshoot rooted spontaneously in culture, producing 1 rapidly elongating root. Transfer of this regenerate to soil under greenhouse conditions was unsuccessful. DISCUSSION The results showed that axillary buds on individual explants of Q alba (fig 1) and Q rubra could be induced to elongate and form multiple shoots in vitro. Multiple shoot production was optimal when an intermediate micromolar range of benzyladenine (0.44-4.44 μm) was used alone or in combination with low concentrations of napthaleneacetic acid (1.0-100 nm). The length of time on hormone medium appeared to have a positive effect on the number of multiple shoots produced and a negative effect on the percent of explants that responded. In vitro regeneration of one Q alba plantlet indicated that axillary-bud proliferation has potential for use in micropropagation. The limited success of these experiments provides justification for future studies aimed at the micropropagation of these species. Unfortunately, all cultures were

lost to contamination, internal or external, or gradually lost vigor and died. Episodic growth in culture was judged to be a significant factor in the cultures demise. Despite exposing the cultures to continuous light or long photoperiods the explants continued to exhibit dormancy cycles. Initiation of a new growing period reduced overall vigor and was eventually followed by explant death. Success of micropropagation systems in these Quercus species may depend upon the efficiency of generating multiple shoots within a particular growth phase. REFERENCE Vietiez AM, San-José MC, Vieitez E (1985) In vitro plantlet regeneration from juvenile and mature Quercus robur L. J Hortic Sci 60, 99-106