Sprout length (cm), number of leaves per budded plant and diameter of the bud sprout (mm) sprouting from bud were taken at an interval of 15 days.

Similar documents
Studies on Performance of Softwood Grafting in Guava (Psidium guajava L.) cv. Sardar as Influenced by Different Shade Intensity

Studies on Effect of Propagation Environment for Softwood Grafting in Guava (Psidium guajava L.) cv. Sardar

Effect of Different Scion Varieties of Mango on Growth and Biomass Production per Formance of Stone Grafts (Mangifera indica L.)

Effect of Grafting Time on Growth and Success Rate of Guava (Psidium guajava L.) Wedge Grafts Grown under Shade Net and Poly House Conditions

Potentiality of Different Varieties of Fig for Rooting of Cuttings under Open and Shade House Conditions in Northern Dry Zone of Karnataka, India

Role of Plant Hormones on Vegetative Growth of Tomato (Lycopersicon esculentum Mill.)

Influence of Different Protected Conditions on Growth and Yield of Parthenocarpic Cucumber (Cucumis sativus) Hybrids

SEASONAL VARIATION IN SUCCESS OF VENEER GRAFTING OF MANGO UNDER ANDHRA PRADESH (INDIA) CONDITIONS

Grafting Morphology and Physiology Text Pages:

Studies on Canopy Management Practices on NPK Status of Leaves in High Density Planting of Guava (Psidium guajava L.) Cv.

Rootstock-scion interactions of selected Annona species

A study of the plants produced by different methods of vegetative propagation in mango (cvs. Amrapali and Gopalbhog)

Effect of Grafting Time on Success of Softwood Grafting in Mango (Mangifera indica L.)

Studies on the Effect of Nitrogen and Potassium on Flowering in Crossandra (Crossandra infundibuluformis L.)

Studies on success of epicotyl grafting as affected by age of seedling rootstock in mango (Mangifera indica L.)

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

Effect of Scion Cultivar and Grafting Season on Success of Wedge Grafting in Guava (Psidium guajava L.)

Research Article IJAER (2017);

Tree growth over multiple years

Assessment of Dendrobium Orchid Varieties on Growth and Yield under Different Growing Conditions

Effect of Pruning on Growth, Flowering and Yield in High Density Planting of Guava

EFFECT OF STRUCTURAL CONDITIONS ON VENEER GRAFTING SUCCESS AND SURVIVAL OF MANGO GRAFTS (MANGIFERA INDICA cv. BANGANPALLI)

Evaluation of Gerbera Varieties for Yield and Quality under Protected Environment Conditions in Bihar

EFFECT OF DIFFERENT CONCENTRATIONS OF INDOLE BUTYRIC ACID (IBA) AND AGE OF SHOOT ON AIR LAYERING OF MANGO (Mangifera indica Linn.)

IV International Symposium Agrosym 2013

Technique for Rapid Multiplication of Guava (Psidium guajava L.)

EFFECT OF SPACING AND PINCHING ON VEGETATIVE GROWTH IN CHINA ASTER (CALLISTEPHUS CHINENSIS L. NEES) cv. KAMINI

Studies on Effect of Time of Grafting on Success of Softwood Grafting in Karonda (Carrisa carandas L.)

Plant Propagation Methodologies

Standardization of Embedding Media and Drying Temperature for Superior Quality of Dry Orchid Flower Production var. Sonia-17

EFFECT OF NAA AND IBA ON ROOTING OF CAMELLIA CUTTINGS

Effect of planting time on growth and flowering of Gladiolus

Standardization of grafting time and height on success of softwood grafting in mango (Mangifera indica L.)

Effect of Organic and Inorganic Sources of Nutrients on Available Soil in Amrapali Mango (Mangifera indica L.) Under High Density Planting

Cleft Grafting Avocados. The Garden Academy Propagation Series Grafting Unit

4. VEGETATIVE PROPAGATION

Seedling Parameters as Influenced by Seed Treatment in Sarpagandha (Rauvolfia serpentina Benth.)

VEGETATIVE PROPAGATION

STUDIES ON THE SEED GERMINATION AND SUBSEQUENT SEEDLING GROWTH OF GUAVA (PSIDIUM GUAJAVA L.)

Stenting: A Technique for Rapid Multiplication of Peach (Prunus persica L. Batsch) Plants

Shoot Proliferation of Dendrobium Orchid with BAP and NAA

Effect of Integrated Nutrient Management on Fruit Yield and Quality of Amrapali Mango (Mangifera indica L.) under High Density Planting

Effect of Seasons and Spacing s on Seed Production of Rose Onion Variety Arka Bindu

Effect of Different Levels of arka microbial consortium on seed germination and survival rate in Brinjal cv. Dommeru Local

Evaluation of Dahlia Genotypes for Growth and Yield Characters under Dry Zone of Karnataka, India

Comparative Performance of Dendrobium Orchid Varieties on Floral Quality and Flower Yield under Different Growing Conditions

Unit 7. Grafting and Budding. During this laboratory you will be introduced to various methods used to graft and bud horticultural crops.

Gregor Mendel Foundation Proceedings 2007:

EFFECT OF FOLIAR SILICIC ACID ON GROWTH AND YIELD ATTRIBUTES OF ROSE CUT FLOWERS (ROSA HYBRID)

Propagation by Grafting and Budding

EFFECT OF INDOLEBUTYRIC ACID (IBA) AND PLANTING TIMES ON THE GROWTH AND ROOTING OF PEACH CUTTINGS

EFFECT OF PLANT GROWTH REGULATORS AND STAGES OF SPRAY ON SEED QUALITY OF RIDGE GOURD (Luffa acutangula L. ROXB)

Effect of Spacing and Training on Growth and Yield of Polyhouse Grown Cucumber (Cucumis sativus L.)

B.2. SPECIALIZED USES To change plant size and vigor. To repair damaged parts of established plant. To change plant form. Virus indexing.

) and cm (T 4

Budding and Grafting. Chuck Ingels UC Cooperative Extension Sacramento County

Vegetative Propagation methods - theory

Abstract. Introduction

They are large trees, growing to m tall, deciduous in the dry season

Budding and Grafting. M. Elena Garcia, PhD Horticulture Dept.

Practical & Mega Chip Bud Grafting

Standardization of Tinting Techniques in China aster cv. Local White

Effect of Integrated Nutrient Management (INM) practices on Nutrients Uptake by Safflower and Nutrients status in Vertisol Soil

Effect of paraffin treatment on walnut grafts under bench grafting

Res. Environ. Life Sci. 9(7) (2016)

What is Plant Propagation? Propagation of Horticultural Plants. Woody Plant Crop Improvement. Plant Propagation History

Impact of Temperature and Water Stress on Growth Yield and Related Biochemical Parameters of Okra

Available online at

EFFECT OF GROWTH REGULATORS AND FRUIT LOAD ON SEED YIELD AND QUALITY IN BRINJAL HYBRID SEED PRODUCTION

EFFECTS OF GROWTH REGULATORS ON HEALING AVOCADO PRUNING WOUNDS

Effect of Different Levels of Pulsing Concentrations on Vase Life of Gladiolus (Gladiolus grandiflorus L.)

Improvement of Propagation by Hardwood Cuttings with and without Using Plastic Pavilions in Fig (Ficus carica L.)

USE OF THE ETIOLATION TECHNIQUE IN ROOTING AVOCADO CUTTINGS

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

Viticulture - Characteristics of the vine - Rootstocks & Grafting

Evaluation of Different Genotypes of Tuberose (Polianthes tuberosa L.) for Growth, Flowering and Yield Characters

Appraisal's Genotypes on Water Absorption, Transpiration Loss at Senescence Stage and Genetic Correlation of Chrysanthemum morifolium

PERFORMANCE OF WEDGE GRAFTING IN GUAVA (PSIDIUM GUAJAVA L.) UNDER DIFFERENT GROWING CONDITIONS

T. Padmalatha*, G. Satyanarayana Reddy, R. Chandrasekhar 1, A. Siva Shankar 2 and Anurag Chaturvedi 3

Propagation of Potato (Solanum tuberosum L.) by Seedlings

Laboratory No. 12 Grafting and Budding

EFFECT OF GROWING MEDIA ON THE CORMELIZATION OF FREESIA UNDER THE AGRO-CLIMATIC CONDITIONS OF PESHAWAR

Plant Breeding and Propagation

Low-Cost Alternatives for Conventional Tissue Culture Media

Postharvest Life of Cut Chrysanthemum Cultivars in Relation to Chemicals, Wrapping Material and Storage Conditions

AVOCADO ROOTSTOCK-SCION RELATIONSHIPS: A LONG-TERM, LARGE-SCALE FIELD RESEARCH PROJECT. II. DATA COLLECTED FROM FRUIT-BEARING ORCHARDS 1

Effect of Levels of Fertigation on Growth and Flowering of Marigold (Tagetes erecta L.) CV. Pusa Narangi Gainda

THE CHINCHONA VENEER-GRAFT METHOD OF PROPAGATING SUBTROPICAL FRUIT TREES

Effect of planting date and spacing on performance of marigold (Tagetes erecta Linn) cv. PUSA NARANGI under North Bihar agro-ecological conditions

Question Bank Vegetative Propagation

THE ROLE OF TISSUE CULTURE IN THE AVOCADO PLANT IMPROVEMENT SCHEME

BOTANY/HORTICULTURE PLANT SCIENCE AG

Grafting Techniques for Watermelon 1

Pruning and Gibberellic Acid on the Growth and Yield Attributes of Onion (Allium cepa L.) var Agrifond Light Red

Grafting of Tomatoes for Soil-based Production in Greenhouse and High Tunnels Judson Reid, Kathryn Klotzbach and Nelson Hoover

EFFECT OF INDOLE BUTYRIC ACID AND TYPES OF CUTTINGS ON ROOT INITIATION OF Ficus hawaii

Seed Germination and Seedling Vigour of Kagzi Lime (Citrus aurantifolia Swingle) As Influenced by Growth Regulators and Fungicide

FUTURE ORCHARDS Crop Loading. Prepared by: John Wilton and Ross Wilson AGFIRST Nov 2007

Practical Grafting. By Tom Wahl, Red Fern Farm

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

Transcription:

International Journal of Current Microbiology and Applied Sciences ISSN: 2319-7706 Volume 7 Number 07 (2018) Journal homepage: http://www.ijcmas.com Original Research Article https://doi.org/10.20546/ijcmas.2018.707.444 Influence of Age of Root Stock on Budding Success and Growth of Patch Budded Jackfruit (Artocarpus heterophyllus Lam.) Plants Archana 1*, S. Shyamalamma 3, Shweta Hiremath 5, V. Nachegowda 2, J.S. Aravind Kumar 1 and A.M. Rajesh 1 1 College of Horticulture, Kolar 563103, India 2 UHS, Bagalkot, India 3 Deparment of Biotechnology, UAS, GKVK, Bengaluru, India 4 Deparmentof Fruit Science, UHS Campus, Bengaluru, India 5 Deparmentof Fruit Science, KRCCH Campus, Arabhavi, India *Corresponding author K e y w o r d s Age, Root stock, Budding success Growth, Patch budded jackfruit Article Info Accepted: 26 June 2018 Available Online: 10 July 2018 Introduction A B S T R A C T An investigation was carried out to know the effect of age of rootstocks on budding success percentage of jackfruit. Patch budding was done on 2, 4, 6, and 8 months old rootstocks of jackfruit using variety NSP as scion material. The budded plants were kept under open sunlight for four weeks and observed for budding success. Maximum budding success (90%), sprouting success (71.11%), sprout length (20.79 cm), number of leaves (11.67) and diameter of bud sprout (2.89 mm) was recorded on two months old rootstocks followed by four months old rootstocks (budding success (84%), sprouting success (66.67%), sprout length (20.44 cm), number of leaves (11.07) and diameter of bud sprout (2.75mm) and six months old rootstocks (budding success (78%), sprouting success (66.67%), sprout length (18.16 cm), number of leaves (10.13) and diameter of bud sprout (2.66 mm). While, minimum budding success was recorded in eight months old rootstocks (budding success (76%), sprouting success (65.79%), sprout length (18.55cm), number of leaves (7.87) and diameter of bud sprout (2.94 mm). From this study it could be concluded that patch budding using two to four months old rootstocks gave higher budding success in vegetative propagation of jackfruit by budding. The jackfruit (Artocarpus heterophyllus Lam.) belongs to the family Moraceae, is a fairly large sized tree and bears the largest fruit among the edible fruits. Jackfruit tree is native to India and popular in several tropical and sub-tropical countries. Jackfruit serves as a food for millions of poor people in the 3826 countryside during the season, where there is a scarcity of food, therefore this fruit is regarded as poor man s fruit in Eastern and Southern parts of India and it s the national fruit of Bangladesh. It is quite important both for use as a fruit and vegetable. The jackfruit tree is widely cultivated in tropical regions of India, Bangladesh, Nepal,

Sri Lanka, Vietnam, Thailand, Malaysia, Indonesia and the Philippines. Jack tree grows well in humid and warm climate, even on hill slopes. It is also one of the most suitable fruit crop for dryland horticulture. It requires rich, deep and well drained alluvial soil or an open textured loamy or lateritic soil, supplied with adequate moisture and nutrition and grown up to 1500 m MSL but the trees grown above 1200 m MSL produce fruits of inferior quality. Seed propagation is common method of propagation in jackfruit. But propagation through seeds is not widely accepted because of high heterozygosity. Being highly heterozygous and cross pollinated, it has resulted in immense variation among populations for yield, size, shape, flesh colour, quality of fruit and maturity period. To maintain the genetic uniformity and conservation of an identity of an elite clone or cultivar through vegetative propagation is well recognized in jack fruit. Therefore the elite materials need to be multiplied in large quantities and supplied to the needy farmers. Hence, suitable vegetative propagation technique with suitable age of rootstock is need to be standardized to meet the growing demand of planting material. Keeping these points in view the present study has been undertaken. Radha and Mathew (2007). Materials and Methods The experiment was conducted at Department of Biotechnology, University of Agricultural Science, Bengaluru and College of Horticulture, Kolar. The experiment was laid out in Complete Randomized Block design with five replications. The budding was done on vigorously growing, uniform seedling of 2, 4, 6 and 8 month old rootstocks were used for budding. The budding operation was done as per the procedure. The observations were recorded on percentage of budding success and bud sprouting success. Observations on Sprout length (cm), number of leaves per budded plant and diameter of the bud sprout (mm) sprouting from bud were taken at an interval of 15 days. Results and Discussion Budding success percentage The effect of age of rootstocks on budding success percentage of jackfruit budded plants differed significantly among the treatments (Table 1). However two month old rootstocks recorded significantly maximum budding success percentage of 90% followed by four month old rootstock (84%) and six month old rootstock (78%).This could be due to the relationship between age of the rootstock and regenerating ability of the plant. The success was much higher in younger rootstocks as observed by Priyanka (2013). It was found that the percent budding success was more in case of younger rootstocks in comparison to older ones; which could be due to higher activity of meristematic cells, maximum regeneration and callus forming capacity and better union of the bud scion. Ahmad et al., (2007) attributed the higher per cent budding success in case of walnut to rapid union of xylem and cambium tissue of the bud scion and rootstocks or due to much closer matching of the bud scion tissue to the rootstocks stem, which helps in callus tissue differentiation into new cambium tissues. Similar results were noticed by Patel et al., (2007) in guava which they have attributed to the availability of better scion, stock and active sap flow in younger rootstocks. While, minimum budding success was recorded in eight month old rootstock (76%).The effect of age of rootstocks on budding percentage on jack differed significantly among the treatments. These could be attributed to the latex yielding nature of tree, where more latex exudates in hard wood scions than softwood ones. Further latex contains phenols which are known to 3827

interfere with auxin synthesis and callus induction. The data related to effect of age of rootstocks on per cent sprouting success of budded jackfruit plants recorded significant differences among the treatments (Table 2). The maximum percentage of sprouting success (71.11%) observed on two month old rootstocks followed by four month (66.67%) and six month old rootstock (66.67%). The results indicated clearly that, younger the rootstocks, better the sprouting percentage as the age of the rootstocks has a relationship with regenerating ability of a plant which is found to be higher in younger rootstocks and this is because of higher activity of meristematic cells in younger rootstocks resulting in faster formation of callus and quick healing of bud union. It is also evident in this study that, as the age of the rootstocks increased there was reduction in the sprouting percentage which could be due to the lack of intimate contact of cambial region of both stock and the scion bud. These results are in conformity with Aralikatti et al., (2011). Similar results were also obtained in jackfruit budding bynataraj (2013). They opined that the younger rootstocks are better amenable than older ones. Kelaskar (1993) also found similar results in jackfruit. While, minimum budding success percentage was observed on eight months old rootstocks (65.79%). As it leads to high latex flow and higher content of phenol reduces the sprouting success. This result was in conformity with Aralikatti et al., (2011) and Nataraj (2013), with lower sprouting success in older rootstock in jackfruit. Length of bud sprout Effect of age of rootstock on sprout length of budded plants showed significant differences among the treatments at different interval after budding (Table 3). Two month old rootstock showed significantly higher sprout length (5.29 cm, 9.00 cm, 11.30 cm,18.67 cm and 20.79 cm) at 60 th, 75 th, 90 th, 105 th and 120 th day after budding respectively, which was on par with four month old rootstock (3.78 cm, 7.73 cm, 7.97 cm, 18.18 cm, 20.44 cm) at 60 th, 75 th, 90 th, 105 th and 120 th day after budding respectively and also on par with six month old rootstock (7.02 cm and 16.87 cm) at 75 th and 105 th day after budding respectively. This could be due to vigorous nature of the younger rootstocks resulting from the faster multiplication of meristematic cells in the juvenile rootstocks. Similar results were obtained in guava by Patel et al., (2007). These results are in conformity with Ghosh (2009) in case of ber where, the maximum length of the budlings noticed on younger rootstocks due to good compatibility between stock and scion bud, which resulted in good vascular connection for movement of water and nutrients from stock to scion. Similar results was obtained in jackfruit by Nataraj (2013). However lower sprout length (2.95 cm, 6.11 cm, 6.51 cm and 16.03 cm) was recorded in eight month old rootstock at 60 th, 75 th, 90 th and 105 th day after budding, respectively. This could be due to low meristematic activity and poor connection between stock and scion, resulting in lower length of budded plants. This result was in accordance with Ghosh (2009). Number of leaves per budded plant Effect of age of rootstock on number of leaves per budded plants showed significant differences among the treatments at different interval after budding (Table 4). Two month old rootstock showed significantly higher number of leaves (2.08, 3.38, 4.93, 7.23 and 11.67) per budded plants at 60 th,75 th,90 th,105 th and 120 th days after budding respectively, which was on par with four month old 3828

rootstock (1.67, 3.15, 7.05 and 11.07) at 60 th,75 th,105 th and 120 th day after budding respectively. This might be due to the development of more sprouts, more meristematic activity due to higher cell division, cell elongation and better healing of budded plants. Similar results were obtained Aralikatti et al., (2011) and Nataraj (2013) in jackfruit. The maximum number of leaves per budded plant was noticed in case of guava by Patel et al., (2007). However lower number of leaves (1.00, 2.73, 4.00, 5.67 and 7.87) were recorded in eight month old rootstock at 60 th, 75 th, 90 th, 105 th and 120 th day after budding respectively. This could be due to poor meristematic activity, poor content of growth substances and higher phenol activity resulting in lower number of leaves. This result was in conformity with results of Nataraj (2013). Table.1 Effect of age of rootstocks on budding and sprouting success of budded jackfruit plants Treatments Budding success (%) Sprouting success (%) T 1 : 2 Months old rootstock 90 (71.57) 71.11 (57.49) T 2 : 4 Months old rootstock 84 (66.42) 66.67 (54.74) T 3 : 6 Months old rootstock 78 (62.03) 66.67 (54.74) T 4 : 8 Months old rootstock 76 (60.67) 65.79 (54.20) SEm ± 0.53 0.40 CD at 5% 1.58 1.21 Figures in the parenthesis are arc sine transformed value Table.2 Effect of age of rootstocks on sprout length in budded jackfruit plant at different intervals after budding Treatments Sprout length (cm) 60 DAB 75 DAB 90 DAB 105 DAB 120 DAB T 1 : 2 Months old rootstock 5.29 9.00 11.30 18.67 20.79 T 2 : 4 Months old rootstock 3.78 7.73 7.97 18.18 20.44 T 3 : 6 Months old rootstock 3.00 7.02 7.44 16.87 18.16 T 4 : 8 Months old rootstock 2.95 6.11 6.51 16.03 18.55 SEm ± 0.57 0.67 1.13 0.62 0.73 CD at 5% 1.72 2.01 3.35 1.85 2.52 DAB: Days after budding Table.3 Effect of age of rootstocks on number of leaves per budded jackfruit plant at different intervals after budding Treatments Number of leaves 60 DAB 75 DAB 90 DAB 105 DAB 120 DAB T 1 : 2 Months old rootstock 2.08 3.38 4.93 7.23 11.67 T 2 : 4 Months old rootstock 1.67 3.15 4.07 7.05 11.07 T 3 : 6 Months old rootstock 1.47 2.96 4.00 6.38 10.13 T 4 : 8 Months old rootstock 1.00 2.73 4.00 5.67 7.87 SEm ± 0.24 0.15 0.21 0.38 0.72 CD at 5% 0.73 0.44 0.63 1.14 2.77 DAB: Days after budding 3829

Table.4 Effect of age of rootstocks on diameter of budded jackfruit plants at different intervals after budding Treatments Diameter (mm) 60 DAB 75 DAB 90 DAB 105 DAB 120 DAB T 1 : 2 Months old rootstock 2.40 2.56 2.64 2.72 2.89 T 2 : 4 Months old rootstock 1.65 2.04 2.16 2.48 2.75 T 3 : 6 Months old rootstock 1.11 1.96 2.22 2.56 2.66 T 4 : 8 Months old rootstock 1.09 2.08 2.36 2.79 2.94 SEm ± 0.13 0.06 0.06 0.07 0.06 CD at 5% 0.41 0.19 0.18 0.25 0.24 DAB: Days after budding Figure.1 Effect of age of root stock on patch budding budded jackfruit (Artocarpus heterophyllus Lam.) plants Diameter of bud sprout Effect of age of rootstock on diameter of budded plants showed significant result among the treatments at different interval after budding. Two month old rootstocks showed significantly higher (2.40 mm, 2.56 mm, 2.64 mm and 2.89mm) diameter of budded plants at 75 th, 90 th, 105 th and 120 th day after budding respectively, followed by four 3830

month old rootstock(2.04 mm, 2.16 mm, and 2.75 mm) at 75 th, 90 th and 120 th day after budding respectively. It could be due to younger rootstocks possess higher meristematic activity due to higher rate of cell division and cell elongation, thereby enhances maximum diameter of budded plant. These results are in conformity with Nataraj (2013) in jackfruit. However lower diameter (1.09 mm, 1.96 mm, 2.22 mm, 2.56 mm and 2.66 mm) was recorded in eight month old rootstock at 75 th, 90 th, 105 th and 120 th day after budding respectively. This might be due to older rootstock may showing poor meristematic activity and cambial activity, which in turn reduces diameter. These results are in accordance with results of Nataraj (2013) in jackfruit. From these results, it can be concluded that the effect of age of rootstocks on budding percentage on jackfruit differed significantly among the treatments. However, two months old rootstocks significantly recorded the maximum budding success, sprouting success, sprout length, number of leaves and diameter of bud sprout followed by four months old rootstocks and six months old rootstocks. While, minimum budding success was recorded in eight months old rootstock. Therefore patch budding using two to four months old rootstocks gave higher budding success in vegetative propagation of jackfruit. References Ahmad, M., Feza, I. U. and Khan, A. A. 2007. Response of different environments and dates of patch budding on success in walnut. Indian J. Hort., 64 (3): 286-289. Aralikatti, G., Mokashi, A. N., Hegde, R. V., Patil, R. V. and Angadi, S. G. 2011. Softwood grafting in jackfruit. Acta Hort., 890: 101-106. Ghosh, S. N. 2009. Propagation studies in ber for commercial multiplication in nursery an in situ. Acta Hort., 840: 321-326. Nataraj, G. 2013. Studies on different age of root stocks and month of budding in gumless jack (Artocarpus heterophyllus Lam.). M.Sc. (Hort.) Thesis, Univ. Hort. Sci., Bagalkot. Patel, R. K., Yadav, D. S., Singh, A. and Yadav, R. M. 2007. Performance of patch budding on different cultivars/hybrids of guava under mid hills of Meghalaya. Acta Hort.,735: 189-192. Priyanka, H. L., 2013, Standardization of grafting techniques in jackfruit. M.Sc. Thesis Univ. Horti. Sci., Bagalkot (India). Radha, T. and Mathew, L., Text book of Fruit Crops. Horticulture Science Series-3. New India Publishing Agenc, New Delhi, p.325-330. How to cite this article: Archana, S. Shyamalamma, Shweta Hiremath, V. Nachegowda, J.S. Aravind Kumar and A.M. Rajesh. 2018. Influence of Age of Root Stock on Budding Success and Growth of Patch Budded Jackfruit (Artocarpus heterophyllus Lam.) Plants. Int.J.Curr.Microbiol.App.Sci. 7(07): 3826-3831. doi: https://doi.org/10.20546/ijcmas.2018.707.444 3831