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UNIVERSITI PUTRA MALAYSIA
SOMATIC EMBRYOGENESIS,ORGANOGENESIS AND ASSESSMENT OF SOMACLONAL VARIATIONS IN MANGOSTEEN
(Garcinia mangostana L.)
INNAKA AGENG RINEKSANE
FP 2011 36
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SOMATIC EMBRYOGENESIS,
ORGANOGENESIS AND ASSESSMENT OF
SOMACLONAL VARIATIONS IN MANGOSTEEN
(Garcinia mangostana L.)
INNAKA AGENG RINEKSANE
DOCTOR OF PHILOSOPHY
UNIVERSITI PUTRA MALAYSIA
2011
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This thesis is dedicated to:
My husband, Epijanto Anggariadi
My mother, Siti Aisjah and my father, Amrie Anwar
My mother in law, Soemiani
My sons, Muhammad Ammar Aiman Majid and
Muhammad Zidni Ilman Tafsiri
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Abstract of thesis presented to the Senate of Universiti Putra Malaysia in fulfillment of the requirements for the degree of Doctor of Philosophy
SOMATIC EMBRYOGENESIS, ORGANOGENESIS AND ASSESSMENT OF SOMACLONAL VARIATIONS IN MANGOSTEEN
(Garcinia mangostana L.)
By
INNAKA AGENG RINEKSANE
May 2011
Chairman : Associate Professor Mihdzar Abdul Kadir, PhD
Faculty : Agriculture
Mangosteen is one of the most delicious tropical fruits which has an
increasing demand due to its wide range of uses. It is used for its medicinal
properties such as an antioxidant, antitumoral, anti-inflammatory, antiallergy,
antibacterial, antifungal and antiviral. One of the problems related to the
establishment of mangosteen plantation is to obtain seedlings throughout the
year, which can be solved by micropropagation.
In attempts to establish the embryogenic calli of G. mangostana, the
potential of uncoated and coated seed explants in forming embryogenic
callus was examined in the basal Linsmaier and Skoog (LS) medium
supplemented with different auxins at various concentrations. Combinations
of cytokinins and 2,4-D in two different media [Murashige and Skoog (MS)
and LS] were assessed to improve embryogenicity of calli in mangosteen.
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Addition of glutamine at various concentrations into MS medium containing 8
mg/L 2,4-D and 0.1 mg/L BAP was also carried out to induce embryogenic
callus of mangosteen. A study was also carried out to determine the growth
and multiplication of cells in suspension cultures and the effect of cytokinins
on the advanced formation of embryogenic stages of mangosteen. BAP and
NAA were considered for shoot regeneration and the rooting of mangosteen
shoots. The most favorable medium for acclimatization of mangosteen
plantlets was also produced. The assessment of somaclonal variations
among mangosteen plantlets by using RAPD was performed.
Uncoated seed explants produced a lower percentage of callus formation
(44.23 %), callus score (1.66), fresh weight of callus (59.98 mg) and a lower
percentage of contaminated explants (9.7 %) compared to coated seed
explants. Among the highest percentage of callus formation (93.3 %) and
callus score (3.06) were obtained when uncoated seed explants were
cultured on basal LS medium containing 8 mg/L 2,4-D. The calli were
yellowish, compact and nodular compared to the spongy loose, whitish and
yellowish calli produced on media containing IAA, IBA or NAA. The highest
percentage of callus formation (80 %) and the lowest percentage of callus
browning (53.53 %) occurred on MS medium supplemented with 8 mg/L 2,4-
D and 0.1 mg/L BAP. Although glutamine did not increase the growth of
calli, the texture (more friable) and color of callus (more yellowish) were
improved.
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The cells were able to divide and proliferate eventhough cultured in half
strength MS liquid medium without 2,4-D. After six months of culture, the
heart embryogenic stage was obtained only on medium supplemented with 1
mg/L BAP. The globular and torpedo embryogenic stages were obtained on
media supplemented with 1, 3 and 9 mg/L TDZ after five months of culture.
Mass production of adventitious shoots was achieved by culturing seed
segments of mangosteen on MS solid medium supplemented with 5 mg/L
BAP + 0.1 mg/L NAA which produced the highest shoot number (31.7
shoots). Forty-one percent of shoots were successfully rooted in MS liquid
medium supplemented with 1 mg/L IBA, 60 g/L sucrose and 5 g/L activated
charcoal after 4 months. During acclimatization, plantlets grown in medium
consisting of organic matter only (A6) showed the highest height difference
(7 mm) as compared with other treatments.
Stunted shoots with narrow leaves were produced in abundance in MS solid
medium supplemented with 5 mg/L BAP + 0.1 mg/L NAA. These shoots
were morphologically and genetically different from shoots of other
treatments as detected by RAPD marker. RAPD marker effectively
recognized the genetic difference among the in vitro shoots and from their
mother plant with high level of similarity (80 %). Among the acclimatized
plantlets and in vitro shoots, 72 % level of similarity was obtained. The
lowest level of similarity (55%) was found between in vivo samples from
Serdang and Pahang.
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Abstrak tesis yang dikemukakan kepada Senat Universiti Putra Malaysia sebagai memenuhi keperluan untuk ijazah Doktor Falsafah
SOMATIK EMBRIOGENESIS, ORGANOGENESIS DAN PENGKAJIAN VARIASI SOMAKLONAL PADA MANGGIS (Garcinia mangostana L.)
Oleh
INNAKA AGENG RINEKSANE
Mei 2011
Pengerusi : Profesor Madya Mihdzar Abdul Kadir, PhD
Fakult i : Pertanian
Manggis merupakan antara spesies buah tropika yang paling lazat,
mempunyai permintaan yang semakin bertambah kerana ianya mempunyai
keberkesanan sebagai anti oksidan, anti tumor, anti-inflamasi, anti alergi, anti
bakteria, anti jamur dan agen anti virus. Permasalahan yang berlaku adalah
tidak cukupnya anak pokok untuk penanaman skala besar. Salah satu pilihan
untuk pembiakan secara besar-besaran ialah dengan kultur tisu.
Dalam usaha untuk mendapatkan embrio somatik daripada G. mangostana,
kalus yang berpotensi daripada eksplan biji berkulit dan tidak berkulit telah
diuji dalam medium basal Linsmaier dan Skoog (LS) yang dibekalkan dengan
pelbagai jenis auksin pada kepekatan yang berbeza. Kombinasi sitokinin dan
2,4-D yang dibekalkan dalam dua media yang berbeza [Murashige dan Skoog
(MS) dan LS] telah diuji untuk merangsang kalus embriogenik pada manggis.
Penambahan glutamin pada kepekatan yang berbeza ke dalam medium MS
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yang mengandungi 8 mg/L 2,4-D dan 0.1 mg/L BAP juga dikenalpasti untuk
merangsang kalus embriogenik manggis. Penyelidikan juga telah dijalankan
untuk mengenalpasti regenerasi dan multiplikasi sel dalam kultur suspensi
dan mengenalpasti kesan daripada sitokinin untuk merangsang pembentukan
tahap embriogenik daripada manggis. BAP dan NAA diuji untuk regenerasi
pucuk dan akar. Media aklimatisasi yang paling berkesan untuk planlet
manggis juga telah dikenalpasti. Pengenalpastian variasi somaklonal di
antara plantlet manggis melalui kaedah RAPD juga telah dikaji.
Biji tidak berkulit menghasilkan peratusan lebih rendah pada regenerasi kalus
(44.23%), skor kalus (1.66), berat segar kalus (59.98 mg) dan peratusan lebih
rendah pada eksplan terkontaminasi (9.7%) apabila dibandingkan dengan biji
berkulit. Antara peratusan regenerasi kalus (93.3%) dan skor kalus paling
tinggi (3.06) telah diperolehi apabila eksplan biji tidak berkulit dikulturkan di
dalam medium basal LS yang mengandungi 8 mg/L 2,4-D. Kalus yang
dihasilkan adalah padat kekuningan dan bernodul apabila dibandingkan
dengan kalus berspan, putih dan kekuningan yang dihasilkan daripada media
yang mengandungi IAA, IBA atau NAA. Peratusan regenerasi kalus tertinggi
(80%) dan peratusan pemerangan kalus terendah (53.53%) dihasilkan
daripada medium MS yang dibekalkan dengan 8 mg/L 2,4-D dan 0.1 mg/L
BAP. Walaupun glutamin tidak merangsang regenerasi kalus, tekstur kalus
yang lebih rapuh (friable) dan warna kalus yang lebih kekuningan telah
ditingkatkan.
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Sel dapat membahagi dan mengganda walaupun dikulturkan di dalam
medium MS separuh cecair yang tidak mengandungi 2,4-D. Enam bulan
selepas pengkulturan, embrio somatik jantung telah diperolehi hanya pada
medium yang mengandungi 1 mg/L BAP. Embrio somatik bulat dan torpedo
telah diperolehi pada medium yang mengandungi 1, 3 dan 9 mg/L TDZ
selepas 5 bulan pengkulturan.
Pengeluaran pucuk adventitius secara besar-besaran telah diperolehi dengan
pengkulturan segmen biji manggis ke dalam medium padat MS yang
dibekalkan dengan 5 mg/L BAP dan 0.1 mg/L NAA yang telah menghasilkan
bilangan pucuk tertinggi (31.7 pucuk). Empat puluh satu peratus pucuk telah
berjaya menghasilkan akar pada medium cecair MS yang mengandungi 1
mg/L IBA, 60 g/L sukrosa dan 5 g/L arang teraktif selepas 4 bulan. Untuk
aklimatisasi, plantlet yang dipindahkan ke dalam medium organik (A6) sahaja
yang menghasilkan perbezaan ketinggian tertinggi (7 mm) apabila
dibandingkan dengan rawatan yang lain.
Pucuk terbantut dengan daun kecil telah dihasilkan dalam bilangan besar
daripada medium padat MS yang mengandungi 5 mg/L BAP dan 0.1 mg/L
NAA. Ianya menunjukkan perbezaan dari segi morfologi dan genetik dengan
pucuk-pucuk yang dihasilkan daripada rawatan lainnya selepas dikenalpasti
melalui kaedah RAPD. Kaedah RAPD telah berjaya mengenalpasti variasi
genetik di antara pucuk in vitro dan pokok induk dengan tahap persamaan
yang tinggi (80%). Di antara plantlet aklimatisasi dan pucuk-pucuk in vitro,
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tahap persamaan 72% telah diperolehi. Tahap persamaan terendah (55%)
telah dikenalpasti di antara aksesi in vivo dari Serdang dan Pahang.
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ACKNOWLEDGEMENTS
Praise to Almighty Allah (SWT) the most Benevolent, Merciful and
Compassionate, for giving me the utmost strength, patience and guidance to
have this work completed.
I would like to express my most sincere gratitude and deepest appreciation
to Associate Professor Dr. Mihdzar Abdul Kadir, chairman of my supervisory
committee, for his dedicated efforts, support, invaluable advice and
intellectual guidance during the accomplishment of this research work. I
greatly appreciate all the help he availed to me while pursuing my studies. I
would also like to thank my supervisory committee members, Associate
Professor Dr. Saleh Kadzimin and Associate Professor Dr. Faridah Qamaruz
Zaman for their help, constant encouragement and constructive comments
throughout the period of this study.
I would like to extend my sincere thanks to the Muhammadiyah University of
Yogyakarta, Indonesia, through Dr. Gunawan Budiyanto, Ir Darmawan Suryo
Sudarsono, MP (in memoriam), Ir. Nafi Ananda Utama, MS for providing me
the financial support during my study. Thanks to Universiti Putra Malaysia
also for offering me with the Graduate Research Fellowship.
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My special thanks go to Dr Ahmad Selamat for his inputs and comments on
statistical analysis, Mr Mahmood Danae for his valuable suggestions and
kindness in the statistical analysis in this manuscript and Angela Ee De Silva
for editing this manuscript. My special thanks also go to Ir Agung Astuti,
MSi, Head of Agrotechnology Department, Faculty of Agriculture,
Muhammadiyah University of Yogyakarta, Indonesia, for her constant
support and motivation during the period of my study.
I am very grateful to Rostina Rolon, Siti Raziah, Rozila, Azwana, staffs of
Agrotechnology Laboratory and staffs of Department of Agriculture
Technology Universiti Putra Malaysia for their help and kindness during my
study. I would also like to thank all my lab mates for their warm friendship,
advice and help during the period of my study. Special thanks go to Eum
Sang Mi, Alireza Khosravi and P.K Dewi Hayati for their advice and help with
my RAPD works, Syaiful Bahri Panjaitan and Suleiman Elhory for their
advice and kindness.
Thanks to my family, my mother and father, for their love and
encouragement over the years to help me reach this point. I am especially
grateful to my husband, Epijanto Anggariadi, for his understanding,
encouragement and wholehearted support during the period of the study. A
special thanks to my sons, Ammar and Zidni, who made my life more
enjoyable.
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I certify that a Thesis Examination Committee has met on 19 May 2011 to conduct the final examination of Innaka Ageng Rineksane on her thesis entitled “Somatic Embryogenesis, Organogenesis and Assessment of Somaclonal Variation in Mangosteen (Garcinia mangostana L.)” in accordance with the Universities and University Colleges Act 1971 and the Constitution of the Universiti Putra Malaysia [P.U.(A) 106] 15 March 1998. The Committee recommends that the student be awarded the Doctor of Philosophy.
Members of the Thesis Examination Committee were as follows:
Mahmud Tengku Muda Mohamed, PhD Associate Professor Faculty of Agriculture Universiti Putra Malaysia (Chairman) Maheran Abdul Aziz, PhD Associate Professor Faculty of Agriculture Universiti Putra Malaysia (Internal Examiner) Datin Siti Nor Akmar Abdullah, PhD Associate Professor Faculty of Agriculture Universiti Putra Malaysia (Internal Examiner) Sompong Te-chato, PhD Associate Professor Faculty of Natural Resources Prince of Songkla University Thailand (External Examiner)
___________________________ NORITAH UMAR, PhD
Associate Professor and Deputy Dean School of Graduate Studies Universiti Putra Malaysia Date: 26 July 2011
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This thesis was submitted to the Senate of Universiti Putra Malaysia and has been accepted as fulfillment of the requirement for the degree of Doctor of Philosophy. The members of the Supervisory Committee were as follows: Mihdzar Abdul Kadir, PhD Associate Professor Faculty of Agriculture Universiti Putra Malaysia (Chairman) Saleh Kadzimin, PhD Associate Professor Faculty of Agriculture Universiti Putra Malaysia (Member) Faridah Qamaruz Zaman, PhD Associate Professor Faculty of Science Universiti Putra Malaysia (Member)
________________________________ HASANAH MOHD. GHAZALI, PhD Professor and Dean School of Graduate Studies Universiti Putra Malaysia Date:
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DECLARATION
I declare that the thesis is my original work except for quotations and citations which have been duly acknowledged. I also declare that it has not been previously, and is not concurrently, submitted for any other degree at Universiti Putra Malaysia or at any other institution.
___________________________
INNAKA AGENG RINEKSANE
Date: 19 May 2011
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TABLE OF CONTENTS
Page
DEDICATION ii ABSTRACT iii ABSTRAK vi ACKNOWLEDGEMENTS x APPROVAL xii DECLARATION xiv LIST OF TABLES xx LIST OF FIGURES xxii LIST OF PLATES xxiv LIST OF ABBREVIATIONS xxvii CHAPTER 1 INTRODUCTION
1.1. Background 1
1.2. Objectives 4
2 LITERATURE REVIEW 2.1. Mangosteen 5
2.1.1 Origin and Distribution 5
2.1.2 Taxonomy and Morphology 6
2.1.3 Production and Utilization 8
2.1.4 Genetic Variability in Mangosteen 11
2.2. Mangosteen Micropropagation 13
2.2.1. Organogenesis 14
2.2.2. Somatic Embryogenesis 16
2.2.3. Callus Induction 18
2.2.4. Cell Suspension 21
2.2.5. Acclimatization 23
2.3. Biochemistry of In Vitro Cultured Plant 24
2.3.1. Auxins 25
2.3.2. Cytokinins 27
2.3.3. Activated Charcoal 28
2.3.4. Organic Nitrogen Source 29
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2.4. Molecular Markers 30
2.4.1. RAPD as Genetic Marker 32
2.4.2. Somaclonal Variations 33
3 IN VITRO DEVELOPMENT OF EMBRYOGENIC CALLI IN MANGOSTEEN 3.1. Introduction 35
3.2. Materials and Methods 37
3.2.1. The Effects of Auxins on Callus Induction from
Mangosteen Seeds 37
Preparation of Plant Materials 37
Basic Medium 38
Treatments 38
Experimental Design 40
Parameters 40
3.2.2. The Effect of 2,4-D and Cytokinins on Callus
Induction from Mangosteen Seed Explants 41
Preparation of Plant Materials 41
Basic Medium 41
Treatments 42
Experimental Design 43
Parameters 43
3.2.3. The Effect of Glutamine on Embryogenic Callus
Formation in Mangosteen 43
Preparation of Plant Materials 43
Basic Medium 44
Treatments 44
Experimental Design 45
Parameters 45
3.3. Results and Discussion 45
3.3.1. The Effects of Auxins on Callus Induction from
Mangosteen Seeds 45
Percentage of Explants Forming Callus 47
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Callus Scoring 54
Fresh Weight of Callus 55
Percentage of Contamination 56
Texture and Color of Callus 56
3.3.2. The Effect of 2,4-D and Cytokinins on Callus
Induction from Mangosteen Seed Explants 60
Percentage of Callus Formation 66
Percentage of Browning Callus 68
3.3.3. The Effect of Glutamine on Embryogenic Callus
Formation in Mangosteen 70
Callus Score and Fresh Weight 70
Detection of Embryogenic Callus 74
4 DEVELOPMENT OF EMBRYOGENIC STAGES IN CELL
SUSPENSION CULTURES OF MANGOSTEEN 4.1. Introduction 78
4.2. Materials and Methods 79
4.2.1. Cell Multiplication 79
Plant Materials 79
Basic Medium 80
Treatments 80
Experimental Design 81
Parameters Observed 81
4.2.2. The Effect of BAP on the Development of
Embryogenic Stages in Mangosteen Cell
Suspension Cultures 81
Plant Cell Used for Culture 81
Basic Medium 82
Treatments 82
Experimental Design 82
Parameters Observed 82
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4.2.3. The Effect of TDZ on Development of
Embryogenic Stages in Mangosteen Cell
Suspension Cultures 83
Preparation of Plant Materials 83
Basic Medium 84
Treatments 84
Experimental Design 84
Parameters Observed 84
4.3. Results and Discussion 85
4.3.1. Cell Multiplication 85
4.3.2. The Effect of Ctyokinins on the Development of
Embryogenic Stages from Cell Suspension
Cultures 91
4.3.3. The Effect of BAP on the Development of
Embryogenic Stages from Cell Suspension
Cultures 93
4.3.4. The Effect of TDZ on the Development of
Embryogenic Stages from Cell Suspension
Cultures 96
5 IN VITRO REGENERATION OF MANGOSTEN THROUGH
ORGANOGENESIS 5.1. Introduction 99
5.2. Materials and Methods 101
5.2.1. Shoot Induction 101
Preparation of Plant Materials 102
Basic Medium 102
Treatments 103
Parameters Observed 103
Experimental Design and Data Analysis 104
5.2.2. Root Induction 104
5.2.3. Acclimatization 105
Plant Materials 106
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Acclimatization Media 106
Treatments 107
Parameters Observed 107
Experimental Design and Data Analysis 108
5.3. Results and Discussion 108
5.3.1. Shoot Induction 108
5.3.2. Root Induction 117
5.3.3. Acclimatization 118
6 DETECTION OF SOMACLONAL VARIATIONS IN
MANGOSTEEN BY USING RANDOM AMPLIFIED POLYMORPHIC DNA (RAPD) 6.1. Introduction 123
6.2. Materials and Methods 124
6.2.1. Plant Materials, Samples Preparation and Primer
Tested 124
6.2.2. DNA Isolation and Quantification 128
6.2.3. Polymerase Chain Reaction (PCR) Optimization
and Primer Screening 129
6.2.4. Data Analysis 130
6.3. Results and Discussion 131
6.3.1. DNA Isolation and Quantification 131
6.3.2. Primer Screening 132
6.3.3. RAPD Analysis 134
7 SUMMARY, GENERAL CONCLUSION AND RECOMMENDATION FOR FUTURE RESEARCH 142
REFERENCES 149 APPENDIX 161 BIODATA OF STUDENT 170