BOOK
Achieving sustainable cultivation of oil palm Volume 2
Prof. Alain Rival | Dr Tan Joon Sheong | Lee Yang Ping | Sharifah Shahrul Rabiah Syed Alwee | Létizia Camus-Kulandaivelu | Maxime Mercière | Alba Zaremski | Frédéric Breton | Christophe Klopp | Dr Elizabeth Alvarez | Dr Laurence Beaudoin-Ollivier | Dr Edgar Clive Turner | Julie Hinsch | Gerardo Martínez | José I. Sanz | Gabriel Torres | Greicy Sarria | Diana Velez | Franky Zuñiga | Yuri Mestizo | Francia Varón | Dr Tristan Durand-Gasselin | Dr Benoît Cochard | Hubert de Franqueville | Dr Ravigadevi Sambanthamurthi | Ng Mei Han | Dr Choo Yuen May | Dr Jean-Michel Lecerf | Dr Hélène Delisle | Dr Cecile Bessou | Heinz Stichnothe | Amir Abdul-Manan | Shabbir Gheewala | Dr Vijaya Subramaniam | H. Zulkifli | Halimah Muhamad | Dr Paul Nelson | Neil Huth | Marcus Sheaves | Lénaïc Pardon | Han She Lim | Rai S. Kookana | Dr Marcel Djama | Dr Carl Traeholt | Mr Salman Zafar | Dr Pierre-Marie Bosc | Cédric Gaillard | M. Mosquera | J. A. Beltrán | Dr Sylvain Rafflegeau | Doris Nanda | Claude Genot
(2018)
Additional Information
Book Details
Abstract
Oil palm is widely cultivated in tropical countries for use in food processing, personal care products and other applications such as biodiesel. Cultivation faces a range of challenges such as its environmental impact (e.g. in deforestation and biodiversity loss) as well threats from pests and diseases. There is an urgent need to make oil palm cultivation more efficient and environmentally sustainable. This collection reviews the key research addressing this challenge.
Volume 2 reviews advances in understanding and managing fungal and other diseases affecting oil palm such as basal stem rot, vascular wilt and bud rot as well as insect pests. It also discusses the latest research on palm oil and health as well as the key issue of sustainability, including monitoring the environmental impact of cultivation, sustainability certification, conservation and supporting smallholders.
With its distinguished editor and international team of expert authors, this collection will be a standard reference for researchers, oil palm growers, palm oil processors as well as government and non-governmental agencies responsible for more sustainable oil palm cultivation. Volume 2 is accompanied by Volume 1 which covers breeding and cultivation techniques.
Oil palm is widely cultivated in tropical countries for use in food processing, personal care products and other applications such as biodiesel. Cultivation faces a range of challenges such as its environmental impact (e.g. in deforestation and biodiversity loss) as well threats from pests and diseases. There is an urgent need to make oil palm cultivation more efficient and environmentally sustainable. This collection reviews the key research addressing this challenge.
Volume 2 reviews advances in understanding and managing fungal and other diseases affecting oil palm such as basal stem rot, vascular wilt and bud rot as well as insect pests. It also discusses the latest research on palm oil and health as well as the key issue of sustainability, including monitoring the environmental impact of cultivation, sustainability certification, conservation and supporting smallholders.
With its distinguished editor and international team of expert authors, this collection will be a standard reference for researchers, oil palm growers, palm oil processors as well as government and non-governmental agencies responsible for more sustainable oil palm cultivation. Volume 2 is accompanied by Volume 1 which covers breeding and cultivation techniques.
“This collection aims to be as comprehensive as possible in coverage, therefore should be essential reading not only for planters and researchers, but also for those involved with international agencies, governmental institutions, academia and non-profit organisations.”
M. R. Chandran, Advisor and former Vice-President, Roundtable on Sustainable Palm Oil (RSPO)
Sample content
Not sure what you're getting if you buy this book? Click on the cover image below to open a PDF and preview pages from the book. .Table of Contents
Section Title | Page | Action | Price |
---|---|---|---|
Contents | v | ||
Series list | xi | ||
Introduction | xv | ||
Part 1 Diseases and pests | xv | ||
Part 2 Nutritional and sensory quality | xvi | ||
Part 3 Sustainability and supporting smallholders | xvii | ||
Dedication | xix | ||
Part 1 Diseases and pests | 1 | ||
Chapter 1 Fungal diseases affecting oil palm | 3 | ||
1 Introduction | 2 | ||
2 BSR caused by Ganoderma boninense | 4 | ||
3 Cellulolytic degradation as a possible mode of infection | 10 | ||
4 Laccase gene discoveries | 11 | ||
5 Developing partial resistance planting material against BSR | 14 | ||
6 Fusarium wilt | 14 | ||
7 Spear rot or bud rot | 15 | ||
8 Future trends and conclusion | 16 | ||
9 Where to look for further information | 16 | ||
10 Acknowledgements | 17 | ||
11 References | 17 | ||
Chapter 2 Diseases affecting oil palm | 23 | ||
Part 2 Nutritional and sensory quality | 165 | ||
Chapter 7 Bioactive compounds in oil palm | 167 | ||
1 Introduction | 166 | ||
2 Lipid-soluble bioactives | 168 | ||
3 Water-soluble bioactives | 177 | ||
4 Bioactive properties of OPP | 181 | ||
5 Bioactives in different palm sources | 185 | ||
6 Future trends | 191 | ||
7 Conclusion | 192 | ||
8 References | 192 | ||
Chapter 8 Palm oil and health | 203 | ||
1 Introduction | 203 | ||
2 Palm oil composition and properties | 204 | ||
3 Effects of palm oil on cardiovascular risk markers | 206 | ||
4 The health impacts of saturated fatty acids | 208 | ||
5 Palm oil consumption | 211 | ||
6 Further trends in research | 212 | ||
7 Conclusion | 212 | ||
8 Where to look for further information | 213 | ||
9 References | 213 | ||
Chapter 9 The nutritional value of red palm oil | 217 | ||
1 Introduction | 216 | ||
2 Nutritional composition of palm oil | 218 | ||
3 RPO as a source of provitamin A carotenoids | 219 | ||
4 Case study: RPO in Burkina Faso | 222 | ||
5 Conclusion | 228 | ||
6 Future trends | 228 | ||
7 Where to look for further information | 229 | ||
8 References | 229 | ||
Part 3 Sustainability and supporting smallholders | 233 | ||
Chapter 10 Life cycle assessments of oil palm products | 235 | ||
1 Introduction | 234 | ||
2 LCA principles and methodology | 236 | ||
3 Results of LCA applied to oil palm products | 238 | ||
4 Challenges in building LCA of oil palm products | 243 | ||
5 Oil palm LCA improvement tracks | 248 | ||
6 Conclusion | 249 | ||
7 Where to look for further information | 250 | ||
8 References | 251 | ||
Chapter 11 Life cycle assessment (LCA) of palm oil in practice: the example of Malaysia | 257 | ||
1 Introduction | 257 | ||
2 Life cycle assessment (LCA) methodology | 258 | ||
3 Life cycle impact assessment (LCIA) case studies | 260 | ||
4 Greenhouse gas (GHG) emissions | 262 | ||
5 Future trends and conclusion | 263 | ||
6 Where to look for further information | 264 | ||
7 References | 264 | ||
Chapter 12 Modelling environmental impacts of agriculture, focusing on oil palm | 265 | ||
1 Introduction | 264 | ||
2 Characteristics of models and the system | 267 | ||
3 Integrated environmental impact modelling approaches | 270 | ||
4 Modelling impacts of cultivation on components of the environment | 278 | ||
5 Modelling causal processes | 285 | ||
6 Conclusions and research directions | 298 | ||
7 Where to look for further information | 299 | ||
8 References | 300 | ||
Chapter 13 Certifying sustainability in oil palm cultivation | 315 | ||
1 Introduction | 314 | ||
2 Key themes in sustainability certification research | 317 | ||
3 Challenges and limitations of sustainability initiatives in palm oil cultivation | 318 | ||
4 The way forward for sustainability certification | 323 | ||
5 Future trends and conclusion | 325 | ||
6 Where to look for further information | 326 | ||
7 References | 327 | ||
Chapter 14 Balancing oil palm cultivation with forest and biodiversity conservation | 331 | ||
1 Introduction | 330 | ||
2 Research methods | 334 | ||
3 Measuring operational impacts on biodiversity | 334 | ||
4 Measuring operational impacts on abiotic factors | 335 | ||
5 Biological pest management | 337 | ||
6 Results and discussion | 337 | ||
7 Future trends and conclusion | 342 | ||
8 Where to look for further information | 343 | ||
9 References | 344 | ||
Chapter 15 Waste management and recycling in oil palm cultivation | 349 | ||
1 Introduction | 348 | ||
2 Palm oil mills and their wastes: overview | 349 | ||
3 Residues after processing: kernel shells, mesocarp fibres and effluent | 352 | ||
4 Residues after processing: empty fruit bunches (EFBs) | 354 | ||
5 Cogeneration technologies | 356 | ||
6 Conclusion | 357 | ||
7 Where to look for further information | 357 | ||
8 References | 358 | ||
Chapter 16 Understanding smallholders in oil palm cultivation: a case study from Sumatra | 361 | ||
1 Introduction | 360 | ||
2 Defining smallholders | 363 | ||
3 Surveys and data collection | 365 | ||
4 Results | 367 | ||
5 Towards a typology of independent smallholders | 373 | ||
6 Conclusion | 377 | ||
7 Future trends | 379 | ||
8 Acknowledgements | 380 | ||
9 References | 380 | ||
Chapter 17 Closing yield gaps for small- and medium-scale oil palm producers: improving cultivation practices | 383 | ||
1 Introduction | 383 | ||
2 Analysing yield gaps | 388 | ||
3 Strategies to improve yields | 391 | ||
4 Results of Cenipalma’s strategy | 393 | ||
5 Future trends and conclusion | 400 | ||
6 Where to look for further information | 403 | ||
7 Acknowledgements | 403 | ||
8 References | 403 | ||
Chapter 18 Artisanal mills and local production of palm oil by smallholders | 407 | ||
1 Introduction | 406 | ||
2 Emergence of artisanal extraction of red palm oil in Africa | 408 | ||
3 Who is producing artisanal red palm oil and why | 413 | ||
4 Major operations and equipment for artisanal processing | 417 | ||
5 Artisanal extraction units | 425 | ||
6 Artisanal red palm oil composition, quality and uses | 427 | ||
7 Sustainable development issues for artisanal red palm oil production | 430 | ||
8 Where to look for further information | 432 | ||
9 References | 432 | ||
Index | 435 |