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Published by International Coconut Community

ISSN : 02151162 EISSN : 27218856 DOI : 10.37833/cord

Core Subject : Science, Agriculture,

Agriculture, Biological Sciences & Forestry Library & Information Science

Aims CORD aims to publish original research results and reviews on research and development. While encouraging those involved in research and developments to disseminate their finding it also assists policy makers and planners to be aware of the latest developments in the sector Scope CORD encompasses a broad range of research topics in animal sciences: seedlings and genetics, farming, harvesting, production, health, biotechnology, and production, socio-economic, and policy.

Arjuna Subject : Ilmu Pertanian dan Biologi (Semua) - Ilmu Pertanian dan Biologi (Lain-Lain)

Articles 387 Documents

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Effect of Organic and Inorganic Fertilizers Amendments on Inflorescence and Flower Morphology and Yield of Coconut (Cocos nucifera L.) Solangi, Abdul Hameed; Iqbal, M. Z.; Shafiq, Muhammad
International Coconut Community Journal Vol 30 No 2 (2014): CORD
Publisher : International Coconut Community

A study was conducted at the Plant Introduction Center (PIC), Southern Agricultural Research Center (SARC), Pakistan Agricultural Research Council (PARC), Karachi for the effect of Organic {Neem Seed Powder (NSP) and Gliricidia sepium leaves (GSL)} and Inorganic {(Urea (N), Di-ammonium phosphate (P) and Murait of potash (K), (NPK)} Fertilizers Amendments on Inflorescence and flower Morphology and Yield of Coconut. The experiment consist of eight treatments namely; T1 (NPK + NSP + GSL), T2 (NPK+ NSP), T3 (NPK+ GSL), T4 (NSP + GSL), T5 (NPK), T6 (GSL), T7 (NSP), T8 control without treatments. The experiment was laid down as Complete Randomized Block Design replicated three times. The results demonstrated that the number of spikelets with female flowers were significantly high in T1 to T7 as compared to T8 treatment. The 1st spikelets with number of female flowers (48.97) were significantly (p<0.05) high in T1 as compared to T2, T3, T4 and T8. In case of stalk length (38.05 cm) it was significantly (p<0.05) high in T1 as compared to T8. The findings of the study indicated that the number of nuts (99.33) and fruit weight (1490.77 g) were significantly (p<0.05) highest in T1 as compared to T3 to T8 and T2 to T8 treatments, respectively. The T1 treatment also showed better fruit length (25.75 cm), fruit breadth (42.97 cm), husk weight (448.66 g), shell weight (278.11 g), kernel weight (434.22 g) and nut water (188.77 ml) with significant differences in some of the treatments. The application of organic amended with inorganic fertilizers, enhanced the growth and nut production in nutrient deficient soils. It is therefore, recommended that treatment T1 {NPK+NSP+GSL)}/palm/year was enough to improve the morphological, inflorescence, flower morphology, high nut production, better income to coconut farmers, economical and beneficial for conservation of coconut genetic resources in coastal area of Pakistan.

Efficient Method of Transporting Coconut (Cocos nucifera L.) Zygotic Embryos for Cryopreservation of Plumules by Encapsulation/Dehydration Bandupriya, H. D. D.; Fernando, S. C.; Verdeil, Jean-Luc; Malaurie, Bernard
International Coconut Community Journal Vol 30 No 2 (2014): CORD
Publisher : International Coconut Community

Coconut is both socially and economically important crop in tropical and subtropical countries, thus the conservation of existing diversity of its germplasm is vital to maintain biodiversity, sustain crop production and utilisation of germplasm for crop improvement strategies. The recalcitrant storage behavior and large size of the coconut seed make it impossible to use as a germplasm storage material. Cryopreservation is an ideal means of long-term storage of germplasm which offers long-term storage capability with minimal storage space and maintenance requirements. The coconut embryo has been now adapted by various researchers for the purpose of germplasm exchange and it is now being routinely applied in germplasm collection and exchange activities with sufficient germination rates. The aim of the present study was to determine the effect of different coconut embryo transport/ storage methods [as solid endosperm plugs under cold temperature, embryos cultured in Solidified Agar Medium (SAM) or KCl solution under room temperature] on cryopreservation of plumules using encapsulation/dehydration method. The results revealed that plumules excised from embryos transported/ stored in SAM and pretreated with 1.0M sucrose could be cryopreserved with 71.8% survival and 56% recovery rates. The survival and recovery could be further increased up to 77.5% and 65% respectively by supplementation of 1.0M sucrose with 20 µM ABA.

Production Technology for Kopyor Coconut Seednuts and Seedlings in Indonesia Novarianto, Hengky; Maskromo, Ismail; Sudarsono, S.
International Coconut Community Journal Vol 30 No 2 (2014): CORD
Publisher : International Coconut Community

Kopyor coconut is a naturally-occurring mutant having fluffy solid endosperm in stead of the normal one. Similar type of coconut has been found in several other Asian countries, with their distinct local names, such as Macapuno (Philippines), Makhrao Kathi (Thailand), Dikiri Pol (Sri Lanka), Thairu Thengai (India). It is a delicacy coconut to Indonesian and sells as much as ten times higher than normal coconut. In nature, three types of kopyor coconut exist in Indonesia: kopyor tall, kopyor dwarf, and kopyor hybrid. There are three kopyor dwarf varieties (‘Pati Kopyor Green Dwarf’, ‘Kopyor Yellow Dwarf’ and ‘Kopyor Brown Dwarf’) officially released, and one registered tall variety (‘Puan Kalianda Kopyor Tall’). In general, kopyor fruit yield under natural conditions is only < 25% of the total harvested fruits for both the tall and the dwarf types. Traditionally, Indonesian farmers harvest kopyor fruits at ten months after pollination while normal fruits at 11 months. They use the harvested normal fruits for propagation; but cannot guarantee whether or not they would produce korpyor fruit. Adoption of kopyor seedling production through embryo culture has been done. However, the seedling production is slow, while the price is very expensive, thus unaffordable to common farmers. Indonesian Palm Research Institute and Bogor Agricultural University have collaborated to develop alternative approaches to increase kopyor fruit production through the production of seedling that would ensure to produce korpyor fruit through control pollination. Initiated since 2010, the activities successfully overcome uncertainty in kopyor seedling production. Moreover, hybridization among local superior coconut varieties and known kopyor one have been done to broaden genetic background of kopyor trait and to develop breeding population for new kopyor varieties in the future. Overview and update of research progress on korpyor in Indonesia are presented in this paper.

Performance of Coconut Hybrids in United Plantations Berhad and Commercial Production of Seed Nuts Arulandoo, Xaviar; Sritharan, Kandha; Subramaniam, Mohan
International Coconut Community Journal Vol 30 No 2 (2014): CORD
Publisher : International Coconut Community

United Plantations Berhad began its first coconut planting in 1912. Since then, it has been the responsibility of the breeding team in its research department to sustain a high standard of plant breeding techniques in the development of future planting materials aligned with the objectives of the company. The yield performance of Tall x Tall, Dwarf x Dwarf and Dwarf x Tall hybrids as well as salient points in the commercial production of hybrid seed nut is highlighted. Current plantings at UPB consist of older generation of MAWA+ with average yields of 30,000 nuts per hectare per year and newer generations of MATAG* with yields comparable to MAWA but with improved nut characteristics. Breeding strategies are now in place to produce hybrids (Dwarf x Tall) capable of out-performing the MATAG in terms of yield and nut characteristics with minimum yields per hectare of 40,000 nuts and eight tonnes copra. Amongst the Tall x Tall hybrids and pure lines of Tall, highest yields were achieved with Tagnanan followed by West African with yields of 24,190 and 23,514 nuts per hectare, respectively, adopting a planting density of 178 palms per hectare. The highest yielding Dwarf x Dwarf cross and self is the Aromatic Green (AGD) and CAMMA++, which provided a similar yield magnitude of 40,000 nuts per hectare planted at a density of 265 palms per hectare. However, as they had lower copra yield as dry nut and lower water content as fresh nut, Dwarf x Dwarf was not the desired commercial planting material. Hence, the breeding programme emphasized in the creation of Dwarf x Tall hybrids aimed at exploiting the large nut size from the tall and high nut number from the dwarf. Amongst the hybrids evaluated in UPB, MATAG hybrid though with lower nut yields had 53.9% higher copra yields per hectare than both AGD and CAMMA making it at present the preferable choice for commercial planting. Newer hybrids are currently being evaluated which shows promise of similar nut yield but improved nut characteristics. The commercial seednut production field is confined to a block of 25 hectares and is operated by the Research Department with a maximum production capacity of 110,000 saleable hybrid seednuts (4 months old) germinated seednuts per year. With escalation in costs of inputs and wages, the cost of seednut production has risen to RM30 per seednut in 2014. However, with good agricultural management practices complementing the superior hybrid planting materials, the production cost of a mature coconut from the plantations is relatively low, thus ensuring a sustained profitability of the coconut plantations in United Plantations Berhad.

Status of Coconut Farming and the Associated Challenges in Kenya Pole, Finyange N.; Masha, E.; Muniu, F. K.; Nguma, B.; Mohammed, N.
International Coconut Community Journal Vol 30 No 2 (2014): CORD
Publisher : International Coconut Community

Coconuts (Cocos nucifera) have been grown in Coastal Kenya for many centuries and are an integral part of the farming systems in the region. Over 80% of the coastal farm households derive their livelihoods either directly or indirectly from the coconut tree that is considered as both cash and a food crop. The coconut tree on the other hand has a tremendous potential of helping Kenya’s poor in the coastal region and the rest of the country due to its multi-purpose uses that can be strategically harnessed to generate employment and income, reduce edible oil imports and generate foreign exchange for the country. The tree population stands at 7.5 million palms. Nut production is however very low (a minimum of 30 nuts per tree per year) owing to a number of challenges that include high incidences of pests and diseases, poor agronomic practices, low quality planting materials and a narrow genetic base. In order to address the major challenge of coconut pests, a baseline survey was undertaken in the major coconut producing counties of coastal lowland Kenya, targeting the smallholder coconut farmers. A total 170 farmers were interviewed using a structured questionnaire. A literature review was also conducted to contextualize and benchmark findings of the survey. Results showed that the rhinoceros beetle was the major pest on coconut trees, causing damage of up to 80% of the palms. The Coreid bug (Pseudotheraptus wayi) and the Eriophyid mites (Aceria guerreronis) were the major nut destructive pests with a resultant nut loss of 30% and 40% respectively. The study stresses the need to address the challenges posed by pests and diseases on coconut by adopting the Integrated Pest and Disease Management (IPDM) practices.

Nanocellulose from Diseased Coconut Wood Biomass Jayaraj, A. P.; Ravindranath, Anita Das; Sarma, U. S.
International Coconut Community Journal Vol 30 No 1 (2014): CORD
Publisher : International Coconut Community

Cellulose is the most widespread biopolymer on earth. In biosynthesis, cellulose polymers aggregate to form substructures, microfibrils, which in turn aggregate to form cellulose fibers. By applying effective methods these fibers can be disintegrated into cellulose substructures with micro- or nano-size dimensions. This article covers some aspects related to the sources of cellulose micro- and nanofibers and the most important methods for their isolation. One of these methods, acid hydrolysis, was experimentally used to obtain cellulose nano-fibers from diseased coconut wood biomass. They were studied by Thermogravimetric analysis (TGA), X-ray diffractometer (XRD) and Scanning electrom microscope (SEM). The ‘Replanting and Rejuvenation of Coconut Gardens’ was the sponsored scheme of the Coconut Development Board with an objective to eliminate all disease- affected coconut palms in eight districts of Kerala state in India. The main components of the scheme included cutting and removal of all old, unproductive and disease-hit palms followed by a replanting exercise. The present work was carried out under the Board sponsored project entitled “Diversified uses of diseased coconut wood”.

Quality Evaluation of Deep Frozen Scraped Coconut Samarakone, H. S. M. D. S. M.; Yalegama, Loku Liyana Waduge Chandi
International Coconut Community Journal Vol 30 No 1 (2014): CORD
Publisher : International Coconut Community

Fresh scraped coconut is highly susceptible to rancidity and microbial spoilage. Consumer acceptability of frozen scraped coconut in terms of chemical, microbiological and sensorial quality for three months of storage period was aimed in this study. Scraped coconut was taken and steam blanched for 5, 10 and 15 minutes using steamer. Half of blanched coconut was mixed with Vitamin E at 500 ppm. Then it was packed in LLDPE/PET/Al pouches (200 g/pouch) and sealed and stored under frozen condition at -18°C using a domestic freezer for 3 months. Control treatment was carried out by keeping the untreated grated coconut at frozen condition. Total plate count (TPC), free fatty acid (FFA) and peroxide values (PV) were measured in two week intervals for 3 months. Sensory properties of frozen coconut samples were tested in monthly intervals. Results revealed that significantly low FFA values in all the treated samples compared to control. The concentrations were below the detectable levels of rancidity (1% as lauric acid). There was no peroxide value detected throughout the study period in both the control and treated samples. It was evident that an inverse relationship occurred between TPC values and blanching time. No differences were seen in sensory attributes in all frozen coconut and were within acceptable range. Application of steam blanching for 15 minutes with/without addition of vitamin E on fresh scraped coconut has the best advantages to extend the shelf life for minimum of three months to preserve the organoleptic properties at domestic frozen conditions.

Integrated Pest Management of Important Insect Pests of Coconut Winotai, Amporn
International Coconut Community Journal Vol 30 No 1 (2014): CORD
Publisher : International Coconut Community

IPM or Integrated pest management is a strategy that integrates various methods of cultural, physical, mechanical, biological control and selection of pesticides as the last option. IPM is not only cost effective but simultaneously prioritized human and environmental safety. IPM is based on farmer’s local knowledge, acceptance and education. Several insects were reported as coconut pests in Asia and Pacific region. Among these pests, rhinoceros beetle, red palm weevil, coconut hispine beetle, coconut black headed caterpillar and coconut scale currently causing severe damage to coconut palms in the region. Rhinoceros beetle, Oryctes rhinoceros Linnaeus (Coleoptera: Scarabaeidae) is native to South Asia and Southeast Asia. Management of this pest is a combination of sanitation in plantations and surrounding, biological control by using Metarhizium anisopliae, Oryctes virus and pheromone trapping. Red palm weevil, Rhynchophorus ferrugineus Olivier (Coleoptera: Curculionidae) outbreaks usually occur after infestation of rhinoceros beetle. Keeping the rhinoceros under control results in keeping the red palm weevil under control too. Pheromone trapping is also developed for reduction of this pest. Coconut hispine beetle, Brontispa longissima (Gestro) (Coleoptera: Chrysomellidae), is an invasive pest occurs in Southeast Asia and Pacific region. Biological control of the pest is recommended by releasing two species of parasitoids, Asecodes hispinarus Boucek (Hymenoptera: Eulophidae) and Tetrastichus brontispae Ferriere (Hymenoptera: Eulophidae). Coconut black headed caterpillar, Opisina arenosella Walker (Lepidoptera: Oecophoridae) is one of the key pests of coconut in South Asia and invaded Thailand in 2008. Management of this pest in its native region consisted of: 1) removing and burning of the infested leaves; 2) biological control by releasing parasitoids such as Goniozus nephantidis (Muesebeck), Bracon brevicornis (Wesmael), Brachymeria nephantidis Gahan; and 3) chemical control by trunk injection and applying systemic insecticides in the holes. Bacillus thruringiensis has been recommended for biological control of the black headed caterpillar in Thailand. Coconut scale, Aspidiotus destructor Signoret (Hemiptera: Diaspididae) has been reported as a serious in Philippines. Predators are significant biological control agents in limiting A. destructor populations. The most common natural enemies associated with the coconut scales are the coccinellid beetles Chilocorus spp., Azya trinitatis, Cryptognatha nodiceps, Rhyzobius lophanthae and Pentilia castanea. Local parasitoids, Comperiella, Aphytis and Encarsia also play important roles in keeping the pest under control. Application of insecticides could inducee the infestation of the scale. Biological controls is recommended for suppression of other coconut pests, such as slug caterpillars (Lepidoptera: Limacodidae) such as Parasa lepida Cramer; coconut leaf moth, Artona catoxantha Hampton (Lepidoptera: Zygaenidae); and coconut leafminer, Promecotheca cumingii Baly (Coleoptera: Chrysomelidae).

Australian Contributions to Coconut (Cocos nucifera L.) Research (A Review Article) Foale, Mike; Adkins, Steve
International Coconut Community Journal Vol 30 No 1 (2014): CORD
Publisher : International Coconut Community

Australia has been a significant supporter of research into coconut protection, improvement and biotechnology for three decades. Major achievements include a key role in identification of the Cadang Cadang Viroid in Philippines and the Foliar Decay virus in Vanuatu, surveys of coconut genetic diversity in the south Pacific, and the initiation of global collaboration leading to the formation of the Coconut Genetic Resources Network. Another major Australian contribution beginning in the 1980s, has been to the development and refinement of methods of collection and exchange around the world of diverse coconut genotypes under COGENT involving particularly the protocol for embryo transfer and culture. Most recently CO2 enrichment of the in vitro atmosphere has raised cultured embryo growth to a new level at the University of Queensland (UQ). Researchers at UQ have brought somatic embryogenesis, a critical process for multiplication of high-value individual palms, to the verge of commercial application, has and also greatly advanced the technique for preserving genetic material by cryopreservation of the embryo. The development of a healthy and high-value snack food from coconut kernel has also emerged at UQ. Modest additional funding would advance all of these recent projects to the stage of general application, thereby building on the strong record of Australia in helping to secure the future of coconut producers in the community and economy of Pacific nations, and beyond.

Production of Low Emission Pellet from Coco Peat Waste Alamsyah, Rizal; Siregar, Nobel Christian
International Coconut Community Journal Vol 29 No 2 (2013): CORD
Publisher : International Coconut Community

Study was conducted on coco peat as a low emission pellet form biomass fuel alternative to produce synthetic gas (syngas) through gasification process in use for other processes. Coco peat was first screened and formulated with other materials such as coco peat, starch, and waste cooking oil. These materials were mixed and pelletized using a pelletizer to form coco peat pellet. It was burned on an updraft gasifier to produce synthetic gas (syngas) and then streamed to a stove through a pipe. The syngas was then split and burned and the heat generated was used for boiling water and for drying agricultural products. Air quality around the stove (emission test) was measured and analyzed when gasification took place. The best results of coco peat pellet were made from 85% of coco peat waste, 5% starch (binder), and 10% of waste cooking oil with stronger texture and shiny surface. The experimental gasification using updraft gasifier exhibited better result when half of the volume of gasifier was filled with 5 kg pellet and the syngas produced can be used for 3.5 hours drying and boiling. Air quality surrounding the stove was tested during gasification process. It was done based on the Indonesian Environmental Regulation issued by Indonesian the Ministry of Environment on Standards (KEP-13/MENLH/3/1995 dated March 7th, 1995) regarding standard air quality from static matter and covers NH3, Cl2, HCl, HF, NO2, particles, SO2 and H2S parameters. The result of measurements indicated that all parameters meet the quality standards) including CO and CO2 at 0.0001 mg/kg.

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Mufid Febrianto

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8th Floor BAPPEBTI Building Jl. Kramat Raya No. 172 Kenari, Senen, Jakarta, Indonesia 10430 Phone +62 21 3100556-557 Fax +62 21 3101007

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Abstract

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Abstract

Abstract

Home Page

OAI Link

Editorial Team

Contact

Reviewer

Google Scholar

Contact Name Mufid Febrianto

Contact Email mas.mufid@coconutcommunity.org

Phone +628111885787

Journal Mail Official journal@coconutcommunity.org

Editorial Address 8th Floor BAPPEBTI Building Jl. Kramat Raya No. 172 Kenari, Senen, Jakarta, Indonesia 10430 Phone +62 21 3100556-557 Fax +62 21 3101007

Location Kota adm. jakarta pusat, Dki jakarta INDONESIA

Abstract

Abstract

Abstract

Abstract

Abstract

Abstract

Abstract

Abstract

Abstract

Abstract

Contact Name
Mufid Febrianto

Contact Email
mas.mufid@coconutcommunity.org

Phone
+628111885787

Journal Mail Official
journal@coconutcommunity.org

Editorial Address
8th Floor BAPPEBTI Building Jl. Kramat Raya No. 172 Kenari, Senen, Jakarta, Indonesia 10430 Phone +62 21 3100556-557 Fax +62 21 3101007

Location
Kota adm. jakarta pusat,

Dki jakarta

INDONESIA