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(Durio Zibethinus Murr.) FRUIT from CROSS-POLLINATION

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(Durio Zibethinus Murr.) FRUIT from CROSS-POLLINATION Journal of Fruit and Ornamental Plant Research Vol. 20(2) 2012: 23-33 DOI: 10.2478/v10290-012-0012-x MATERNAL AND PATERNAL EFFECT ON THE CHARACTERS OF DURIAN (Durio zibethinus Murr.) FRUIT FROM CROSS-POLLINATION Ni Luh Putu Indriyani, Sri Hadiat i, Fitriana Nasution, Edison, Sudjijo and Yulia Irawati Indonesian Agency of Agricultural Research and Development Indonesian Tropical Fruit Research Institute, Jl. Raya Solok-Aripan, Km 8. Solok West Sumatera, INDONESIA e-mail: [email protected] (Received March 28, 2012/Accepted September 25, 2012) ABSTRACT The aim of the research was to study the influence of maternal and paternal par- ents on the characters of durian fruit resulted from their crossing. The parents used in the crossings were Matahari, Kani, Otong, Sitokong, Lai, Kim, Sunan, Bokor, Horti- mart and Tangkue. The results showed that the percentage of fruit set of their crossing ranged between 0% and 20%. Maternal effect was significant on the characters of fruit set, fruit weight, fruit circumference, fruit length, fruit rind thickness, flesh thickness, edible portion, spine length, the number of locules without the pulp, seed weight per fruit, seed number per fruit, and percentage of deflated seed. The use of Matahari variety as maternal parent produced the largest fruit with the thickest flesh, the highest percentage of edible portion and all locules were filled. Paternal effect occurs on fruit set, fruit length, rind thickness, seed number per fruit, seed weight per fruit, and percentage of deflated seed. The use of Sitokong variety as paternal parent resulted the lowest seed weight per fruit, seeds number per fruit and the highest per- centage of deflated seed. Key words: maternal parent, paternal parent, xenia, metaxenia, fruit quality INTRODUCTION pollination among the varieties. In Asia, most commercial cultivars of durian are The durian (Durio zibethinus Murr.) selected from seeds produced by open is an open-pollinated species, so pollination, and subsequently propagated naturally there is always cross- vegetatively (Lim and Luders, 2009). N.L.P. Indriyani et al. The durian shows self- xenia, while the effect of pollen on incompatibility (Shaari et al., 1985; Lim fruit tissue of maternal parent, such and Luders, 1998; Bumrungsri et al., as the pericarp and other fruit com- 2009). Cross-pollination on D24 ponents that have no male contribu- cultivar produces fruit set of 54-60%, tion, is called metaxenia. Metaxenia while the self-pollination produced can be used to identify the best male fruit set only < 5% (George et al., 1993 parent to accelerate the period of cit. Lim and Luders, 2009). Lo et al. fruit development and improve the (2007) stated that 35 days after polli- yield in mixed cultivar plantings nation, self-pollination on Chanee (Olfati et al., 2010). does not produce any fruit set, while Some results of maternal and pa- the percentage of fruit set on ternal parent effect have been re- Monthong is 6.9% to 23.6%. Cross- ported. In the crossing of dragon fruit pollination produces a significantly plants, the paternal parent affected higher fruit set than self-pollination. fruit weight, harvest time, the per- Similar trials by Lim and Luders centage of fruit flesh, skin and flesh (2009) also showed that self- dry weight of fruit, number of seeds pollination on Chanee, Monthong and per fruit and sugar content, but it did Luang varieties of durian failed to not affect total content of soluble produce fruit. Honsho et al. (2004) solids or acidity (Mizrahi et al., stated that cross-pollination produced 2004). Crossing ‘Rabbiteye’ blue- a higher fruit set than self-pollination berry (Vaccinium ashei Reade) and indicating a self-incompatibility V. corymbosum L. produced a lower within the species. percentage of fruit set, number of Self-incompatibility properties on seeds per fruit, fruit weight, and in- durian cause the need for cross- creased fruit development period pollination to ensure the fertilization (harvest time) when compared with successful. Cross-pollination needs crossings between ‘Rabbiteye’ blue- maternal and paternal parents from berry varieties. Crossing V. corymbo- different varieties or species. Selec- sum L. with ‘Rabbiteye’ blueberry tion of varieties or species combina- results in the same percentage of fruit tions which planted should take into set and length of the fruit develop- consideration various aspects, one of ment period, but reduces the number which is the influence of maternal of seeds per fruit and fruit weight and paternal parent on fruit charac- compared with pollination between teristics. Genes of the paternal parent the varieties of V. corymbosum L. (pollen) can influence fruit character- Self-pollination in V. corymbosum L. istics or seeds. Denney (1992) cit. significantly decreases the number of Mizrahi et al. (2004) states in more seeds per fruit and fruit weight, and detail that the effect of pollen on increases fruit development period tissue which contains at least one set (Gupton and Spiers, 1994). of genes from the male, namely the The aim of the research was to embryo and the endosperm, is called study the influence of maternal and 24 J. Fruit Ornam. Plant Res. vol. 20(2) 2012: 23-33 Maternal and paternal effect….. paternal parents on the characters of ternoon. Flowers of the paternal parent durian fruit from their crossing. that would bloom were taken in the afternoon and placed upside down in a MATERIAL AND METHODS container covered with wet tissue or cotton. The flowers were dried about 1 The research was conducted at hour in order to accelerate the bursting Subang Experimental Station of In- of anthers. Cross-pollination was car- donesian Tropical Fruit Research ried out at night when the pollen was Institute (ITFRI) from January 2010 released from the anther. Pollinated until December 2011. The materials flowers were re-isolated with a paper used in cross-pollination were sev- bag and labelled. The label contained eral varieties of durian trees as ma- information about the maternal and ternal and paternal parents, and they paternal parents that were used and the were also used reciprocal in crossing. date of crossing. The parents used in the crossing were The variables observed included Matahari, Kani, Otong, Sitokong, the percentage of fruit set and some Lai, Kim, Sunan, Bokor, Hortimart characters of the fruit from the cross- and Tangkue. ings (fruit circumference, fruit length, The durian trees which were used rind thickness, flesh thickness, edible in the crossing combinations were portion, spine length, number of locules about 15 years old. The crossing was per fruit, number of locules without carried out at the time between 7 to 9 pulp unit, seeds number per fruit, seed p.m. Emasculation was performed on weight per fruit, and percentage of de- the flowers of the maternal parent flated seed). Fruit characters observa- which were expected to bloom in the tion was done after harvest. The per- evening. These flowers were isolated centage of fruit set, edible portion, and by using a paper bag after emasculation percentage of deflated seed were calcu- which done in the morning or late af- lated using the formula: umber of fruit harvested Percentage of fruit set (%) = ------------------------------------------- x 100% number of flowers cross-pollinated fruit weight – rind weight − seed weight Edible portion (%) = ------------------------------------------------ x 100% fruit weight number of deflated seeds in the fruit Percentage of deflated seed (%) = ---------------------------------------- x 100% number of seeds in the fruit J. Fruit Ornam. Plant Res. vol. 20(2) 2012: 23-33 25 N.L.P. Indriyani et al. The number of fruit sampled This means that the using of different ranged from 1 to 7, depending on the maternal and paternal parents would number of fruit harvested. The data produce a different percentage of were analysed descriptively. Student fruit set. The maternal parent that t-test was used to determine the ef- produced the highest percentage of fects of maternal and paternal par- fruit set was Kim variety, but no ents. Correlation analysis was done significant differences were observed to determine the relationship between among Kim, Kani, Lai and Matahari the number of flowers that had been varieties. The paternal parents that cross-pollinated and the percentage produced the highest percentage of of fruit set. fruit set were Kim, Otong, Sunan and Sitokong varieties. Similar results RESULTS AND DISCUSSION were obtained when crossing cheri- moya, where the paternal parent af- The percentage of fruit set for the fected the percentage of fruit set various crossing combinations was 0 (Kahn et al., 2003). to 20% (Tab. 1). Of the 26 crossing Table 3 presented fruit performance combinations, half of them did not in the crossing combinations of durian produce fruit, which were: Matahari varieties. Visually, the flesh colour of x Kani, Sitokong x Otong, Sitokong Lai x Sitokong, Lai x Matahari and x Matahari, Sitokong x Lai, Lai x Lai x Otong were the same, i.e. or- Kani, Lai x Sunan, Kani x Sitokong, ange. There was no difference in flesh Kani x Matahari, Kim x Tangkue, colour between these crossings and Sunan x Kim, Sunan x Lai, Otong x open-pollinated of Lai. Similarly with Matahari and Otong x Lai. The Matahari, Kani and Sitokong varieties crossing that produced the highest as maternal parents. This suggested fruit set was Matahari x Sitokong. that the paternal parents did not affect There were various factors that cause the flesh colour of their crossing. In a low percentage of fruit set, such as other words, this means that the flesh low pollen viability, pollination failure, colour was determined by the mater- fertilization failure, self-incompatibility, nal parent. Furthermore, Table 3 was clonal incompatibility, low level of used to calculate the influence of ma- nutrients, insufficient water, damage to ternal and paternal parents on the char- flowers and fruit due to pests and dis- acteristics of durian fruit in the cross- eases, and adverse weather conditions ing combinations (Tabs 4 and 5).
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