American Journal of Agriculture and Forestry
Volume 3, Issue 6-1, December 2015, Pages: 30-34

Enhancement of Upland Rice Production in Various Agro-Ecosystems

Onofre S. Corpuz1,Z. M. Adam2, S. L. Molao2, P. E. Dalam3, A. S. Sangcupan1

1Research and Development Office, Cotabato Foundation College of Science and Technology (CFCST), Doroluman Arakan Cotabato Philippines

2Administrative Office, Cotabato Foundation College of Science and Technology (CFCST), Doroluman Arakan Cotabato Philippines

3ExtensionServices Office, Cotabato Foundation College of Science and Technology (CFCST), Doroluman Arakan Cotabato Philippines

Email address:

(O. S. Corpuz)

To cite this article:

Onofre S. Corpuz, Z. M. Adam, S. L. Molao, P. E. Dalam, A. S. Sangcupan. Enhancement of Upland Rice Production in Various Agro-Ecosystems. American Journal of Agriculture and Forestry. Special Issue: Agro-Ecosystems. Vol. 3, No. 6-1, 2015, pp. 30-34. doi: 10.11648/j.ajaf.s.2015030601.16

Received: September 29, 2015; Accepted: November 3, 2015; Published: June 21, 2016


Abstract: The study aimed to determine the potentials of various agro-ecosystem in producing favorable growth and yield of upland rice including biomass production and carbon storage. Results of the study revealed that hinumay and dinorado were performed significantly better in plant height, yield, biomass and carbon content as compared to other varieties. However, in terms of panicle length and number of tillers, it was found out that kawilan variety perform better but it is not significantly different with hinumay and dinorado. With the current findings, hinumay and dinorado were the best upland rice varieties to be cultivated under oil palm, coconut and rubber tree but not to banana agro-ecosystem. On the other side, for early flowering and maturity, it was found out that the 90 days variety significantly bear flower and matured earlier as compared with the other upland rice varieties.

Keywords: Agro-Ecosystem, Coconut, Rubber, Oil Palm, Banana, Upland Rice


1. Introduction

Rice (Orayza sativa L.) which is mainly used as staple food crop now definitely occupies a major position among Philippines Agricultural crops. As a cereal staple it is consumed by more or less 80% of Filipinos mostly from Luzon and Mindanao regions (Vergara 1983).

Rice on-farm adaptive research is designed to solve farmer’s major technical problems in production. High yielding, aromatic and early maturing upland rice are one of the vital considerations in crop production practices especially in farmer’s field (Frusita 1984).

The main reason for the low yield of upland rice in the farmer’s field is the high cost of production which is continuously rising following the price in crude of fossil oil products. Commercial fertilizer is among the inputs of which its price soared up to the highest level in the history. Hence, it is necessary to look for substitute fertilizer which could reduce dependency on commercial and synthetic fertilizer but could sustain the production of upland rice (Zamora 2005).

The current challenge for rice researched is to grow in size, in scope and ability to serve the pressing need for more upland rice products (Tanchuling 2005).

Rice is grown in the country in nearly all regions. In region XII particularly North Cotabato and specifically in the Municipality of Arakan, upland rice is one of the major crops grown for family consumption and even for supply to the market demand. Arakan has a vast covering of 69,321.56 hectares, thirty percent of this area is being utilized for agricultural purposes like crop production by the small holder and subsistence farmer sector that are known to be the prime mover of the Arakan economy (LUPA,2007).

This study aim to enhance upland rice production through various agro-ecosystems in Arakan Valley Complex.

2. Methodology

This study was conducted in Arakan Valley Complex (Figure 1) with three locations {CFCST (N07020.6941; 125005.3161E) in brgy. Doroluman, Arakan; Brgy. Arakan (N7006.3551; 124049.1351E) Matalam; and Brgy. Libpas(N7o21.7631; 124o56.2181E) Pres. Roxas all in Cotabato Province} to determine the production of five indigenous upland rice cultivars (e.g. Dinorado; 90 days; Goyudin; Maluwa; and Hinumay) along alleys of 1 year rubber (Hevea brasiliensis), african oil palm (Elaeis guineensis Jacq.), and banana (Musa sapientum) plantations.

Figure 1. Map of Arakan Valley Complex.

1.   Land Preparation. The area identified had been slashed, plowed twice and harrowed 2 times to obtain good soil porosity before planting

2.   Planting. Planting distance will be 25 cm per furrows and hills

3.   Fertilization. Vermi compost was applied 1 week before planting at a rate of 100 bags per hectare.

4.   Cultural Management. The crop were maintained by weeding, spraying, rouging and close monitoring on pests and diseases.

5.   Data Collection. Data gathered were as follows: seedling vigor, days to heading, days to maturity, plant height, tiller count, panicle count and length, lodging rating, and grain yield

6.   Harvesting to Post-harvest Operation. Harvesting depends on the upland rice variety planted whether it is early or late maturing varieties. To ensure a good quality seeds, harvest it on time, post harvest activities like, drying and sacking.

2.1. Farmer Co-operators

There were three male farmer co-operators identified and served as maintenance and care taker of the experimental plots in the three barangays namely: Brgy. Doroluman Arakan, (Located at CFCST); Brgy Arakan Matalam; and Brgy Libpas Pres. Roxas, all of Cotabato Province. Their age ranges from 30-36 years, all married with an average siblings of 4 and estimated monthly income of five thousand pesos (Php 5,000,00) from fishing, gardening and contract of work.

The three farmer co-operators were all magindanawn (Islam in religion). They have cultivated an average upland rice of 1 ha each with other farm commodities such as corn and plantation crops (banana, coconut and rubber trees).

2.2. Biophysical Characteristics of the Upland Rice Area

Table 1 presents the biophysical characteristics of three the experimental sites in North Cotabato

Table 1. Shows the biophysical characteristics of the three sites.

  Arakan Matalam Pres. Roxas
Biological Characteristics      
Climate      
Type IV IV IV
Mean Annual Rainfall      
Mean Annual Temperature      
Edaphic 320C 320C 320C
Soil pH 6.0/7.0 6.2/7.2 6.0/7.2
Soil Type Sandy Clay Sandy Loam Sandy Clay
Nirogen Moderate Moderate Moderate
Posphorus Low Low Low
Potassium Low Low Low
Physical Characteristics 148m 97m 104m
Physiographic Attribute Plain Moderate Moderate
Elevation Banana Banana Banana
Soil Gradient/Slope Palm Oil Palm Oil Palm Oil
Plantation Rubber Tree Rubber Tree Rubber Tree
Other Vegetative Cover Cogon Grasses Cogon Grasses Cogon Grasses

2.3. Upland Rice

2.3.1. Germination Percentage

Hinumay found to have higher percentage of germination in Arakan and Pres. Roxas location of 92.5% and 90% respectively. While dinorado has higher germination of 92 percent in Matalam site (Figure 2)

Figure 2. Germination percent of various upland rice variety in different locations.

2.3.2. Agronomic Characteristics of the Upland Rice

Hinumay and dinorado upland rice varieties were found to be significantly taller in height (176cm and 156cm) as compared to other varieties tested. For the length of panicles, kawilan (35cm) has the longest panicle but not significantly different with the panicle length of hinumay, dinorado and the 90 days varities (Table 2).

Kusin 2002 stated that hinumay and dinorado were the same upland rice varieties that grows taller as compared to other indigenous varieties in Arakan Cotabato.

Table 2. Agronomic Characteristics of the upland rice varieties.

Upland Rice Variety P. Height (cm) Length of Panicle No. of Tillers Days to Flowering Days to Maturity
Dinorado 156a 24.7ab 31a 62a 113a
Hinumay 176.1a 30.1a 30.3a 61a 114.7a
Kawilan 115.7b 35.1a 33.7a 58ab 111a
90 Days 94.6c 24.2ab 13.5b 55b 93b
Goyuden 128b 19.2b 17bc 67a 116a
Maluwa 124b 18.5b 20b 59a 105ab

Mean with the same letter subscript (vertically) are not significantly different at 5% level

Kawilan also found to have the most number of tillers (33.7) but this number did not differed significantly with the tillers of hinumay and dinorado as revealed in the Duncan Multiple Range Test. According to Kusin 2002, hinumay and dinorado produces more tillers when applied with organic fertilizer.

For the days to flowering, it was found out the 90 days and kawilan varieies early bear flowers (55 days and 58 days).

At 93 days, the 90 days variety matured significantly as compared to the other treatments. However, this maturity days did not vary significantly with maluwa of 105 days.

2.3.3. Yield, Biomass and Carbon Content

The weight of 1000 seeds reported to be highest in dinorado (23.4g), kawilan (23g) and hinumay (22g). For the yield, it was found out that hinumay 8.2 t/ha) and dinorado (7.2t/ha) significantly higher as compared to the other varieties.

The same results had been found for biomass and estimated carbon content. Dinorado and hinumay has the highest biomass and carbon content (table 3). The study of Kusin 2002 revealed that hinumay produces more yield but the difference is not significant with dinorado variety applied with organic fertilizer.

Table 3. Yield and Biomass with estimated carbon density.

Upland Rice Variety Wt of 1000 Seeds (grams) Yield (kg/ha) Biomass (kg/10hills) Carbon Potential (Mt/ha)
Dinorado 23.4a 7,280.35a 400a 0.18a
Hinumay 22a 8,245.05a 395a 0.178a
Kawilan 23a 3,816.67b 342b 0.154ab
90 Days 18.5b 3,650.10b 245c 0.11b
Goyuden 19b 5,426.25b 115c 0.052c
Maluwa 20.2b 4,724.50b 340b 0.153ab

Mean with the same letter subscript (vertically) are not significantly different at 5% level

Table 4. Yield of upland rice varieties as influence by various agro-ecosystem.

Upland Rice Variety Palm Oil Rubber Tree Coconut Banana
Dinorado 7,567.5a 6,480.35a 6,555.4a 5,980.45b
Hinumay 8,253.05a 7,645.05a 7,100.5a 5,990.4b
Kawilan 3,600.25b 3,816.67b 2,696.3b 3,003.5b
90 Days 3,554.85b 3,650.10b 3,460.4b 3,050.45b
Goyuden 5,200.5b 5,426.25b 4,500.9b 4,360.2b
Maluwa 3,670.5b 4,724.50b 4,500.35b 4,453.3b

Mean with the same letter subscript (vertically and horizontally) are not significantly different at 5% level

2.3.4. Yield of the Different Agro-ecosystems

Figure 3. Upland rice + Palm oil.

Upland rice with Palm oil has the highest yield found (Table 4). Dinorado (7,567.5kg/ha) and hinumay (8,253.05kg/ha) significantly higher in yield but it is not significantly different with yield under rubber and coconut plantations. The least yield of upland rice was found under banana plantations and found out that the different varieties perform insignificantly under this agro-ecosystem.

Figure 3 shows the upland rice along alleys of palm oil.

3. Conclusion

Hinumay and dinorado upland rice varieties has the highest yield and biomass regardless of agro-ecosystem

The early maturing variety is 90 days and maluwa

Carbon storage potential of upland rice will reach to a maximum of 0.18 Mt per ha.

Acknowledgement

This study was funded by the Department of Agriculture -RFO XII through CEMIARC


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