Journals / Turkish Journal of Fisheries and Aquatic Sciences / 2006 / Cilt: 6 - Sayı: 2

Effect of different doses of mixed fertilizer onsome biogeochemical cycling bacterial population in carp culture pond

Pages
165–171
DOI
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⚡ TL;DR(Too Long; Didn't Read)

Therefore, it can be concluded that fertilizer dose 48,000 kg/ha/yr is required to manipulate the optimum bacterial population and productivity of the aquaculture pond and application of excessive doses of fertilizer increases production cost and causes environmental pollution.

📌 3 Key Takeaways

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Objective & Hypothesis:The effect of different doses of mixed fertilizer on the response of some biogeochemical cycling bacteria were examined using seven different doses (i.e, 105, 211, 422, 844, 1689, 3378 and 6757 g/tank/week) of mixed fertilizers with a fixed C : N : P ratio of 88.6 : 7.5 : 1.
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Key Findings & Data:Advanced fry of Catla catla (1.2±0.04 g), Labeo bata (0.99±0.05 g), and Cyprinus carpio (1.3±0.06 g) were introduced at the rate of 16 fish/tank and reared for 120 days.
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Conclusion & Impact:Therefore, it can be concluded that fertilizer dose 48,000 kg/ha/yr is required to manipulate the optimum bacterial population and productivity of the aquaculture pond and application of excessive doses of fertilizer increases production cost and causes environmental pollution.
🔬Design:Research Article
📍Scope:Comprehensive Sample
⚙️Variables:çökelti · kültür balığı · su kalitesi

Özet

The effect of different doses of mixed fertilizer on the response of some biogeochemical cycling bacteria were examined using seven different doses (i.e, 105, 211, 422, 844, 1689, 3378 and 6757 g/tank/week) of mixed fertilizers with a fixed C : N : P ratio of 88.6 : 7.5 : 1. Advanced fry of Catla catla (1.2±0.04 g), Labeo bata (0.99±0.05 g), and Cyprinus carpio (1.3±0.06 g) were introduced at the rate of 16 fish/tank and reared for 120 days. Water samples were collected and monitored for bacterial population (HB, CDB, DNB and PSB), primary productivity, plankton, water quality parameters, and total phosphate in the sediment at ten days intervals. Number of bacteria (HB 15–270 x $10^3$ /ml, CDB 15–237 x $10^2$ /ml, DNB 5–221 x $10^2$ /ml and PSB 3–159 x $10^1$ /ml) increased directly with the increase in the fertilizer doses and showed maximum rate of bacterial growth at the fertilizer doses 48,000 kg/ha/yr. Three levels of responses to fertilizer doses - poor bacterial density and rate of fertilizer mineralization efficiency $(D_{12} to D_{48})$ , moderate bacterial density and highest rate of fertilizer mineralization efficiency $(>D_{48} to D_{192})$ and highest bacterial density but slow rate of fertilizer mineralization efficiency $(>D_{192} to D_{768})$ were observed. The fish growth tended to rise with the increase in fertilizer dose. Maximum fish growth was at D96 (96,000 kg/ha/year) and decline thereafter. Though the bacterial load increased with fertilizer doses, the primary productivity of phytoplankton and fish growth did not increased when fertilizer doses increased. Therefore, it can be concluded that fertilizer dose 48,000 kg/ha/yr is required to manipulate the optimum bacterial population and productivity of the aquaculture pond and application of excessive doses of fertilizer increases production cost and causes environmental pollution.

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Cite This Article

BHAKTA, J. N., BANDYOPADHYAY, P. K., JANA, B. B. (2006). Effect of different doses of mixed fertilizer onsome biogeochemical cycling bacterial population in carp culture pond. Turkish Journal of Fisheries and Aquatic Sciences, Cilt: 6 - Sayı: 2, 165–171. https://ajindex.com/articles/407962

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