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International Journal of Oceanography & Aquaculture Research Article 2 min read

Unlocking the Potential of Biofloc Systems in Aquaculture: A Sustainable Future for the Blue Economy

Soibam KS and Meena DK*
* Corresponding author
ISSN: 2577-4050  10.23880/ijoac-16000327  Received: July 19, 2024  Published: August 05, 2024
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Keywords
Biofloc System Aquaculture Blue Economy Marine Ecosystems
Abstract

There is a growing need for sustainable food production worldwide, particularly in aquaculture, as conventional methods typically result in environmental deterioration and inefficient use of resources. Biofloc technology (BFT) is a promising approach that effectively tackles the environmental and economic concerns in aquaculture. The opinion paper discusses the potential and advancements of biofloc systems and their future implications for the sustainability of aquaculture. Biofloc systems have many advantages that enable them appealing for modern aquaculture. First and foremost, BFT greatly decreases water use in comparison to conventional aquaculture systems. Biofloc technology optimizes water efficiency by recycling water inside the system and minimizing the requirement for frequent water exchanges. Another significant advantage of biofloc systems is their ability to convert waste products, such as unconsumed feed and excretions, into microbial protein. Biofloc mitigates the need for fishmeal by producing microbial protein from organic nitrogen present in aquaculture effluent. Simultaneously, the combination of designed meals and biofloc forms a comprehensive food chain for aquatic animals, thereby improving their growth performance. This approach not only purifies the water, but also serves as a supplementary food supply for the fish or shrimp, hence improving growth rates and feed efficiency. Moreover, the decreased requirement for water exchange lowers the discharge of waste materials into natural water bodies, hence reducing the environmental impact of aquaculture operations. Biofloc systems significantly decrease the dependence on fishmeal, a prevalent component in aquafeeds, therefore alleviating pressure on wild fish populations. Biofloc technology has the ability to augment the immunological response of cultivated species, hence potentially decreasing the occurrence of illnesses. The microorganisms present in the biofloc have the ability to outperform and overcome harmful organisms, resulting in the establishment of a more favorable and diseasefree environment for aquaculture. In recent years, there has been significant advancement in the development and application of biofloc systems. The efficiency and reliability of biofloc systems have been enhanced by advancements in monitoring and control systems. The implementation of real-time monitoring of water quality indicators and automated feeding systems has greatly improved the management of biofloc operations. Continuing research has broadened our comprehension of microbial dynamics in biofloc systems, resulting in improved management techniques and higher system performance. Research has investigated the most optimal conditions for the development of biofloc, the nutritional benefits of biofloc, and the most effective combinations of species for co-cultivation. Case studies from different regions of the globe demonstrate the economic feasibility and ecological advantages of biofloc systems, promoting their broader acceptance.

Abbreviations

BFT: Biofloc technology; RAS: Recirculating Aquaculture Systems.

Introduction

The potential of biofloc systems in aquaculture appears to be promising, with numerous ramifications for both the industry and other sectors. With the progression of technology and a reduction in costs, it is highly probable that biofloc systems will be expanded in order to satisfy the increasing need for seafood. Enhanced biofloc farms with increased size and improved efficiency have the potential to become a prevailing practice in the industry, making a substantial contribution to global food security [1, 2]. Biofloc technology can be used with other sustainable methods, such as recirculating aquaculture systems (RAS) and aquaponics, to form hybrid systems that optimize resource utilization and productivity. Government organizations and regulatory agencies may progressively acknowledge the ecological advantages of biofloc systems, resulting in the implementation of favorable rules and incentives to encourage their adoption. This has the potential to stimulate additional investment and research in this area. Biofloc technology has the potential to significantly enhance livelihoods and food security in underdeveloped countries. Cost-effective and resource- efficient aquaculture systems have the potential to offer a sustainable supply of protein and generate revenue for rural populations. Expanded adoption of biofloc technology has the potential to greatly diminish the ecological consequences of aquaculture, thereby aiding in the preservation of natural water bodies and marine ecosystems. Decreased reliance on wild fish sources for fishmeal could additionally bolster biodiversity and marine conservation initiatives.

Biofloc technology is a notable development in sustainable aquaculture, providing several advantages in terms of efficient resource utilization, environmental sustainability, and economic feasibility [3, 4]. The recent advancements in biofloc systems have the capacity to significantly transform the aquaculture business. With the global shift towards sustainable food production, biofloc technology is expected to have a significant impact in meeting the increasing global demand for seafood while reducing environmental harm. The potential ramifications of biofloc systems are significant, offering a more sustainable and resilient aquaculture operation for future generations [5].

References

  1. Majhi, SS, Soibam KS, Pradyut B, Reshmi D, Janmejay P, et al. (2023) Effect of Stocking Density on Growth, Water Quality Changes and Cost Efficiency of Butter Catfish (Ompok bimaculatus) during Seed Rearing in a Biofloc System. Fishes 8(2): 61.
  2. Malemngamba MM, Soibam KS, Yumnam AM, Dharmendra KM, Reshmi D, et al. (2022) Effective valorization of precision output of algaquaculture towards eco-sustainability and bioeconomy concomitant with biotechnological advances: an innovative concept, Cleaner Waste Systems pp: 100026.
  3. Khanjani MH (2022) Global research trends and performance measurement on biofloc technology in tilapia farming. Aquaculture International 30(1): 1-18.
  4. Raza B, Zheng Z, Yang W (2024) A Review on Biofloc System Technology, History, Types, and Future Economical Perceptions in Aquaculture. Animals 14(10): 1489.
  5. Debbarma R, Dharmendra KM, Pradyut B, Maibam MM, Soibam KS (2022) Portioning of microbial waste into fish nutrition via frugal biofloc production: A sustainable paradigm for greening of environment. Journal of Cleaner Production 334: 130246.

Cite this article

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@article{soibam2024,
  title   = {Unlocking the Potential of Biofloc Systems in Aquaculture: A
Sustainable Future for the Blue Economy},
  author  = {Soibam KS and Meena DK},
  journal = {International Journal of Oceanography & Aquaculture},
  year    = {2024},
  volume  = {8},
  number  = {3},
  doi     = {10.23880/ijoac-16000327}
}
Soibam KS and Meena DK (2024). Unlocking the Potential of Biofloc Systems in Aquaculture: A
Sustainable Future for the Blue Economy. International Journal of Oceanography & Aquaculture, 8(3). https://doi.org/10.23880/ijoac-16000327
TY  - JOUR
TI  - Unlocking the Potential of Biofloc Systems in Aquaculture: A
Sustainable Future for the Blue Economy
AU  - Soibam KS and Meena DK
JO  - International Journal of Oceanography & Aquaculture
PY  - 2024
VL  - 8
IS  - 3
DO  - 10.23880/ijoac-16000327
ER  -