Aquaculture Breeding, a dynamic and innovative practice at the intersection of biology, technology, and sustainable resource management, represents a pivotal force in meeting the escalating global demand for seafood while alleviating pressure on natural aquatic ecosystems. In this intricate and multifaceted process spanning a spectrum of environments from freshwater to marine systems, meticulous husbandry techniques converge with cutting-edge scientific methodologies to cultivate and propagate aquatic organisms. The genesis of aquaculture breeding involves the deliberate manipulation of environmental variables such as temperature, salinity, and nutrition to optimize the growth, health, and reproductive success of target species. The selection of breeding stock, informed by genetic advancements and trait-focused criteria, plays a central role in enhancing desirable traits like growth rate, disease resistance, and adaptability. Hatcheries, often serving as the epicenter of aquaculture breeding, are equipped with advanced recirculating aquaculture systems and biosecure facilities, facilitating the controlled development of fish, mollusks, and crustaceans from eggs to juveniles. Furthermore, breakthroughs in reproductive technologies, including artificial insemination and selective breeding, empower aquaculturists to accelerate the genetic improvement of stocks. As a bastion of sustainability, modern aquaculture breeding embraces responsible farming practices, incorporating environmentally conscious methodologies to mitigate ecological impact and promote biodiversity. The sector's adaptability is evident in its diverse array of methodologies, encompassing land-based tank systems, sea cages, and integrated multitrophic aquaculture, each tailored to the unique needs of the cultivated species. Aquaculture breeding not only represents a strategic response to burgeoning global food requirements but also fosters economic development by generating employment opportunities and supporting coastal communities. However, as the industry burgeons, challenges such as disease management, resource efficiency, and ethical considerations demand ongoing research and innovation to ensure the responsible stewardship of aquatic resources and the cultivation of a thriving, resilient aquaculture sector for future generations.
Title : Can we farm eelgrass as a high protein sustainable marine grain for aquaculture?
Timothy C Visel, Retired Aquaculture Educator, United States
Title : The horizontal integration of a shellfish farm in a broader business model
Perry Raso, Matunuck Oyster Farm, United States
Title : Myxosporean fauna of East Sea marine fishes off the coast of Vietnam
Violetta M Yurakhno, A. O. Kovalevsky Institute of Biology of the Southern Seas of Russian Academy of Sciences, Russian Federation
Title : Review of recent advances in replacing fish-based protein and oil with plant-based alternatives in aquafeeds
Amrit Bart, University of Georgia, United States
Title : Role of artificial intelligence and remote sensing in remediation of aquatic pollution and development of Numerical Oceanic Climate Prediction Models (NOCPM)
Virendra Goswami, Indian Institute of Technology (IIT), India
Title : India’s blue revolution at a crossroads: Lessons from the green revolution for a sustainable future
Mukesh Bhendarkar, ICAR-National Institute of Abiotic Stress Management, India