AMB_2024v14n1

Animal Molecular Breeding 2024, Vol.14, No.1, 86-94 http://animalscipublisher.com/index.php/amb 92 4.3 Public policy and education Advancements in GWAS research on the genetic basis of sheep flocking behavior are crucial for formulating related animal welfare policies and educational strategies. With genetic information revealed by scientific research, policymakers can more accurately assess and establish animal welfare standards, promoting the improvement of animal protection laws and regulations. Furthermore, integrating genetics and animal behavior knowledge into agricultural and biotechnological education can enhance the future farm managers' and breeders' awareness of the importance of animal welfare, cultivating their ability to guide practices using scientific findings. Additionally, the public's understanding of animal behavior and welfare will be improved, helping to establish a more humane and scientific animal management and breeding culture. Through the research findings of GWAS, we can not only gain a deeper understanding of the genetic mechanisms behind sheep flocking behavior but also translate these scientific discoveries into practical applications, thereby generating positive social and economic impacts at multiple levels, including breeding strategies, animal management, public policy, and education. 5 Future Research Directions 5.1 Research gaps and challenges Despite significant progress in uncovering the genetic basis of flocking behavior in sheep through genome-wide association studies (GWAS), current research still faces notable gaps and challenges. First, although some genetic markers associated with flocking behavior have been identified, little is known about how these markers influence behavior at the molecular level. Moreover, most studies focus on specific breeds or populations, limiting a comprehensive understanding of genetic diversity. Potential approaches to address these challenges include expanding the scope of research to cover more populations and genetic backgrounds, and utilizing advanced bioinformatics and genomics techniques to delve deeper into the functions of genetic markers (Su et al., 2023). Additionally, conducting long-term population genetics studies and phenotypic tracking can provide a more comprehensive understanding of the relationship between genetic variation and behavioral phenotypes. Ongoing research is crucial for overcoming existing challenges, filling knowledge gaps, and is essential for advancing sheep genetics and breeding. 5.2 Potential of interdisciplinary collaboration Collaboration across multiple disciplines such as bioinformatics, genetics, and ethology holds great potential in revealing the genetic basis of sheep flocking behavior. Interdisciplinary collaboration can provide a more comprehensive perspective and methodology for the research, enabling a deeper understanding of the genetic mechanisms of complex traits. For example, knowledge from ethology can help geneticists more accurately define and measure flocking behavior phenotypes, while bioinformatics technologies can support the analysis and interpretation of large-scale genomic data. Furthermore, collaboration with fields such as computational science, statistics, and molecular biology can accelerate scientific discoveries and technological innovations, driving sheep genetic research towards more precise and dynamic directions. Interdisciplinary research not only improves research efficiency but also facilitates the exchange and integration of knowledge and technologies across different fields. 5.3 Development of technologies and methods In the future, with the continuous emergence of new technologies and methods, genetic research on sheep flocking behavior will face new development opportunities. For instance, further refinement and application of gene-editing technologies like CRISPR/Cas9 will make functional validation experiments more efficient and precise. The development of single-cell sequencing technologies is expected to reveal genetic and expression heterogeneity at the cellular level, providing new perspectives for understanding complex traits.

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