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Welcome to Animal Research Perspectives (ARP)

Bingkun Zhang , Bo Wang

Animal Research Perspectives ›› 2026, Vol. 1 ›› Issue (1) : 0260001

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Animal Research Perspectives ›› 2026, Vol. 1 ›› Issue (1) : 0260001 DOI: 10.63823/ARP0260001
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Welcome to Animal Research Perspectives (ARP)
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Abstract

Dear colleagues, friends, and the global animal science community,
It is with a profound sense of honor and responsibility that I welcome you to the inaugural issue of Animal Research Perspectives (ARP), a new international, peer-reviewed journal dedicated to expanding the horizons of animal science and sustainable production. This journal, published by the International Science Accelerator, arrives at a critical juncture when our global scientific ecosystem urgently demands a pivotal platform that bridges foundational biological mechanisms with practical, evidence-based innovations worldwide.


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Bingkun Zhang, Bo Wang. Welcome to Animal Research Perspectives (ARP). Animal Research Perspectives, 2026, 1(1): 0260001 DOI:10.63823/ARP0260001

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Dear colleagues, friends, and the global animal science community,
It is with a profound sense of honor and responsibility that I welcome you to the inaugural issue of Animal Research Perspectives (ARP), a new international, peer-reviewed journal dedicated to expanding the horizons of animal science and sustainable production. This journal, published by the International Science Accelerator, arrives at a critical juncture when our global scientific ecosystem urgently demands a pivotal platform that bridges foundational biological mechanisms with practical, evidence-based innovations worldwide.
For decades, animal science was driven largely by productivity, focusing mainly on maximizing the output of meat, milk, and eggs to feed a rapidly growing population. By traditional metrics such as growth rate and feed conversion ratio (FCR), our field has achieved remarkable success through intensive genetic selection, improved reproductive technologies, and advanced nutritional strategies [1]. However, this relentless pursuit of production efficiency has introduced unexpected biological trade-offs that we can no longer ignore. In fast-growing livestock and poultry lines, excessive selection for muscle hypertrophy has inadvertently altered muscle fiber characteristics and restricted vascular supply, leading to severe metabolic myopathies such as white striping and wooden breast, which compromise both animal welfare and product quality [2]. Crucially, these phenotypic crises in production animals closely parallel metabolic and muscular diseases studied in foundational biology, where model organisms serve as indispensable systems to decode the precise cellular pathways behind such pathologies. Furthermore, modern high-density and large-scale confinement production systems have fundamentally altered host-pathogen dynamics, drastically increasing the risk of infectious outbreaks and horizontal disease transmission. This intensification, coupled with the critical global mandate to restrict subtherapeutic antibiotics use, presents unprecedented challenges for herd health management, requiring innovative veterinary solutions to prevent disease while simultaneously mitigating the spread of antimicrobial resistance [3,4].
Recognizing these multifaceted challenges, Animal Research Perspectives (ARP) was explicitly founded to foster critical dialogue among scientists, industry professionals, and policymakers by integrating research from both livestock species and key model organisms. We welcome contributions that explore the molecular and cellular mechanisms governing animal development, genetics, and immune regulation, as well as novel applied methodologies in veterinary sciences and disease prevention. Our vision balances traditional strengths in animal nutrition and feed science with forward-looking insights into animal behavior, natural housing systems, and stress mitigation. This integrated framework is heavily empowered by disruptive technologies that allow us to decode animal biology at an unprecedented cellular and systemic resolution. Today, advanced developmental biology, stem cell culture, and tissue engineering allow us to manipulate transcriptional programming and complex biomaterial microenvironments, pioneering scalable and sustainable cultured meat production [5]. Simultaneously, artificial intelligence, automated sensor technologies, and multi-omics data analytics are transforming the discipline, establishing generative computational networks that optimize precision feeding regimens, predict disease onset before clinical symptoms appear, and accurately assess real-time animal welfare parameters on a global scale [6].
These scientific advances fit naturally within the One Health framework, which recognizes that human health, animal welfare, and environmental integrity are deeply and permanently connected. As agricultural boundaries continue to expand, animal science plays an essential role, not only in securing food systems but also in improving food safety, tracking antimicrobial resistance, and preventing zoonotic diseases. It also provides valuable comparative data and biomedical models that directly benefit human physiological research. ARP emerges at this critical crossroads, where cutting edge animal biology meets human well-being and global environmental sustainability. We warmly invite the international community to share their transformative ideas, high quality reviews, and original findings on this new platform, as we work together to build a vibrant and forward-looking future for animal science.

References

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Zuidhof, M.J., B.L. Schneider, V.L. Carney, D.R. Korver, and F.E. Robinson, Growth, efficiency, and yield of commercial broilers from 1957, 1978, and 2005. Poult Sci, 2014. 93(12): 2970-82.

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Téllez-Isaías, G., B. Nusairat, and R. Qudsieh., An Overview of Poultry Meat Quality and Myopathies, in Broiler Industry, G. Téllez-Isaías, J.D. Latorre, and Y. Martínez-Aguilar, Editors. 2022, IntechOpen: London.

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Robinson, T.P., H.F. Wertheim, M. Kakkar, S. Kariuki, D. Bu, and L.B. Price, Animal production and antimicrobial resistance in the clinic. Lancet, 2016. 387(10014): e1-3.

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VanderWaal, K. and J. Deen, Global trends in infectious diseases of swine. Proceedings of the National Academy of Sciences, 2018. 115(45): 11495-11500.

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Martins B., A. Bister, R.G.J. Dohmen, M.A. Gouveia, R. Hueber, L. Melzener, T. Messmer, J. Papadopoulos, J. Pimenta, D. Raina, L. Schaeken, S. Shirley, B. Bouchet, and J.E. Flack, Advances and Challenges in Cell Biology for Cultured Meat. Annu Rev Anim Biosci, 2024. 12: 345-368.

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Niu M., C. Guo, and V.E. Cabrera, Artificial intelligence for animal science: from applications to integrated knowledge systems. Animal Frontiers, 2026. 16(2): 26-33.

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