권호 표지

Animal Bioscience

Asian Australasian Association of Animal Production Societies (AAAP)

  • Monthly
  • /
  • 2765-0189(pISSN)
  • /
  • 2765-0235(eISSN)

Domain

  • Agriculture, Fishery and Food ＞ Agricultural Engineering/Facilities

Aim & Scope

Animal Bioscience (AB) aims to publish original and cutting-edge research results and reviews on animal-related aspects of the life sciences. Emphasis will be placed on studies involving farm animals such as cattle, buffaloes, sheep, goats, pigs, horses, and poultry. Animal Bioscience will encompass all areas of animal production and fundamental aspects of animal sciences: breeding and genetics, reproduction and physiology, nutrition, dairy and meat science, biotechnology, behavior, health, welfare and livestock farming systems. Animal Bioscience is subdivided into 10 sections. Animal Breeding and Genetics: quantitative and molecular genetics, genomics, genetic evaluation, evolution of domestic animals, and bioinformatics Animal Reproduction and Physiology: physiology of reproduction, development, growth, lactation, and exercise; and gamete biology Ruminant Nutrition and Forage Utilization: rumen microbiology and function, ruminant nutrition, physiology and metabolism, and forage utilization Swine Nutrition and Feed Technology: swine nutrition and physiology; evaluation of feeds, feed additives, and feed processing technology Poultry and Laboratory Animal Nutrition: nutrition and physiology of poultry and other non-ruminant animals Animal Products: dairy and meat science, muscle biology, food safety, food security, and functional foods Animal Biotechnology: molecular nutrition, transgenic animals, identification and manipulation of genes Animal Health: immune modulation, nutritional immunology, infection and immunity, stress responses, vaccines and therapeutics Animal Behavior and Welfare: social and sexual behavior and animal welfare Environment and Management: livestock waste management, livestock and environment, and livestock farming system

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Volume 36 Issue 2_spc

  1. Tae Sub Park 333
    https://doi.org/10.5713/ab.22.0383 PDF
    Genetic modification enables modification of target genes or genome structure in livestock and experimental animals. These technologies have not only advanced bioscience but also improved agricultural productivity. To introduce a foreign transgene, the piggyBac transposon element/transposase system could be used for production of transgenic animals and specific target protein-expressing animal cells. In addition, the clustered regularly interspaced short palindromic repeat-CRISPR associated protein 9 (CRISPR-Cas9) system have been utilized to generate chickens with knockout of G0/G1 switch gene 2 (G0S2) and myostatin, which are related to lipid deposition and muscle growth, respectively. These experimental chickens could be the invaluable genetic resources to investigate the regulatory pathways and mechanisms of improvement of economic traits such as fat quantity and growth. The gene-edited animals could also be applicable to the livestock industry.
  2. Ching-Fu Tu;Shu-Hui Peng;Chin-kai Chuang;Chi-Hong Wong;Tien-Shuh Yang 339
    https://doi.org/10.5713/ab.22.0389 PDF
    Gene editing (GE) offers a new breeding technique (NBT) of sustainable value to animal agriculture. There are 3 GE working sites covering 5 feasible pathways to generate GE pigs along with the crucial intervals of GE/genotyping, microinjection/electroporation, induced pluripotent stem cells, somatic cell nuclear transfer, cryopreservation, and nonsurgical embryo transfer. The extension of NBT in the new era of pig breeding depends on the synergistic effect of GE and reproductive biotechnologies; the outcome relies not only on scientific due diligence and operational excellence but also on the feasibility of application on farms to improve sustainability.
  3. Myunggi Baik;Jaesung Lee;Sang Yeob Kim;Kamburawala Kankanamge Tharindu Namal Ranaweera 350
    https://doi.org/10.5713/ab.22.0380 PDF
    Beef quality is characterized by marbling (marbling degree and marbling fineness), physiochemical (shear force, meat color, fat color, texture, and maturity), and sensory (tenderness, flavor, juiciness, taste, odor, and appearance) traits. This paper summarizes and addresses beef-quality characteristics and the beef-grading systems in Korea, Japan, the USA, and Australia. This paper summarizes recent research progresses on the genetic and nutritional factors that affect beef quality. Intramuscular (i.m.) adipose tissue deposition or marbling is a major determinant of beef quality. This paper addresses the mechanisms of i.m. adipose tissue deposition focused on adipogenesis and lipogenesis. We also address selected signaling pathways associated with i.m. adipose tissue deposition. Nutrients contribute to the cellular response and phenotypes through gene expression and metabolism. This paper addresses control of gene expression through several nutrients (carbohydrates, fat/fatty acids, vitamins, etc.) for i.m. adipose tissue deposition. Several transcription factors responsible for gene expression via nutrients are addressed. We introduce the concept of genome-based precision feeding in Korean cattle.
  4. Minseok Kim 364
    https://doi.org/10.5713/ab.22.0382 PDF
    The gastrointestinal (GI) tract of ruminants contains diverse microbes that ferment various feeds ingested by animals to produce various fermentation products, such as volatile fatty acids. Fermentation products can affect animal performance, health, and well-being. Within the GI microbes, the ruminal microbes are highly diverse, greatly contribute to fermentation, and are the most important in ruminant nutrition. Although traditional cultivation methods provided knowledge of the metabolism of GI microbes, most of the GI microbes could not be cultured on standard culture media. By contrast, amplicon sequencing of 16S rRNA genes can be used to detect unculturable microbes. Using this approach, ruminant nutritionists and microbiologists have conducted a plethora of nutritional studies, many including dietary interventions, to improve fermentation efficiency and nutrient utilization, which has greatly expanded knowledge of the GI microbiota. This review addresses the GI content sampling method, 16S rRNA gene amplicon sequencing, and bioinformatics analysis and then discusses recent studies on the various factors, such as diet, breed, gender, animal performance, and heat stress, that influence the GI microbiota and thereby ruminant nutrition.
  5. Susumu Muroya 374
    https://doi.org/10.5713/ab.22.0370 PDF
    Skeletal muscle metabolism regulates homeostatic balance in animals. The metabolic impact persists even after farm animal skeletal muscle is converted to edible meat through postmortem rigor mortis and aging. Muscle metabolites resulting from animal growth and postmortem storage have a significant impact on meat quality, including flavor and color. Metabolomics studies of postmortem muscle aging have identified metabolisms that contain signatures inherent to muscle properties and the altered metabolites by physiological adaptation, with glycolysis as the pivotal metabolism in postmortem aging. Metabolomics has also played a role in mining relevant postmortem metabolisms and pathways, such as the citrate cycle and mitochondrial metabolism. This leads to a deeper understanding of the mechanisms underlying the generation of key compounds that are associated with meat quality. Genetic background, feeding strategy, and muscle type primarily determine skeletal muscle properties in live animals and affect post-mortem muscle metabolism. With comprehensive metabolite detection, metabolomics is also beneficial for exploring biomarker candidates that could be useful to monitor meat production and predict the quality traits. The present review focuses on advances in farm animal muscle metabolomics, especially postmortem muscle metabolism associated with genetic factors and muscle type.