数字农科院2.0

Organic Trace Mineral Source Enhances the Bioavailability, Health Status, and Gut Microbiota Community in White Shrimp (Penaeus vannamei)

文献类型： 外文期刊

作者： Huang, Weijian;Yang, Jinzhu;Li, Xiao;Lin, Gang;Li, Mingzhu;Zhang, Yanjiao;Mai, Kangsen

作者机构：

关键词： organic trace minerals;trace minerals accumulation;physiological health;intestinal microbiota;Penaeus vannamei

期刊名称： BIOLOGY-BASEL

ISSN：

年卷期： 2025 年 14 卷 5 期

页码：

收录情况： SCIE（2025版）

摘要： Trace mineral supplementation is critical for shrimp aquaculture sustainability, yet the bioavailability of conventional inorganic forms remains suboptimal. The study investigated the effects of inorganic (IM) and organic (OM) trace mineral premixes at varying doses on growth, physiological responses, and gut microbiota in white shrimp (Penaeus vannamei). Five experimental diets were formulated: a basal control (no supplementation), full-dose IM (IM100), half-dose IM (IM50), half-dose OM (OM50), and one-third dose OM (OM33). A total of 800 shrimp were randomly distributed into 20 tanks for an 8-week feeding experiment. The results showed that shrimp fed diets OM50 and IM100 had significantly higher total protein content in the plasma, lower levels of total cholesterol and triglyceride, and enhanced antioxidant capacity and immune response (greater activities of T-SOD, GPX, and PO, lower content of MDA, higher content of hemocyanin, and upregulated expression of cat, gpx, and Hemo). Furthermore, OM50 group showed superior mineral bioaccumulation, particularly for Zn in the hepatopancreas and whole body, and Cu in the whole body, accompanied by upregulated expression of mineral transporter-related (ZIP14, ZnT6, and MT). Moreover, diet OM50 resulted in a higher abundance of potential probiotic bacteria (including Pseudomonas and Enterococcus) and a lower abundance of potential pathogenic bacteria (including Vibrio and Planctomicrobium). The findings indicated that organic trace minerals premix at half the conventional dosage can effectively enhance its bioavailability, significantly improve the health status, and beneficially modify intestinal microbiota communities of shrimp, suggesting superior efficiency compared to inorganic forms.

分类号：

  • 相关文献

[1]Intestinal microbiota differences associated with physiological health, meat quality, and regulating mineral interactions of Penaeus vannamei fed organic manganese. Jinzhu Yang,Zhonghao Zhang,Gang Lin,Mingzhu Li,Yanjiao Zhang,Kangsen Mai. 2024

[2]Evaluation of the combined impact of aflatoxin B1 and deoxynivalenol fed to Penaeus vannamei and mitigation properties provided by a yeast cell wall extract. Xiao Li,Jinzhu Yang,Weijian Huang,Gang Lin,Mingzhu Li,Kangsen Mai,Yanjiao Zhang. 2025

[3]Dietary enzyme complex improve the growth performance, digestive ability, antioxidant capacity and immunity, and glycometabolism in Penaeus vannamei fed high-plant-protein diets. Xiao Li,Jinzhu Yang,Weijian Huang,Gang Lin,Mingzhu Li,Kangsen Mai,Yanjiao Zhang. 2025

[4]Unlocking microbiota potential: the role of organic copper in enhancing healthy white shrimp (Penaeus vannamei) farming. Jinzhu Yang,Xiaoyang Yao,Zhonghao Zhang,Gang Lin,Mingzhu Li,Kangsen Mai,Yanjiao Zhang. 2025

[5]Multi-marker GWAS and variant-specific genomic prediction for growth traits in Pacific white shrimp. Tianzan Lv,Yan Xia,Jian Tan,Qiang Fu,Kun Luo,Xianhong Meng,Baolong Chen,Meijia Chen,Juan Sui,Ping Dai,Xupeng Li,Junyu Liu,Mianyu Liu,Jiawang Cao,Qun Xing,Guangfeng Qiang,Jie Kong,Hao Zhou,Sheng Luan. 2025

[6]Evaluation of probiotic bacteria for their effects on the growth performance and intestinal microbiota of newly-weaned pigs fed fermented high-moisture maize. Wang, J. Q.,Yin, F. G.,Yu, H.,Gong, J.,Wang, J. Q.,Wang, J. Q.,Zhu, C.,Niven, S. J.,de Lange, C. F. M.,Gong, J.,Yin, F. G.. 2012

[7]Intestinal microbiota: Development, metabolism and functions. Wang, Shengping,Yin, Yulong,Wang, Shengping,Yin, Yulong,Blachier, Francois,Zhao, Feng.

[8]Effects of Enterococcus faecium (SF68) on immune function in mice. Sun, Peng,Wang, Jiaqi,Jiang, Yanmei,Sun, Peng.

[9]Effects of cello-oligosaccharide on intestinal microbiota and epithelial barrier function of weanling pigs. Jiao, L. F.,Ke, Y. L.,Xiao, K.,Song, Z. H.,Hu, C. H.,Shi, B..

[10]Glutamine-induced Secretion of intestinal Secretory immunoglobulin A: A Mechanistic Perspective. Ren, Wenkai,Yin, Jie,Chen, Shuai,Liu, Gang,Tan, Bie,Yin, Yulong,Ren, Wenkai,Yin, Jie,Chen, Shuai,Wang, Kai,Wu, Guoyao,Bazer, Fuller W.,Peng, Yuanyi,Yin, Yulong. 2016

[11]Gut microbial status induced by antibiotic growth promoter alters the prebiotic effects of dietary DVAQUA (R) on Aeromonas hydrophila-infected tilapia: Production, intestinal bacterial community and non-specific immunity. Zhou, Zhigang,He, Suxu,Liu, Yuchun,Cao, Yanan,Meng, Kun,Yao, Bin,Ringo, Einar,Yoon, Ilkyu. 2011

[12]Research Progress on Hypoglycemic Mechanisms of Resistant Starch: A Review. Liu J.,Lu W.,Liang Y.,Wang L.,Jin N.,Zhao H.,Fan B.,Wang F.. 2022

[13]The Assessment of Dietary Organic Zinc on Zinc Homeostasis, Antioxidant Capacity, Immune Response, Glycolysis and Intestinal Microbiota in White Shrimp (Litopenaeus vannamei Boone, 1931). Yang J.,Wang T.,Lin G.,Li M.,Zhang Y.,Mai K.. 2022

[14]Pressurized hot water extraction, structural properties, biological effects, and in vitro microbial fermentation characteristics of sweet tea polysaccharide. Lei J.,Li W.,Fu M.-X.,Wang A.-Q.,Wu D.-T.,Guo H.,Hu Y.-C.,Gan R.-Y.,Zou L.,Liu Y.. 2022

[15]Effect of Ornithine a-Ketoglutarate on Intestinal Microbiota and Serum Inflammatory Cytokines in Dextran Sulfate Sodium Induced Colitis. Wang, Tao,Tian, Junquan,Su, Wenxuan,Yang, Fan,Yin, Jie,Jiang, Qian,Li, Yuying,Yao, Kang,Li, Tiejun,Yin, Yulong. 2023

[16]Different feeding patterns affect meat quality of Tibetan pigs associated with intestinal microbiota alterations. Yanbin Zhu,Cidan-yangji,Guangming Sun,Chengzeng Luo,Jiujun Duan,Bin Shi,Teng Ma,Shanlong Tang,Ruqing Zhong,Liang Chen,Basang-wangdui,Hongfu Zhang. 2022

[17]Partially replacing dietary fish meal by Saccharomyces cerevisiae culture improve growth performance, immunity, disease resistance, composition and function of intestinal microbiota in channel catfish (Ictalurus punctatus). Qiang Hao,Rui Xia,Qingshuang Zhang,Yadong Xie,Chao Ran,Yalin Yang,Wenhao Zhou,Fuwei Chu,Xiaomei Zhang,Yu Wang,Zhen Zhang,Zhigang Zhou. 2022

[18]Dietary organic acids ameliorate high stocking density stress-induced intestinal inflammation through the restoration of intestinal microbiota in broilers. Dong Dai,Guanghai Qi,Jing Wang,Haijun Zhang,Kai Qiu,Yanming Han,Yuanyuan Wu,Shugeng Wu. 2022

[19]Study about the combination strategy of Bacillus subtilis wt55 with AiiO-AIO6 to improve the resistance of zebrafish to Aeromonas veronii infection. Yuan Yuan Yao,Rui Xia,Ya Lin Yang,Qiang Hao,Chao Ran,Zhen Zhang,Zhi Gang Zhou. 2022

[20]Effects of dietary supplementation of bovine lactoferrin on growth performance, immune function and intestinal health in weaning piglets. Ma, Xuanxuan,Hao, Ya,Mao, Ruoyu,Yang, Na,Zheng, Xueling,Li, Bing,Wang, Zhenlong,Zhang, Qingjuan,Teng, Da,Wang, Jianhua. 2022

作者其他论文 更多>>