Strategies of inorganic and organic trace mineral supplementation in gestating hyperprolific sow diets: effects on the offspring performance and fetal programming.
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F. Pérez-Cano | J. Pérez | D. Melo-Durán | D. Solà-Oriol | S. V. van Kuijk | F. González-Solé | S. Villagómez-Estrada | A. Forouzandeh | Matilde D' Angelo | Sandra J A van Kuijk
[1] J. Pérez,et al. 271 Maternal transfer of phytogenic compounds supplemented during gestation and/or lactation of hyperprolific sows: effects on reproductive performance and colostrum-milk features , 2020 .
[2] J. Pérez,et al. Effects of two zinc supplementation levels and two zinc and copper sources with different solubility characteristics on the growth performance, carcass characteristics and digestibility of growing‐finishing pigs , 2020, Journal of animal physiology and animal nutrition.
[3] J. Pérez,et al. Dietary Preference of Newly Weaned Pigs and Nutrient Interactions According to Copper Levels and Sources with Different Solubility Characteristics , 2020, Animals : an open access journal from MDPI.
[4] F. Pérez-Cano,et al. The Immature Gut Barrier and Its Importance in Establishing Immunity in Newborn Mammals , 2020, Frontiers in Immunology.
[5] Guoyao Wu,et al. Placentae for Low Birth Weight Piglets Are Vulnerable to Oxidative Stress, Mitochondrial Dysfunction, and Impaired Angiogenesis , 2020, Oxidative medicine and cellular longevity.
[6] Christos T. Chasapis,et al. Recent aspects of the effects of zinc on human health , 2020, Archives of Toxicology.
[7] G. Hansson,et al. Membrane mucins of the intestine at a glance , 2020, Journal of Cell Science.
[8] Choi-Kyu Park,et al. Effect of polymorphisms in porcine guanylate-binding proteins on host resistance to PRRSV infection in experimentally challenged pigs , 2020, Veterinary Research.
[9] G. Shurson,et al. Effects of supplementing late-gestation sow diets with zinc on preweaning mortality of pigs under commercial rearing conditions , 2020, Translational animal science.
[10] S. Malhotra,et al. Guanylate-Binding Protein 1: An Emerging Target in Inflammation and Cancer , 2020, Frontiers in Immunology.
[11] M. Wilson,et al. A cooperative study assessing reproductive performance in sows fed diets supplemented with organic or inorganic sources of trace minerals , 2019, Translational animal science.
[12] S. Edwards,et al. Genetic influences on intra-uterine growth retardation of piglet and management interventions for low birth weight piglets , 2019 .
[13] P. Langendijk,et al. Parturition and Its Relationship with Stillbirths and Asphyxiated Piglets , 2019, Animals : an open access journal from MDPI.
[14] O. Peltoniemi,et al. The challenge of large litters on the immune system of the sow and the piglets. , 2019, Reproduction in domestic animals = Zuchthygiene.
[15] P. Tummaruk,et al. Association between the incidence of stillbirths and expulsion interval, piglet birth weight, litter size and carbetocin administration in hyper-prolific sows , 2019, Livestock Science.
[16] V. Hornung,et al. Human GBP1 is a microbe‐specific gatekeeper of macrophage apoptosis and pyroptosis , 2019, The EMBO journal.
[17] Dongyou Yu,et al. Effects of low-dose organic trace minerals on performance, mineral status, and fecal mineral excretion of sows , 2019, Asian-Australasian journal of animal sciences.
[18] M. J. Ritter,et al. Birth weight threshold for identifying piglets at risk for preweaning mortality , 2019, Translational animal science.
[19] O. Akinloye,et al. First line defence antioxidants-superoxide dismutase (SOD), catalase (CAT) and glutathione peroxidase (GPX): Their fundamental role in the entire antioxidant defence grid , 2018, Alexandria Journal of Medicine.
[20] P. Theil,et al. l-arginine supplementation in sow diet during late gestation decrease stillborn piglet, increase piglet birth weight and increase immunoglobulin G concentration in colostrum. , 2018, Theriogenology.
[21] B. Kemp,et al. Recent advances in pig reproduction: Focus on impact of genetic selection for female fertility. , 2018, Reproduction in domestic animals = Zuchthygiene.
[22] Louis R. Joslyn,et al. Dynamic balance of pro‐ and anti‐inflammatory signals controls disease and limits pathology , 2018, Immunological reviews.
[23] J. Goff. Invited review: Mineral absorption mechanisms, mineral interactions that affect acid-base and antioxidant status, and diet considerations to improve mineral status. , 2018, Journal of dairy science.
[24] Guoyao Wu,et al. Fetal and neonatal programming of postnatal growth and feed efficiency in swine , 2017, Journal of Animal Science and Biotechnology.
[25] Zhongjian Chen,et al. Dietary Zinc Oxide Modulates Antioxidant Capacity, Small Intestine Development, and Jejunal Gene Expression in Weaned Piglets , 2016, Biological Trace Element Research.
[26] H. Narita,et al. Properties of Zip4 accumulation during zinc deficiency and its usefulness to evaluate zinc status: a study of the effects of zinc deficiency during lactation. , 2016, American journal of physiology. Regulatory, integrative and comparative physiology.
[27] Dongyou Yu,et al. Effects of Replacing of Inorganic Trace Minerals by Organically Bound Trace Minerals on Growth Performance, Tissue Mineral Status, and Fecal Mineral Excretion in Commercial Grower-Finisher Pigs , 2016, Biological Trace Element Research.
[28] D. Vanrompay,et al. Intrauterine growth restriction in neonatal piglets affects small intestinal mucosal permeability and mRNA expression of redox‐sensitive genes , 2016, FASEB journal : official publication of the Federation of American Societies for Experimental Biology.
[29] T. Lien,et al. Nanosize of zinc oxide and the effects on zinc digestibility, growth performances, immune response and serum parameters of weanling piglets. , 2016, Animal science journal = Nihon chikusan Gakkaiho.
[30] E. Magowan,et al. Evaluation of the effects of pharmacological zinc oxide and phosphorus source on weaned piglet growth performance, plasma minerals and mineral digestibility. , 2015, Animal : an international journal of animal bioscience.
[31] Z. Lv,et al. Maternal high-zinc diet attenuates intestinal inflammation by reducing DNA methylation and elevating H3K9 acetylation in the A20 promoter of offspring chicks. , 2015, The Journal of nutritional biochemistry.
[32] L. Che,et al. Nutritional interventions to prevent and rear low-birthweight piglets. , 2014, Journal of animal physiology and animal nutrition.
[33] J. Zhao,et al. Effects of a Chelated Copper as Growth Promoter on Performance and Carcass Traits in Pigs , 2014, Asian-Australasian journal of animal sciences.
[34] J. Miles,et al. Effect of essential fatty acid and zinc supplementation during pregnancy on birth intervals, neonatal piglet brain myelination, stillbirth, and preweaning mortality. , 2014, Journal of animal science.
[35] D. Mahan,et al. Comparison of organic and inorganic zinc sources to maximize growth and meet the zinc needs of the nursery pig. , 2014, Journal of animal science.
[36] J. Zentek,et al. Effect of Dietary Zinc Oxide on Morphological Characteristics, Mucin Composition and Gene Expression in the Colon of Weaned Piglets , 2014, PloS one.
[37] P. Theil,et al. Intrauterine growth restricted piglets defined by their head shape ingest insufficient amounts of colostrum. , 2013, Journal of animal science.
[38] A. de Kruif,et al. Non-infectious factors associated with stillbirth in pigs: a review. , 2013, Animal reproduction science.
[39] L. Sibley,et al. Guanylate-binding Protein 1 (Gbp1) Contributes to Cell-autonomous Immunity against Toxoplasma gondii , 2013, PLoS pathogens.
[40] J. Konkel,et al. Balancing acts: the role of TGF-β in the mucosal immune system. , 2011, Trends in molecular medicine.
[41] M. Verstegen,et al. Intestinal barrier function and absorption in pigs after weaning: a review , 2011, British Journal of Nutrition.
[42] N. Suttle. Mineral Nutrition of Livestock , 2010 .
[43] N. Soede,et al. Effect of excessive, hormonally induced intrauterine crowding in the gilt on fetal development on day 40 of pregnancy. , 2010, Journal of animal science.
[44] N. D. Fastinger,et al. Effect of dietary organic and inorganic micromineral source and level on sow body, liver, colostrum, mature milk, and progeny mineral compositions over six parities. , 2010, Journal of animal science.
[45] N. St-Pierre,et al. Macro- and micromineral composition of fetal pigs and their accretion rates during fetal development. , 2009, Journal of animal science.
[46] Yuming Guo,et al. Supplemental zinc reduced intestinal permeability by enhancing occludin and zonula occludens protein-1 (ZO-1) expression in weaning piglets , 2009, British Journal of Nutrition.
[47] Anna K. Johnson,et al. The Accuracy and Repeatability of Sow Body Condition Scoring1 , 2009 .
[48] R. Cousins,et al. Mammalian zinc transporters: nutritional and physiologic regulation. , 2009, Annual review of nutrition.
[49] M. Heinonen,et al. Feeding sows with high fibre diet around farrowing and early lactation: impact on intestinal activity, energy balance related parameters and litter performance. , 2009, Research in veterinary science.
[50] P. Zagrodzki,et al. Antioxidants activities and concentration of selenium, zinc and copper in preterm and IUGR human placentas. , 2009, Journal of trace elements in medicine and biology : organ of the Society for Minerals and Trace Elements.
[51] D. Mahan,et al. Effects of dietary organic and inorganic trace mineral levels on sow reproductive performances and daily mineral intakes over six parities. , 2008, Journal of animal science.
[52] Guoyao Wu,et al. Dietary L-arginine supplementation enhances the reproductive performance of gilts. , 2007, The Journal of nutrition.
[53] C. Putman,et al. The biological basis for prenatal programming of postnatal performance in pigs. , 2006, Journal of animal science.
[54] M. Taverne,et al. Factors affecting duration of the expulsive stage of parturition and piglet birth intervals in sows with uncomplicated, spontaneous farrowings. , 2005, Theriogenology.
[55] Jean YH Yang,et al. Bioconductor: open software development for computational biology and bioinformatics , 2004, Genome Biology.
[56] Guoyao Wu,et al. Maternal nutrition and fetal development. , 2004, The Journal of nutrition.
[57] M. Ellersieck,et al. Copper proteinate in weanling pig diets for enhancing growth performance and reducing fecal copper excretion compared with copper sulfate. , 2004, Journal of animal science.
[58] R. Kincaid,et al. The role of essential trace elements in embryonic and fetal development in livestock. , 2003, Veterinary journal.
[59] Nathalie Quiniou,et al. Variation of piglets’ birth weight and consequences on subsequent performance , 2002 .
[60] U. Zwiener,et al. Comparison between inulin clearance and endogenous creatinine clearance in newborn normal weight and growth restricted newborn piglets. , 2000, Experimental and toxicologic pathology : official journal of the Gesellschaft fur Toxikologische Pathologie.
[61] M. M. Bradford. A rapid and sensitive method for the quantitation of microgram quantities of protein utilizing the principle of protein-dye binding. , 1976, Analytical biochemistry.
[62] J. Matte,et al. Maternal perinatal transfer of vitamins and trace elements to piglets. , 2019, Animal : an international journal of animal bioscience.
[63] D. Karolyi,et al. Variability of birth weight and growth of piglets in highly prolific sows , 2018 .
[64] B. Metzler-Zebeli,et al. Supplementation of diets for gestating sows with zinc amino acid complex and gastric intubation of suckling pigs with zinc-methionine on mineral status, intestinal morphology and bacterial translocation in lipopolysaccharide-challenged early-weaned pigs. , 2009, Research in veterinary science.
[65] .. S.P.Acda,et al. A Review on the Applications of Organic Trace Minerals in Pig Nutrition , 2002 .
[66] Y. Benjamini,et al. Controlling the false discovery rate: a practical and powerful approach to multiple testing , 1995 .