Impact of dry-off and lyophilized Aloe arborescens supplementation on plasma metabolome of dairy cows

[1]  B. Kuhla,et al.  Hepatic urea, creatinine and uric acid metabolism in dairy cows with divergent milk urea concentrations , 2022, Scientific Reports.

[2]  E. Trevisi,et al.  Drying-off dairy cows without antibiotic therapy and orally supplemented with lyophilized Aloe arborescens: effects on rumen activity, immunometabolic profile, and milk yield. , 2022, Journal of animal physiology and animal nutrition.

[3]  L. Baumgard,et al.  Effects of acute intravenous lipopolysaccharide administration on the plasma lipidome and metabolome in lactating Holstein cows experiencing hyperlipidemia , 2022, Metabolomics.

[4]  A. Atzori,et al.  Milk metabolome reveals pyrimidine and its degradation products as the discriminant markers of different corn silage-based nutritional strategies. , 2022, Journal of dairy science.

[5]  D. Nydam,et al.  Effects of dietary branched-chain amino acid supplementation on serum and milk metabolome profiles in dairy cows during early lactation. , 2022, Journal of dairy science.

[6]  J. Xia,et al.  Using MetaboAnalyst 5.0 for LC–HRMS spectra processing, multi-omics integration and covariate adjustment of global metabolomics data , 2022, Nature Protocols.

[7]  L. Laghi,et al.  Differences in the serum metabolome profile of dairy cows according to the BHB concentration revealed by proton nuclear magnetic resonance spectroscopy (1H-NMR) , 2022, Scientific Reports.

[8]  Joon Hyuk Suh.  Critical review: metabolomics in dairy science - evaluation of milk and milk product quality , 2022, Food Research International.

[9]  E. Trevisi,et al.  Gene network expression of whole blood leukocytes in dairy cows with different milk yield at dry-off , 2021, PloS one.

[10]  E. Trevisi,et al.  The Transition Period Updated: A Review of the New Insights into the Adaptation of Dairy Cows to the New Lactation , 2021, Dairy.

[11]  E. Trevisi,et al.  Drying-off cows with low somatic cell count with or without antibiotic therapy: a pilot study addressing the effects on immunometabolism and performance in the subsequent lactation , 2021, Livestock Science.

[12]  M. Barbato,et al.  Changes of Plasma Analytes Reflecting Metabolic Adaptation to the Different Stages of the Lactation Cycle in Healthy Multiparous Holstein Dairy Cows Raised in High-Welfare Conditions , 2021, Animals : an open access journal from MDPI.

[13]  E. Grilli,et al.  Characterization of the Plasma Lipidome in Dairy Cattle Transitioning from Gestation to Lactation: Identifying Novel Biomarkers of Metabolic Impairment , 2021, Metabolites.

[14]  J. Loor,et al.  Unique adaptations in neonatal hepatic transcriptome, nutrient signaling, and one-carbon metabolism in response to feeding ethyl cellulose rumen-protected methionine during late-gestation in Holstein cows , 2021, BMC genomics.

[15]  G. Rocchetti,et al.  Application of metabolomics to assess milk quality and traceability , 2021 .

[16]  E. Trevisi,et al.  Albumin-to-globulin ratio before dry-off as a possible index of inflammatory status and performance in the subsequent lactation in dairy cows. , 2021, Journal of dairy science.

[17]  J. Loor,et al.  One-carbon, carnitine, and glutathione metabolism-related biomarkers in peripartal Holstein cows are altered by prepartal body condition. , 2021, Journal of dairy science.

[18]  J. Loor,et al.  Identification of Milk Fat Metabolism-Related Pathways of the Bovine Mammary Gland during Mid and Late Lactation and Functional Verification of the ACSL4 Gene , 2020, Genes.

[19]  F. Jourdan,et al.  Inhibition of enteric methanogenesis in dairy cows induces changes in plasma metabolome highlighting metabolic shifts and potential markers of emission , 2020, Scientific Reports.

[20]  Q. Zebeli,et al.  Distinct serum metabolomic signatures of multiparous and primiparous dairy cows switched from a moderate to high-grain diet during early lactation , 2020, Metabolomics.

[21]  E. Trevisi,et al.  Role of nutraceuticals during the transition period of dairy cows: a review , 2020, Journal of Animal Science and Biotechnology.

[22]  M. Bionaz,et al.  Interaction between inflammation and metabolism in periparturient dairy cows. , 2020, Journal of animal science.

[23]  P. Rajala-Schultz,et al.  Dry-off and dairy cow udder health and welfare: Effects of different milk cessation methods. , 2020, Veterinary journal.

[24]  D. Wishart,et al.  The Bovine Metabolome , 2020, Metabolites.

[25]  M. Bionaz,et al.  Effects of Aloe arborescens Whole Plant Homogenate on Lipid Metabolism, Inflammatory Conditions and Liver Function of Dairy Cows during the Transition Period , 2020, Animals : an open access journal from MDPI.

[26]  H. White,et al.  Symposium review: One-carbon metabolism and methyl donor nutrition in the dairy cow. , 2020, Journal of dairy science.

[27]  Jian Ni,et al.  Aloe‐emodin: A review of its pharmacology, toxicity, and pharmacokinetics , 2019, Phytotherapy research : PTR.

[28]  Jerzy Adamski,et al.  Metabolomics meets machine learning: Longitudinal metabolite profiling in serum of normal versus overconditioned cows and pathway analysis. , 2019, Journal of dairy science.

[29]  E. Trevisi,et al.  Inflammatory status and metabolic changes at dry-off in high-yield dairy cows , 2019, Italian Journal of Animal Science.

[30]  Xiaofang Li,et al.  Chrysophanol: a review of its pharmacology, toxicity and pharmacokinetics , 2019, The Journal of pharmacy and pharmacology.

[31]  E. Marín,et al.  Antiglycation Activity and HT-29 Cellular Uptake of Aloe-Emodin, Aloin, and Aloe arborescens Leaf Extracts , 2019, Molecules.

[32]  M. Daghio,et al.  Invited review: Plant polyphenols and rumen microbiota responsible for fatty acid biohydrogenation, fiber digestion, and methane emission: Experimental evidence and methodological approaches. , 2019, Journal of dairy science.

[33]  Z. Ren,et al.  Plasma metabolite changes in dairy cows during parturition identified using untargeted metabolomics. , 2019, Journal of dairy science.

[34]  L. Sordillo,et al.  Oxylipid profiles of dairy cattle vary throughout the transition into early mammary gland involution. , 2019, Journal of dairy science.

[35]  L. Wisnieski,et al.  Changes in biomarkers of nutrient metabolism, inflammation, and oxidative stress in dairy cows during the transition into the early dry period. , 2018, Journal of dairy science.

[36]  E. Humer,et al.  Supplementing phytogenic compounds or autolyzed yeast modulates ruminal biogenic amines and plasma metabolome in dry cows experiencing subacute ruminal acidosis. , 2018, Journal of dairy science.

[37]  E. Trevisi,et al.  Assessment of the innate immune response in the periparturient cow. , 2017, Research in veterinary science.

[38]  H. Sauerwein,et al.  Proteomics and metabolomics characterizing the pathophysiology of adaptive reactions to the metabolic challenges during the transition from late pregnancy to early lactation in dairy cows. , 2017, Journal of proteomics.

[39]  D. Wishart,et al.  043 Metabolomics uncovers serum biomarkers that can predict the risk of retained placenta in transition dairy cows. , 2017 .

[40]  D. Wishart,et al.  Metabotyping reveals distinct metabolic alterations in ketotic cows and identifies early predictive serum biomarkers for the risk of disease , 2017, Metabolomics.

[41]  D. Wishart,et al.  GC-MS Metabolomics Identifies Metabolite Alterations That Precede Subclinical Mastitis in the Blood of Transition Dairy Cows. , 2017, Journal of proteome research.

[42]  H. Naegeli,et al.  Altered plasma lipidome profile of dairy cows with fatty liver disease. , 2017, Research in veterinary science.

[43]  K. Huber,et al.  A metabolomics approach to characterize phenotypes of metabolic transition from late pregnancy to early lactation in dairy cows , 2016, Metabolomics.

[44]  D. Hailemariam,et al.  Dairy cows affected by ketosis show alterations in innate immunity and lipid and carbohydrate metabolism during the dry off period and postpartum. , 2016, Research in veterinary science.

[45]  L. Lucini,et al.  Administration of Aloe arborescens homogenate to cattle: interaction with rumen fermentation and gut absorption of aloin , 2016 .

[46]  D. Weary,et al.  Invited review: Cessation of lactation: Effects on animal welfare. , 2015, Journal of dairy science.

[47]  Haidy A. Gad,et al.  A Systemic Review on Aloe arborescens Pharmacological Profile: Biological Activities and Pilot Clinical Trials , 2015, Phytotherapy research : PTR.

[48]  H. Naegeli,et al.  Blood plasma lipidome profile of dairy cows during the transition period , 2015, BMC Veterinary Research.

[49]  N. Kristensen,et al.  Absorption and intermediary metabolism of purines and pyrimidines in lactating dairy cows , 2015, British Journal of Nutrition.

[50]  W. Clarke,et al.  Present and Future Applications of High Resolution Mass Spectrometry in the Clinic , 2014, Discoveries.

[51]  L. Lucini,et al.  Anthraquinones and β-polysaccharides content and distribution in Aloe plants grown under different light intensities , 2013 .

[52]  V. Calabrò,et al.  Effect of Aloe Arborescens on In Vitro Rumen Fermentations , 2013 .

[53]  W. Heuwieser,et al.  Measurement of fecal glucocorticoid metabolites and evaluation of udder characteristics to estimate stress after sudden dry-off in dairy cows with different milk yields. , 2013, Journal of dairy science.

[54]  R. Geor,et al.  Association of the glycoxidative stress marker pentosidine with equine laminitis. , 2013, Veterinary journal.

[55]  M. Houweling,et al.  Technical note: quantification of plasma 1- and 3-methylhistidine in dairy cows by high-performance liquid chromatography-tandem mass spectrometry. , 2012, Journal of dairy science.

[56]  T. Fujihara,et al.  Metabolism of microbial nitrogen in ruminants with special reference to nucleic acids. , 2011, Animal science journal = Nihon chikusan Gakkaiho.

[57]  S. Fanali,et al.  Analysis of Aloe-based phytotherapeutic products by using nano-LC-MS. , 2010, Journal of separation science.

[58]  J. Berdagué,et al.  Ultraviolet-absorbing compounds in milk are related to forage polyphenols. , 2010, Journal of dairy science.

[59]  Mi-Kyung Sung,et al.  Intestinal absorption of aloin, aloe-emodin, and aloesin; A comparative study using two in vitro absorption models , 2009, Nutrition research and practice.

[60]  Josias H. Hamman,et al.  Composition and Applications of Aloe vera Leaf Gel , 2008, Molecules.

[61]  M. Bionaz,et al.  Plasma paraoxonase, health, inflammatory conditions, and liver function in transition dairy cows. , 2007, Journal of dairy science.

[62]  M. Piepenbrink,et al.  Liver metabolism and production of cows fed increasing amounts of rumen-protected choline during the periparturient period. , 2003, Journal of dairy science.

[63]  J. Drackley,et al.  Adaptations of Glucose and Long-Chain Fatty Acid Metabolism in Liver of Dairy Cows during the Periparturient Period , 2001 .

[64]  R. G. Steinhauer,et al.  The final frontier. , 2000, JEMS : a journal of emergency medical services.

[65]  J. Drackley,et al.  ADSA Foundation Scholar Award. Biology of dairy cows during the transition period: the final frontier? , 1999, Journal of dairy science.

[66]  M. Nangaku,et al.  Renal catabolism of advanced glycation end products: the fate of pentosidine. , 1998, Kidney international.

[67]  P. V. Soest,et al.  The influence of the Maillard reaction upon the nutritive value of fibrous feeds , 1991 .

[68]  Robert C. Wolpert,et al.  A Review of the , 1985 .

[69]  J. Bauer,et al.  Clinical appraisal of creatinine clearance as a measurement of glomerular filtration rate. , 1982, American journal of kidney diseases : the official journal of the National Kidney Foundation.