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Metabolomics has been a useful method for various study fields. However, its application in animal science does not seem to be sufficient. Metabolomics will be useful for various studies in animal science: Animal genetics and breeding, animal physiology, animal nutrition, animal products (milk, meat, eggs, and their by-products) and their processing, livestock environment, animal biotechnology, animal behavior, and animal welfare. More application examples and protocols for animal science will promote more motivation to use metabolomics effectively in the study field. Therefore, in this Special Issue, we introduced some research and review articles for “Metabolomic Applications in Anmal Science”. The main methods used were mass spectrometry or nuclear magnetic resonance spectroscopy. Not only a non-targeted, but also a targeted, analysis of metabolites is shown. The topics include dietary and pharmacological interventions and protocols for metabolomic experiments.

albumen --- breed --- chicken --- feed --- metabolome --- yolk --- arachidonic acid --- omega-3 fatty acids --- lipidomics --- mass spectrometry --- dietary fat --- fatty acid metabolism --- pork --- meat --- skeletal muscle --- fiber type --- cooking --- beef --- Wagyu --- Holstein --- captive giraffes --- urine --- metabolomics --- 1H-NMR --- NMR --- metabotype --- transition --- ketosis --- cattle --- chemometrics --- spectral correction --- authentication --- biomarker --- feeding --- meat quality traits --- metabolite --- postmortem aging --- processing --- chickens --- heat stress --- lipid peroxidation --- orotic acid --- feed efficiency --- biomarkers --- SNPs --- GWAS --- RFI --- pigs --- pathways --- metabolic profile --- transition period --- livestock --- methyl donor --- one-carbon metabolism --- negative energy balance --- pasture legumes --- phytoestrogens --- flavonoids --- coumestans --- polyphenols --- proanthocyanidins --- metabolic profiling --- biosynthesis --- linear model --- transcriptomics --- horse --- metabolomic --- metabolism --- exercise --- saliva --- anabolic practices --- testosterone --- plasma --- CE-TOFMS --- intramuscular fat --- meat quality --- porcine

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The impact of fat intake on hypercholesterolemia and related atherosclerotic cardiovascular diseases has been studied for decades. However, the current evidence base suggests that fatty acids also influences cardiometabolic diseases through other mechanisms including effects on glucose metabolism, body fat distribution, blood pressure, inflammation, and heart rate. Furthermore, studies evaluating single fatty acids have challenged the simplistic view of shared health effects within fatty acid groups categorized by degree of saturation. In addition, investigations of endogenous fatty acid metabolism, including genetic studies of fatty acid metabolizing enzymes, and the identification of novel metabolically derived fatty acids have further increased the complexity of fatty acids' health impacts. This Special Issue aims to include original research and up-to-date reviews on genetic and dietary modulation of fatty acids, and the role and function of dietary and metabolically derived fatty acids in cardiometabolic health.

coronary artery disease --- n-6 fatty acids --- ischemic heart disease --- n-3 fatty acids --- body weight --- alternatively activated macrophages --- type 2 cytokines --- children --- medium-chain triglyceride --- fat --- omega-3 PUFA --- substitution models --- obesity --- EETs --- arachidonic acid --- blood pressure --- Genome-wide association study (GWAS) --- antioxidant --- Mediterranean diet --- Insulin sensitivity --- PUFA --- n-3 PUFA --- long-chain triglyceride --- fish oil --- omega 3 --- CAD --- adipose tissue --- FADS --- blood lipids --- hemodynamics --- genotype --- erucic acid --- klotho --- CYP450 eicosanoids --- cardiometabolic disease --- fibrosis --- desaturase --- EEQs --- cohort study --- lipid metabolism --- fatty acid --- metabolic disease --- epidemiology --- omega-3 --- inflammation --- docosapentaenoic acid --- omega-6 PUFA --- type 2 diabetes mellitus --- diet --- CKD --- human --- perivascular adipose tissue --- seafood --- cardiovascular disease --- prospective cohort study --- linoleic acid --- low-fat diet --- conjugated fatty acids --- furan fatty acids --- unsaturated fat --- statins --- fish --- cholesterol ester --- CHD --- COPD

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Women and men have probably never been concerned as much by their health as during this COVID-19 pandemic. In this context, lifestyle habits continue to be promoted as allies for daily prevention against diseases. This is valid also for metabolic diseases, among which many affect the liver and are risk factors for aggravating the disease course of COVID-19. In fact, liver diseases are currently a major global health problem. There is a huge range of liver diseases and non-alcoholic fatty liver disease (NAFLD) is the most common chronic hepatic condition, which in some patients progresses to cirrhosis and liver cancer. Currently, substantial efforts are being made to better understand NAFLD, especially, because there is no U.S. Food and Drug Administration (FDA)-approved pharmacological therapy. To explore this disease, metabolomics is the most recently developed omics technology after genomics, transcriptomics, and proteomics. Metabolomics is the large-scale analysis of molecules, known as metabolites that are intermediate or end products of metabolism found within cells, tissues, and biofluids. This technology has a very high potential to identify biomarker candidates for the future development of new therapeutics. The book features articles that address metabolomics technology and its use to document different liver functions and dysfunctions, with a major focus on NAFLD.

nonalcoholic fatty liver disease --- nonalcoholic steatohepatitis --- Fibrosis --- Liver biopsy --- Genomics --- Metabolomics --- Proteomics --- Transcriptomics --- nicotinamide --- NAFLD --- steatosis --- heat stress --- primary mouse hepatocytes --- metabolic profile --- GC-MS --- multivariate statistical analysis --- arachidonic acid --- docosahexaenoic acid --- inflammation --- fibrosis --- lipidomics --- mass spectrometry --- in vitro --- HepaRG --- sodium saccharin --- reference toxicants --- de novo lipogenesis --- carbohydrate response element-binding protein --- ChREBP --- diabetes --- glucose production --- glycogen --- glycolysis --- glycogen storage disease type I --- hexosamine --- pentose phosphate pathway --- acupuncture --- imflammation --- lipid metabolism --- oxidative stress --- metabolomics quantitative profiling --- 1H-NMR spectroscopy --- liver --- bile acids --- metabolomics --- rat plasma --- tandem mass spectrometry --- liquid chromatography --- acetaminophen --- hepatotoxicity --- biomarker --- premalignant --- alcoholic liver disease --- cholestasis --- cirrhosis --- NAFL --- NASH --- standard operating procedures --- urine --- blood --- feces --- tissue --- cells --- liver function --- nonalcoholic fatty liver --- liquid chromatography-mass spectrometry --- nuclear magnetic resonance spectroscopy --- metabolic pathway --- non-alcoholic fatty liver disease --- non-alcoholic steatohepatitis --- transcription factors --- metabolic stress --- lipid homeostasis --- glucose homeostasis

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Human lactation has evolved to produce a milk composition that is uniquely-designed for the human infant. Not only does human milk optimize infant growth and development, it also provides protection from infection and disease. More recently, the importance of human milk and breastfeeding in the programming of infant health has risen to the fore. Anchoring of infant feeding in the developmental origins of health and disease has led to a resurgence of research focused in this area. Milk composition is highly variable both between and within mothers. Indeed the distinct maternal human milk signature, including its own microbiome, is influenced by environmental factors, such as diet, health, body composition and geographic residence. An understanding of these changes will lead to unravelling the adaptation of milk to the environment and its impact on the infant. In terms of the promotion of breastfeeding, health economics and epidemiology is instrumental in shaping public health policy and identifying barriers to breastfeeding. Further, basic research is imperative in order to design evidence-based interventions to improve both breastfeeding duration and women's breastfeeding experience.

Cambodia --- milk metabolomics --- galactogogues --- adequate intake --- postnatal outcomes --- cytomegalovirus --- midwifery --- milk synthesis --- chromatography --- protein --- lactoferrin --- human lactation --- ultrasound skinfolds --- breastfed infants --- knowledge --- pregnancy --- casein --- SEA --- maternal factors --- ethnicity --- post-partum distress --- bottle --- composition --- feeding --- co-sleeping --- passive immunity --- glycerophosphocholine --- anthropometrics --- antimicrobial proteins --- professional support --- mothers of preterm infants --- responsive feeding --- lactating women --- peptidomics --- triiodothyronine --- preterm --- mother–infant physical contact --- expressing --- preterm infant --- appetite regulation --- justification of supplementation --- body composition --- zinc supplementation --- antibodies --- antisecretory factor --- proteolysis --- enteral nutrition --- Ecuador --- growth factors --- maternal responsiveness --- maternal wellbeing --- nipple shield --- microbiome --- maternal distress --- sodium --- thyroid --- maternal diet --- thyroxine --- IgA --- caesarean section --- raw breast milk --- colostrum --- fatty acids --- breast milk --- immune cells --- metabolites --- PEA --- premature --- mode of delivery --- endocannabinoids --- lipids --- practice --- fat synthesis --- attitudes --- feeding cues --- infant --- Docosahexaenoic acid --- Arachidonic acid --- GDM --- milk-acquired infections --- zinc deficiency --- ICP-OES --- social support --- infants --- omega-6 fatty acids --- infant health --- HGF --- omega-3 fatty acids --- OEA --- leptin --- milk metabolites --- Canada --- mother–infant interaction --- NMR spectroscopy --- lipidomics --- infection --- breastfeeding support --- prematurity --- phosphocholine --- immunity --- Quito --- sex-specificity --- choline --- paternal role --- inflammation --- docosahexaenoic acid --- partner support --- proximal care --- thyroid antibodies --- adipokines --- calculated daily intakes --- candida --- proton nuclear magnetic resonance --- N-acylethanolamines --- milk intake --- whey --- bioelectrical impedance spectroscopy --- breastfeeding --- n-6 and n-3 polyunsaturated fatty acid --- babywearing --- milk composition --- breastmilk --- obesity --- lactation --- infant growth --- formula supplementation --- early life nutrition --- adiponectin --- milk cells --- potassium --- human milk --- long-chain polyunsaturated fatty acids --- Andean region --- Ireland --- mass spectrometry --- geographical location --- diet --- dietary recommendations --- TGF-? --- ion selective electrode --- plasma zinc --- barriers --- infant feeding --- human milk composition --- Breastfeeding

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Supporting initiation, development and resolution of appropriate immune responses is key to survival. Many nutrients and dietary components have been purported to have a role in supporting optimal immune function. This is vital throughout the life course, from the development and programming of the immune system in early life, to supporting immunity and reducing chronic inflammation in older people. In this special issue of Nutrients, we examine the evidence for the role of diet and dietary components in promoting protective immunity.

immunonutrition --- supplementation --- superoxide dismutase (SOD) --- fermented milk --- selenocysteine --- dendritic cells --- lipoxygenase (LOX) --- chronic inflammatory conditions --- formulation --- immune system --- cytokines --- skeletal muscle --- zinc --- non-digestible carbohydrates --- Toll-like receptor --- carbohydrates --- fiber --- lymphocytes --- antibody --- infants --- liver --- macrophage --- inflammatory process --- probiotic --- plant --- older people --- gut barrier --- infection --- amino acids --- gut --- T helper 1 (Th1) --- immunity --- T cells --- bioactive peptide --- inhibitor of kappa kinase (IKK) --- inflammation --- adhesion molecules --- leukocytes --- human milk oligosaccharides --- vitamin D --- food structure --- vitamin E --- mitogen-activated protein Kinase (MAPK) --- gut microbiota --- weaning --- homeostasis --- intestinal immune system --- extra-cellular signal regulated kinases (ERK) --- cyclooxygenase (COX) --- oxidative stress --- life course --- polyphenols --- oligosaccharides --- micronutrients --- Th17 --- obesity --- tolerance --- arachidonic acid --- growth factors --- anti-inflammation --- age-related immunity --- prebiotic --- biomarker --- microbiome --- functional foods --- immunosenescence --- nutrition --- molecular mechanisms --- metabolism --- macronutrients --- toll-like receptor 4 --- sepsis --- nutrition guidelines --- microbiota --- immunomodulation --- inflammatory markers --- elderly --- Th1/Th17 response --- adults --- reactive oxygen species (ROS) --- anorexia nervosa --- macrophages --- autoimmune diseases --- fatty acids --- T cell --- Treg --- breast milk --- nitric oxide synthase (NOS) --- chemokines --- anti-tumorigenic --- metabolites --- deficiency --- protein hydrolysate --- nuclear factor kappa-light-chain-enhancer of activated B cells (NF-?B) --- cancer