World's Poultry Science Journal, ISSN 0043-9339, 9/2009, Volume 65, Issue 3, pp. 353 - 366
It has been about 80 years since Cu was first recognized as being important for maintenance of haemoglobin. Since that time requirement values have been...
Requirement | Environment | Lipid metabolism | Copper | Toxicity | toxicity | PHOSPHORUS RETENTION | AGRICULTURE, DAIRY & ANIMAL SCIENCE | RELATIVE BIOAVAILABILITY | BROILER PERFORMANCE | lipid metabolism | EGG CHOLESTEROL CONTENT | requirement | CUPRIC SULFATE PENTAHYDRATE | DEFICIENT CHICKS | LAYING DOMESTIC-FOWL | environment | MINERAL EXCRETION | copper | OXIDATIVE STABILITY | SUPPLEMENTAL COPPER
Requirement | Environment | Lipid metabolism | Copper | Toxicity | toxicity | PHOSPHORUS RETENTION | AGRICULTURE, DAIRY & ANIMAL SCIENCE | RELATIVE BIOAVAILABILITY | BROILER PERFORMANCE | lipid metabolism | EGG CHOLESTEROL CONTENT | requirement | CUPRIC SULFATE PENTAHYDRATE | DEFICIENT CHICKS | LAYING DOMESTIC-FOWL | environment | MINERAL EXCRETION | copper | OXIDATIVE STABILITY | SUPPLEMENTAL COPPER
Journal Article
Clinical Journal of the American Society of Nephrology, ISSN 1555-9041, 02/2011, Volume 6, Issue 2, pp. 257 - 264
Background and objectives Patients with advanced chronic kidney disease (CKD) are in positive phosphorus balance, but phosphorus levels are maintained in the...
MORTALITY | PHOSPHATE LEVELS | HYPERPHOSPHATEMIA | CALCIUM | GROWTH-FACTOR 23 | SECONDARY HYPERPARATHYROIDISM | RENAL-FAILURE | UROLOGY & NEPHROLOGY | MINERAL METABOLISM | PARATHYROID-HORMONE | FGF23 | Kidney Diseases - physiopathology | Dietary Proteins - administration & dosage | Biomarkers - urine | Indiana | Humans | Middle Aged | Homeostasis | Male | Parathyroid Hormone - blood | Phosphorus, Dietary - blood | Meat | Calcium - blood | Dietary Proteins - metabolism | Diet, Vegetarian | Time Factors | Female | Plant Proteins - metabolism | Phosphorus, Dietary - urine | Kidney Diseases - metabolism | Glomerular Filtration Rate | Linear Models | Phosphorus, Dietary - metabolism | Biomarkers - blood | Cross-Over Studies | Fibroblast Growth Factors - blood | Plant Proteins - administration & dosage | Aged | Chronic Disease | Original
MORTALITY | PHOSPHATE LEVELS | HYPERPHOSPHATEMIA | CALCIUM | GROWTH-FACTOR 23 | SECONDARY HYPERPARATHYROIDISM | RENAL-FAILURE | UROLOGY & NEPHROLOGY | MINERAL METABOLISM | PARATHYROID-HORMONE | FGF23 | Kidney Diseases - physiopathology | Dietary Proteins - administration & dosage | Biomarkers - urine | Indiana | Humans | Middle Aged | Homeostasis | Male | Parathyroid Hormone - blood | Phosphorus, Dietary - blood | Meat | Calcium - blood | Dietary Proteins - metabolism | Diet, Vegetarian | Time Factors | Female | Plant Proteins - metabolism | Phosphorus, Dietary - urine | Kidney Diseases - metabolism | Glomerular Filtration Rate | Linear Models | Phosphorus, Dietary - metabolism | Biomarkers - blood | Cross-Over Studies | Fibroblast Growth Factors - blood | Plant Proteins - administration & dosage | Aged | Chronic Disease | Original
Journal Article
Clinical Journal of the American Society of Nephrology, ISSN 1555-9041, 03/2010, Volume 5, Issue 3, pp. 519 - 530
In individuals with chronic kidney disease, high dietary phosphorus (P) burden may worsen hyperparathyroidism and renal osteodystrophy, promote vascular...
VITAMIN-D | FOOD-ADDITIVES | DIALYSIS PATIENTS | HIDDEN PHOSPHORUS | HEMODIALYSIS-PATIENTS | SECONDARY HYPERPARATHYROIDISM | UROLOGY & NEPHROLOGY | MINERAL METABOLISM | PROTEIN-INTAKE | SERUM PHOSPHORUS | CLINICAL-OUTCOMES | Risk Assessment | Humans | Risk Factors | Hyperphosphatemia - metabolism | Phosphorus, Dietary - adverse effects | Phosphorus, Dietary - metabolism | Treatment Outcome | Combined Modality Therapy | Food Additives - adverse effects | Dietary Proteins - metabolism | Hyperphosphatemia - etiology | Counseling | Phosphorus, Dietary - administration & dosage | Kidney Diseases - therapy | Kidney Diseases - complications | Nutritional Status | Dietary Proteins - adverse effects | Hyperphosphatemia - therapy | Chelating Agents - therapeutic use | Chronic Disease | Kidney Diseases - metabolism | Renal Dialysis
VITAMIN-D | FOOD-ADDITIVES | DIALYSIS PATIENTS | HIDDEN PHOSPHORUS | HEMODIALYSIS-PATIENTS | SECONDARY HYPERPARATHYROIDISM | UROLOGY & NEPHROLOGY | MINERAL METABOLISM | PROTEIN-INTAKE | SERUM PHOSPHORUS | CLINICAL-OUTCOMES | Risk Assessment | Humans | Risk Factors | Hyperphosphatemia - metabolism | Phosphorus, Dietary - adverse effects | Phosphorus, Dietary - metabolism | Treatment Outcome | Combined Modality Therapy | Food Additives - adverse effects | Dietary Proteins - metabolism | Hyperphosphatemia - etiology | Counseling | Phosphorus, Dietary - administration & dosage | Kidney Diseases - therapy | Kidney Diseases - complications | Nutritional Status | Dietary Proteins - adverse effects | Hyperphosphatemia - therapy | Chelating Agents - therapeutic use | Chronic Disease | Kidney Diseases - metabolism | Renal Dialysis
Journal Article
Clinical Journal of the American Society of Nephrology, ISSN 1555-9041, 01/2010, Volume 5, Issue Supplement 1, pp. S23 - S30
This brief review focuses on calcium balance and homeostasis and their relationship to dietary calcium intake and calcium supplementation in healthy subjects...
SUPPLEMENTATION | MORTALITY | HOMEOSTASIS | BONE-MINERAL DENSITY | UROLOGY & NEPHROLOGY | PARATHYROID-HORMONE | CALCIFICATION | PHOSPHATE BINDERS | CHRONIC KIDNEY-DISEASE | ADOLESCENT | CHILDREN | Calcium - metabolism | Hypocalcemia - metabolism | Humans | Homeostasis | Hyperphosphatemia - metabolism | Kidney Diseases - drug therapy | Hypercalcemia - metabolism | Metabolic Diseases - drug therapy | Hypophosphatemia - metabolism | Intestines - metabolism | Nutrition Policy | Kidney - metabolism | Phosphates - metabolism | Animals | Metabolic Diseases - metabolism | Phosphorus - metabolism | Bone and Bones - metabolism | Calcium, Dietary - metabolism | Vitamin D - therapeutic use | Bone Remodeling | Chronic Disease | Dietary Supplements | Kidney Diseases - metabolism
SUPPLEMENTATION | MORTALITY | HOMEOSTASIS | BONE-MINERAL DENSITY | UROLOGY & NEPHROLOGY | PARATHYROID-HORMONE | CALCIFICATION | PHOSPHATE BINDERS | CHRONIC KIDNEY-DISEASE | ADOLESCENT | CHILDREN | Calcium - metabolism | Hypocalcemia - metabolism | Humans | Homeostasis | Hyperphosphatemia - metabolism | Kidney Diseases - drug therapy | Hypercalcemia - metabolism | Metabolic Diseases - drug therapy | Hypophosphatemia - metabolism | Intestines - metabolism | Nutrition Policy | Kidney - metabolism | Phosphates - metabolism | Animals | Metabolic Diseases - metabolism | Phosphorus - metabolism | Bone and Bones - metabolism | Calcium, Dietary - metabolism | Vitamin D - therapeutic use | Bone Remodeling | Chronic Disease | Dietary Supplements | Kidney Diseases - metabolism
Journal Article
Clinical Journal of the American Society of Nephrology, ISSN 1555-9041, 02/2011, Volume 6, Issue 2, pp. 383 - 389
Little is known about the influence of dietary phosphate intake on fibroblast growth factor-23 (FGF23) and its subsequent effects on vitamin D levels. This...
MORTALITY | FGF-23 | HYPERPHOSPHATEMIA | D METABOLISM | FIBROBLAST-GROWTH-FACTOR-23 | UROLOGY & NEPHROLOGY | HEMODIALYSIS | CHRONIC KIDNEY-DISEASE | HEALTHY-MEN | FGF23 | SERUM PHOSPHORUS | Biomarkers - metabolism | Humans | Male | Phosphorus, Dietary - metabolism | Parathyroid Hormone - blood | Phosphorus, Dietary - blood | Circadian Rhythm | Fibroblast Growth Factors - urine | Vitamin D - blood | Calcium, Dietary - urine | Cross-Over Studies | Young Adult | Fibroblast Growth Factors - metabolism | Netherlands | Fibroblast Growth Factors - blood | Adult | Female | Vitamin D - analogs & derivatives | Calcium, Dietary - metabolism | Phosphorus, Dietary - urine | Calcium, Dietary - blood | Original
MORTALITY | FGF-23 | HYPERPHOSPHATEMIA | D METABOLISM | FIBROBLAST-GROWTH-FACTOR-23 | UROLOGY & NEPHROLOGY | HEMODIALYSIS | CHRONIC KIDNEY-DISEASE | HEALTHY-MEN | FGF23 | SERUM PHOSPHORUS | Biomarkers - metabolism | Humans | Male | Phosphorus, Dietary - metabolism | Parathyroid Hormone - blood | Phosphorus, Dietary - blood | Circadian Rhythm | Fibroblast Growth Factors - urine | Vitamin D - blood | Calcium, Dietary - urine | Cross-Over Studies | Young Adult | Fibroblast Growth Factors - metabolism | Netherlands | Fibroblast Growth Factors - blood | Adult | Female | Vitamin D - analogs & derivatives | Calcium, Dietary - metabolism | Phosphorus, Dietary - urine | Calcium, Dietary - blood | Original
Journal Article
Kidney International, ISSN 0085-2538, 02/2017, Volume 91, Issue 2, pp. 324 - 337
The kidney controls systemic calcium and phosphate levels and disturbances of its control mechanisms can lead to a variety of diseases. The insulin-sensitizing...
phosphate | calcium | mineral metabolism | FGF23 | obesity | FIBROSIS | BONE-MINERAL DENSITY | ALBUMINURIA | INSULIN SENSITIVITY | DEFICIENCY | METABOLISM | IN-VIVO | GROWTH | UROLOGY & NEPHROLOGY | MICE | CHRONIC KIDNEY-DISEASE | Kidney - pathology | Spine - metabolism | Homeostasis | Male | Phosphorus, Dietary - blood | Calcium, Dietary - urine | Kidney - metabolism | Transfection | Adiponectin - genetics | Phosphates - urine | Adiponectin - deficiency | Madin Darby Canine Kidney Cells | Phosphates - blood | Adiponectin - metabolism | Hormones - blood | Kidney Tubules - metabolism | Phosphorus, Dietary - urine | Calcium, Dietary - blood | Femur - metabolism | Genotype | Phosphorus, Dietary - metabolism | Glucuronidase - blood | Mice, Knockout | Renal Elimination | Collagen - metabolism | Biomechanical Phenomena | Phenotype | Phosphates - metabolism | Animals | Glucuronidase - genetics | Fibroblast Growth Factors - blood | Dogs | Fibrosis | Calcium, Dietary - metabolism | Osteogenesis
phosphate | calcium | mineral metabolism | FGF23 | obesity | FIBROSIS | BONE-MINERAL DENSITY | ALBUMINURIA | INSULIN SENSITIVITY | DEFICIENCY | METABOLISM | IN-VIVO | GROWTH | UROLOGY & NEPHROLOGY | MICE | CHRONIC KIDNEY-DISEASE | Kidney - pathology | Spine - metabolism | Homeostasis | Male | Phosphorus, Dietary - blood | Calcium, Dietary - urine | Kidney - metabolism | Transfection | Adiponectin - genetics | Phosphates - urine | Adiponectin - deficiency | Madin Darby Canine Kidney Cells | Phosphates - blood | Adiponectin - metabolism | Hormones - blood | Kidney Tubules - metabolism | Phosphorus, Dietary - urine | Calcium, Dietary - blood | Femur - metabolism | Genotype | Phosphorus, Dietary - metabolism | Glucuronidase - blood | Mice, Knockout | Renal Elimination | Collagen - metabolism | Biomechanical Phenomena | Phenotype | Phosphates - metabolism | Animals | Glucuronidase - genetics | Fibroblast Growth Factors - blood | Dogs | Fibrosis | Calcium, Dietary - metabolism | Osteogenesis
Journal Article
Seminars in Nephrology, ISSN 0270-9295, 2013, Volume 33, Issue 2, pp. 180 - 190
Summary Phosphorus retention occurs from higher dietary phosphorus intake relative to its renal excretion or dialysis removal. In the gastrointestinal tract...
Nephrology | preservatives | chronic kidney disease | enhanced food | phosphorus binder | cooking | digestibility | food processing | Dietary phosphorus | Preservatives | Cooking | Enhanced food | Phosphorus binder | Chronic kidney disease | Food processing | Digestibility | SERUM PHOSPHATE | PROTEIN INTAKE | DIALYSIS PATIENTS | METABOLISM | PHOSPHATE HOMEOSTASIS | HYPERPHOSPHATEMIA | GROWTH-FACTOR 23 | HEMODIALYSIS-PATIENTS | UROLOGY & NEPHROLOGY | CKD | STAGE RENAL-DISEASE | Phosphorus Metabolism Disorders - metabolism | Humans | Phosphorus Metabolism Disorders - etiology | Hyperphosphatemia - metabolism | Phosphorus, Dietary - metabolism | Renal Insufficiency, Chronic - complications | Food Preservatives - metabolism | Phosphates - metabolism | Hyperphosphatemia - etiology | Diet Therapy | Hyperphosphatemia - therapy | Chelating Agents - therapeutic use | Phosphorus Metabolism Disorders - therapy | Patient Education as Topic | phosphorus-binder | Chronic Kidney Disease
Nephrology | preservatives | chronic kidney disease | enhanced food | phosphorus binder | cooking | digestibility | food processing | Dietary phosphorus | Preservatives | Cooking | Enhanced food | Phosphorus binder | Chronic kidney disease | Food processing | Digestibility | SERUM PHOSPHATE | PROTEIN INTAKE | DIALYSIS PATIENTS | METABOLISM | PHOSPHATE HOMEOSTASIS | HYPERPHOSPHATEMIA | GROWTH-FACTOR 23 | HEMODIALYSIS-PATIENTS | UROLOGY & NEPHROLOGY | CKD | STAGE RENAL-DISEASE | Phosphorus Metabolism Disorders - metabolism | Humans | Phosphorus Metabolism Disorders - etiology | Hyperphosphatemia - metabolism | Phosphorus, Dietary - metabolism | Renal Insufficiency, Chronic - complications | Food Preservatives - metabolism | Phosphates - metabolism | Hyperphosphatemia - etiology | Diet Therapy | Hyperphosphatemia - therapy | Chelating Agents - therapeutic use | Phosphorus Metabolism Disorders - therapy | Patient Education as Topic | phosphorus-binder | Chronic Kidney Disease
Journal Article
PLoS ONE, ISSN 1932-6203, 11/2013, Volume 8, Issue 11, p. e79721
High phosphate intake is known to aggravate renal osteodystrophy along various pathogenetic pathways. Recent studies have raised the possibility that...
TARGET | OSTEOCYTES | MINERAL DENSITY | PTH | MULTIDISCIPLINARY SCIENCES | GENE-EXPRESSION | PARATHYROID-HORMONE | FRACTURES | RENAL OSTEODYSTROPHY | WNT | FAILURE | Bone and Bones - pathology | Body Weight | Blood Chemical Analysis | Osteocytes - metabolism | Rats | Male | Phosphorus, Dietary - metabolism | Bone Morphogenetic Proteins - blood | Gene Expression Profiling | Bone Diseases - metabolism | Genetic Markers | Renal Insufficiency, Chronic - complications | Bone Diseases - etiology | Bone Morphogenetic Proteins - metabolism | Phosphates - metabolism | Animals | Bone and Bones - metabolism | Osteoblasts - metabolism | Disease Models, Animal | Phosphates | Medical research | Chronic kidney failure | Parathyroid hormone | Medicine, Experimental | Research | Gene expression | Fibroblast growth factor | Dickkopf-1 gene | Nephrology | Renal osteodystrophy | Calcium | Fibroblast growth factor 23 | Pathogenesis | SOST protein | Bone diseases | Parathyroidectomy | Bone surgery | Signal transduction | Biomedical materials | Bone growth | Calcium (blood) | Nephrectomy | Phosphate | Rodents | Fibroblasts | Biocompatibility | Bone density | Growth factors | Parathyroid | Creatinine | Excretion | Internal medicine | Research & development--R&D | Committees | Dietary intake | Bone turnover | Disease control | Medicine | Signaling | Diet | Osteodystrophy | Optimal control | Hypoparathyroidism | Hyperphosphatemia | Kidney diseases | Bone | Dkk1 protein | Osteogenesis | Apoptosis | Research & development | R&D
TARGET | OSTEOCYTES | MINERAL DENSITY | PTH | MULTIDISCIPLINARY SCIENCES | GENE-EXPRESSION | PARATHYROID-HORMONE | FRACTURES | RENAL OSTEODYSTROPHY | WNT | FAILURE | Bone and Bones - pathology | Body Weight | Blood Chemical Analysis | Osteocytes - metabolism | Rats | Male | Phosphorus, Dietary - metabolism | Bone Morphogenetic Proteins - blood | Gene Expression Profiling | Bone Diseases - metabolism | Genetic Markers | Renal Insufficiency, Chronic - complications | Bone Diseases - etiology | Bone Morphogenetic Proteins - metabolism | Phosphates - metabolism | Animals | Bone and Bones - metabolism | Osteoblasts - metabolism | Disease Models, Animal | Phosphates | Medical research | Chronic kidney failure | Parathyroid hormone | Medicine, Experimental | Research | Gene expression | Fibroblast growth factor | Dickkopf-1 gene | Nephrology | Renal osteodystrophy | Calcium | Fibroblast growth factor 23 | Pathogenesis | SOST protein | Bone diseases | Parathyroidectomy | Bone surgery | Signal transduction | Biomedical materials | Bone growth | Calcium (blood) | Nephrectomy | Phosphate | Rodents | Fibroblasts | Biocompatibility | Bone density | Growth factors | Parathyroid | Creatinine | Excretion | Internal medicine | Research & development--R&D | Committees | Dietary intake | Bone turnover | Disease control | Medicine | Signaling | Diet | Osteodystrophy | Optimal control | Hypoparathyroidism | Hyperphosphatemia | Kidney diseases | Bone | Dkk1 protein | Osteogenesis | Apoptosis | Research & development | R&D
Journal Article
Meat Science, ISSN 0309-1740, 07/2015, Volume 105, pp. 75 - 80
The impact of meat cuts (nine muscles and liver) and thermal processing on selected mineral (potassium, sodium, phosphorus, magnesium, zinc, iron, including...
Heme iron | Holstein–Friesian cattle breed | Iron | Beef | Zinc | Macrominerals | Holstein-Friesian cattle breed | RED MEAT | FOOD SCIENCE & TECHNOLOGY | STEERS FED PASTURE | HEME-IRON | NONHEME-IRON | COENZYME Q | TRACE-ELEMENTS | COOKED MEATS | COOKING | NW SPAIN | MUSCLES | Iron, Dietary - analysis | Abattoirs | Cooking | Heme - metabolism | Nutritive Value | Zinc - metabolism | Humans | Potassium, Dietary - analysis | Male | Muscle, Skeletal - metabolism | Zinc - analysis | Cattle | Muscle, Skeletal - chemistry | Potassium, Dietary - metabolism | Poland | Sodium, Dietary - metabolism | Hot Temperature - adverse effects | Meat - analysis | Liver - metabolism | Heme - analysis | Magnesium - metabolism | Phosphorus, Dietary - metabolism | Liver - chemistry | Iron, Dietary - metabolism | Animals | Magnesium - analysis | Animals, Inbred Strains | Sodium, Dietary - analysis | Phosphorus, Dietary - analysis
Heme iron | Holstein–Friesian cattle breed | Iron | Beef | Zinc | Macrominerals | Holstein-Friesian cattle breed | RED MEAT | FOOD SCIENCE & TECHNOLOGY | STEERS FED PASTURE | HEME-IRON | NONHEME-IRON | COENZYME Q | TRACE-ELEMENTS | COOKED MEATS | COOKING | NW SPAIN | MUSCLES | Iron, Dietary - analysis | Abattoirs | Cooking | Heme - metabolism | Nutritive Value | Zinc - metabolism | Humans | Potassium, Dietary - analysis | Male | Muscle, Skeletal - metabolism | Zinc - analysis | Cattle | Muscle, Skeletal - chemistry | Potassium, Dietary - metabolism | Poland | Sodium, Dietary - metabolism | Hot Temperature - adverse effects | Meat - analysis | Liver - metabolism | Heme - analysis | Magnesium - metabolism | Phosphorus, Dietary - metabolism | Liver - chemistry | Iron, Dietary - metabolism | Animals | Magnesium - analysis | Animals, Inbred Strains | Sodium, Dietary - analysis | Phosphorus, Dietary - analysis
Journal Article
Journal of Animal Science, ISSN 0021-8812, 10/2015, Volume 93, Issue 10, pp. 4808 - 4818
Two experiments were conducted to determine the effects of phytate, phytase, fiber, and soybean oil on apparent total tract digestibility (ATTD) and...
Phytase | Soybean oil | Phytate | Calcium digestibility | Fiber | Fish meal | INTESTINAL-MUCOSA | fiber | AGRICULTURE, DAIRY & ANIMAL SCIENCE | WEANLING PIGS | soybean oil | calcium digestibility | ENERGY CONCENTRATION | phytate | fish meal | phytase | CHAIN FATTY-ACIDS | AMINO-ACIDS | DIETARY FIBER | PHYTIC ACID | ABSORPTION | CORN COPRODUCTS | ILEAL DIGESTIBILITY | Fish Products - analysis | Dietary Fiber - pharmacology | Digestion - drug effects | Phytic Acid - pharmacology | Calcium - metabolism | Dietary Fiber - metabolism | Phosphorus, Dietary - metabolism | 6-Phytase - pharmacology | Animal Nutritional Physiological Phenomena - drug effects | Soybean Oil - metabolism | Gastrointestinal Tract - metabolism | Soybean Oil - pharmacology | Swine - physiology | Animals | Animal Feed - analysis | Diet | Phytic Acid - metabolism | Phosphorus - metabolism | 6-Phytase - metabolism | Calcium, Dietary - metabolism | Feces | Zea mays - metabolism | Physiological aspects | Animal feeding and feeds | Swine | Analysis
Phytase | Soybean oil | Phytate | Calcium digestibility | Fiber | Fish meal | INTESTINAL-MUCOSA | fiber | AGRICULTURE, DAIRY & ANIMAL SCIENCE | WEANLING PIGS | soybean oil | calcium digestibility | ENERGY CONCENTRATION | phytate | fish meal | phytase | CHAIN FATTY-ACIDS | AMINO-ACIDS | DIETARY FIBER | PHYTIC ACID | ABSORPTION | CORN COPRODUCTS | ILEAL DIGESTIBILITY | Fish Products - analysis | Dietary Fiber - pharmacology | Digestion - drug effects | Phytic Acid - pharmacology | Calcium - metabolism | Dietary Fiber - metabolism | Phosphorus, Dietary - metabolism | 6-Phytase - pharmacology | Animal Nutritional Physiological Phenomena - drug effects | Soybean Oil - metabolism | Gastrointestinal Tract - metabolism | Soybean Oil - pharmacology | Swine - physiology | Animals | Animal Feed - analysis | Diet | Phytic Acid - metabolism | Phosphorus - metabolism | 6-Phytase - metabolism | Calcium, Dietary - metabolism | Feces | Zea mays - metabolism | Physiological aspects | Animal feeding and feeds | Swine | Analysis
Journal Article
Food Chemistry, ISSN 0308-8146, 08/2016, Volume 205, pp. 289 - 296
To analyze the influence of dietary phosphorus (P) levels on meat quality and lipid metabolism, a 42-day feeding experiment (P deficient group; normal group;...
Broiler chickens | Lipid metabolism | Phosphorus levels | Meat quality | FATTY-ACID-COMPOSITION | FOOD SCIENCE & TECHNOLOGY | MUSCLE | ACTIVATED-PROTEIN-KINASE | DIGESTION | IN-VITRO | NUTRITION & DIETETICS | INTRAMUSCULAR FAT | LIPOGENESIS | CHEMISTRY, APPLIED | EXPRESSION | Chickens - metabolism | Animals | Animal Feed - analysis | Meat - analysis | Phosphorus, Dietary - metabolism | Fatty Acids - metabolism | Lipid Metabolism - physiology | Diet - veterinary | Physiological aspects | Meat
Broiler chickens | Lipid metabolism | Phosphorus levels | Meat quality | FATTY-ACID-COMPOSITION | FOOD SCIENCE & TECHNOLOGY | MUSCLE | ACTIVATED-PROTEIN-KINASE | DIGESTION | IN-VITRO | NUTRITION & DIETETICS | INTRAMUSCULAR FAT | LIPOGENESIS | CHEMISTRY, APPLIED | EXPRESSION | Chickens - metabolism | Animals | Animal Feed - analysis | Meat - analysis | Phosphorus, Dietary - metabolism | Fatty Acids - metabolism | Lipid Metabolism - physiology | Diet - veterinary | Physiological aspects | Meat
Journal Article
Poultry Science, ISSN 0032-5791, 07/2018, Volume 97, Issue 7, pp. 2258 - 2266
In mammals, fibroblast growth factor 23 (FGF23) regulates phosphate homeostasis in kidney by binding alpha-Klotho, a coreceptor of FGF23. FGF23 mRNA is highly...
chicken | bone | dietary phosphorus | liver | FGF23 | VITAMIN-D | CELLS | AGRICULTURE, DAIRY & ANIMAL SCIENCE | ANTIBODY | METABOLISM | PHOSPHATE HOMEOSTASIS | FGF-23 | TISSUES | Amino Acid Sequence | Avian Proteins - metabolism | Liver - metabolism | RNA, Messenger - genetics | Gene Expression Regulation | Transcriptome | Fibroblast Growth Factors - genetics | Phosphorus, Dietary - metabolism | Random Allocation | RNA, Messenger - metabolism | Sequence Alignment - veterinary | Avian Proteins - chemistry | Chickens - metabolism | Fibroblast Growth Factors - metabolism | Gene Expression Profiling - veterinary | Animals | Base Sequence | Bone and Bones - metabolism | Chickens - genetics | Female | Mice | Avian Proteins - genetics
chicken | bone | dietary phosphorus | liver | FGF23 | VITAMIN-D | CELLS | AGRICULTURE, DAIRY & ANIMAL SCIENCE | ANTIBODY | METABOLISM | PHOSPHATE HOMEOSTASIS | FGF-23 | TISSUES | Amino Acid Sequence | Avian Proteins - metabolism | Liver - metabolism | RNA, Messenger - genetics | Gene Expression Regulation | Transcriptome | Fibroblast Growth Factors - genetics | Phosphorus, Dietary - metabolism | Random Allocation | RNA, Messenger - metabolism | Sequence Alignment - veterinary | Avian Proteins - chemistry | Chickens - metabolism | Fibroblast Growth Factors - metabolism | Gene Expression Profiling - veterinary | Animals | Base Sequence | Bone and Bones - metabolism | Chickens - genetics | Female | Mice | Avian Proteins - genetics
Journal Article
Journal of Steroid Biochemistry and Molecular Biology, ISSN 0960-0760, 03/2017, Volume 167, pp. 33 - 38
An association between excessive sugar consumption and dental decay, particularly in children, has been well-established. In this study we have analyzed...
Inflammation | Diet | Phosphate | Dental decay | Sugar | OLD | BIOCHEMISTRY & MOLECULAR BIOLOGY | ORAL-HEALTH | CARIES | EROSION | CHILDREN | PHOSPHATE TOXICITY | MATRIX METALLOPROTEINASES | CALCIUM | ENDOCRINOLOGY & METABOLISM | INSIGHTS | Dental Caries - metabolism | Humans | Male | Phosphorus, Dietary - metabolism | Vascular Endothelial Growth Factor A - metabolism | Energy Intake | Vitamins | Gingiva - metabolism | Matrix Metalloproteinase 9 - metabolism | Students | Saliva - metabolism | Adiponectin - metabolism | Female | Vitamin D - metabolism | Kuwait | Child | Cohort Studies | Medical policy | Dental caries | Medical colleges | Vitamin D | Calcifediol | Alfacalcidol | Vascular endothelial growth factor | Epidemiology | Phosphates | Endothelial growth factors | Analysis | Sex discrimination
Inflammation | Diet | Phosphate | Dental decay | Sugar | OLD | BIOCHEMISTRY & MOLECULAR BIOLOGY | ORAL-HEALTH | CARIES | EROSION | CHILDREN | PHOSPHATE TOXICITY | MATRIX METALLOPROTEINASES | CALCIUM | ENDOCRINOLOGY & METABOLISM | INSIGHTS | Dental Caries - metabolism | Humans | Male | Phosphorus, Dietary - metabolism | Vascular Endothelial Growth Factor A - metabolism | Energy Intake | Vitamins | Gingiva - metabolism | Matrix Metalloproteinase 9 - metabolism | Students | Saliva - metabolism | Adiponectin - metabolism | Female | Vitamin D - metabolism | Kuwait | Child | Cohort Studies | Medical policy | Dental caries | Medical colleges | Vitamin D | Calcifediol | Alfacalcidol | Vascular endothelial growth factor | Epidemiology | Phosphates | Endothelial growth factors | Analysis | Sex discrimination
Journal Article
Pflügers Archiv - European Journal of Physiology, ISSN 0031-6768, 4/2018, Volume 470, Issue 4, pp. 623 - 632
Hyperphosphatemia is a common condition in patients with chronic kidney disease (CKD) and can lead to bone disease, vascular calcification, and increased risks...
Sodium-phosphate cotransporters | Neurosciences | Receptors | Biomedicine | Human Physiology | MEPE | Molecular Medicine | Intestinal absorption | Uremia | Cell Biology | Apoptosis | VITAMIN-D | HOMEOSTASIS | PHYSIOLOGY | RATS | INORGANIC-PHOSPHATE | DEPENDENT PHOSPHATE | IN-VITRO | RENAL-FAILURE | ABSORPTION | CHRONIC KIDNEY-DISEASE | Rats, Wistar | Rats | Male | Phosphorus, Dietary - metabolism | Uremia - metabolism | Sodium-Phosphate Cotransporter Proteins, Type IIa - metabolism | Renal Insufficiency, Chronic - metabolism | Fibroblast Growth Factors - metabolism | Phosphates - metabolism | Animals | Parathyroid Hormone - metabolism | Homeostasis - physiology | Intestines - physiology | Phosphates | Physiological aspects | Fibroblast growth factors | Chronic kidney failure | Parathyroid hormone | Calcification (ectopic) | Fibroblast growth factor | Excretion | Calcium | Fibroblast growth factor 23 | Mucosa | Homeostasis | Dietary intake | Phosphoglycoprotein | Small intestine | Enterocytes | Pit1 protein | Jejunum | Sodium | Phosphate | Rodents | Hyperphosphatemia | Cardiovascular diseases | Parathyroid
Sodium-phosphate cotransporters | Neurosciences | Receptors | Biomedicine | Human Physiology | MEPE | Molecular Medicine | Intestinal absorption | Uremia | Cell Biology | Apoptosis | VITAMIN-D | HOMEOSTASIS | PHYSIOLOGY | RATS | INORGANIC-PHOSPHATE | DEPENDENT PHOSPHATE | IN-VITRO | RENAL-FAILURE | ABSORPTION | CHRONIC KIDNEY-DISEASE | Rats, Wistar | Rats | Male | Phosphorus, Dietary - metabolism | Uremia - metabolism | Sodium-Phosphate Cotransporter Proteins, Type IIa - metabolism | Renal Insufficiency, Chronic - metabolism | Fibroblast Growth Factors - metabolism | Phosphates - metabolism | Animals | Parathyroid Hormone - metabolism | Homeostasis - physiology | Intestines - physiology | Phosphates | Physiological aspects | Fibroblast growth factors | Chronic kidney failure | Parathyroid hormone | Calcification (ectopic) | Fibroblast growth factor | Excretion | Calcium | Fibroblast growth factor 23 | Mucosa | Homeostasis | Dietary intake | Phosphoglycoprotein | Small intestine | Enterocytes | Pit1 protein | Jejunum | Sodium | Phosphate | Rodents | Hyperphosphatemia | Cardiovascular diseases | Parathyroid
Journal Article