Not exact matches
Building upon their earlier research on the biology of fat
metabolism, Joslin scientists discovered that microRNAs - small RNA molecules that play important
roles in regulation in many types of tissue — play a major
role in the distribution and determination of fat cells and whole body
metabolism.
The Lazar lab has been working on HDAC3 for over a decade, focusing on the pivotal
role of this enzyme
in hormone - mediated
regulation of gene expression and
metabolism.
In a non-disease state, TDP - 43 is an important protein involved in various aspects of the metabolism of RNA, a molecule essential in various biological roles in the regulation and expression of gene
In a non-disease state, TDP - 43 is an important protein involved
in various aspects of the metabolism of RNA, a molecule essential in various biological roles in the regulation and expression of gene
in various aspects of the
metabolism of RNA, a molecule essential
in various biological roles in the regulation and expression of gene
in various biological
roles in the regulation and expression of gene
in the
regulation and expression of genes.
He led the Glaxo program on orphan nuclear receptors that uncovered their
role in regulation of human
metabolism and was co-discoverer of obeticholic acid, a breakthrough medicine for liver diseases targeting FXR.
Also
in humans, both insulin and leptin play important
roles in regulation of energy
metabolism and body weight via central and peripheral effects.
The protein may play a
role in the
regulation of renal and intestinal calcium and phosphate transport, cell
metabolism, or cellular calcium / phosphate homeostasis.
HIF - 1 plays important
roles in critical aspects of cancer biology, including tumor angiogenesis,
regulation of glucose and energy
metabolism, invasion, and metastasis.
Edward Bullmore, UK Robert Dow, UK Garrett Fitzgerald, USA - Prostanoid biology and the
role of peripheral molecular clocks
in cardiovascular biology,
metabolism and aging Alex Phipps, UK - Oncology, Clinical Pharmacology, Biologics and Immunotherapy Patrick du Souich, Canada - Cytochrome P450, membrane carriers, disease, inflammation, rational use of drugs, clinical pharmacology David J. Webb, UK - hypertension, chronic kidney disease, endothelial function and dysfunction, arterial stiffness, health technology assessment, medicines
regulation Don Birkett, Australia - Clinical pharmacology / pharmacokinetics and drug utilisation
Finally, we generated a mouse model to assess the
role of PRCP
in NPY / AgRP neurons of the arcuate nucleus
in the
regulation of
metabolism.
EFAs or essential fatty acids play a very important
role in different body functions like cell maintenance, brain development, transportation of oxygen from the lungs to the bloodstream,
regulation of
metabolism and mood,
regulation of insulin sensitivity, as well as hormone production.
Water plays a key
role in metabolism and
regulation of your body's homeostatic mechanisms.
More than one hundred vitamin B6 - dependent enzymes have been identified, mostly involved
in amino acid metabolism: for oxygen transport via hemoglobin synthesis; in blood sugar regulation via conversion of stored carbohydrate to energy; in the development of the myelin sheath surrounding nerve cells; in the conversion of alphalinoleic acid to the essential long - chain fatty acid DHA; 28 and in the synthesis of neurotransmitters, phospholipids and sphingolipids, the vitamin niacin from tryptophan, and other vital metabolites.5 In addition to its role in enzyme reactions, B6 appears to moderate the action of some steroid hormones such as the glucocorticoid hormones, which in turn influence the metabolism of protein, carbohydrate and lipids.5, 9 B6 also is a potent antioxidant, rivaling carotenoids and vitamin E in its ability to quench reactive oxidants in the body.
in amino acid
metabolism: for oxygen transport via hemoglobin synthesis;
in blood sugar regulation via conversion of stored carbohydrate to energy; in the development of the myelin sheath surrounding nerve cells; in the conversion of alphalinoleic acid to the essential long - chain fatty acid DHA; 28 and in the synthesis of neurotransmitters, phospholipids and sphingolipids, the vitamin niacin from tryptophan, and other vital metabolites.5 In addition to its role in enzyme reactions, B6 appears to moderate the action of some steroid hormones such as the glucocorticoid hormones, which in turn influence the metabolism of protein, carbohydrate and lipids.5, 9 B6 also is a potent antioxidant, rivaling carotenoids and vitamin E in its ability to quench reactive oxidants in the body.
in blood sugar
regulation via conversion of stored carbohydrate to energy;
in the development of the myelin sheath surrounding nerve cells; in the conversion of alphalinoleic acid to the essential long - chain fatty acid DHA; 28 and in the synthesis of neurotransmitters, phospholipids and sphingolipids, the vitamin niacin from tryptophan, and other vital metabolites.5 In addition to its role in enzyme reactions, B6 appears to moderate the action of some steroid hormones such as the glucocorticoid hormones, which in turn influence the metabolism of protein, carbohydrate and lipids.5, 9 B6 also is a potent antioxidant, rivaling carotenoids and vitamin E in its ability to quench reactive oxidants in the body.
in the development of the myelin sheath surrounding nerve cells;
in the conversion of alphalinoleic acid to the essential long - chain fatty acid DHA; 28 and in the synthesis of neurotransmitters, phospholipids and sphingolipids, the vitamin niacin from tryptophan, and other vital metabolites.5 In addition to its role in enzyme reactions, B6 appears to moderate the action of some steroid hormones such as the glucocorticoid hormones, which in turn influence the metabolism of protein, carbohydrate and lipids.5, 9 B6 also is a potent antioxidant, rivaling carotenoids and vitamin E in its ability to quench reactive oxidants in the body.
in the conversion of alphalinoleic acid to the essential long - chain fatty acid DHA; 28 and
in the synthesis of neurotransmitters, phospholipids and sphingolipids, the vitamin niacin from tryptophan, and other vital metabolites.5 In addition to its role in enzyme reactions, B6 appears to moderate the action of some steroid hormones such as the glucocorticoid hormones, which in turn influence the metabolism of protein, carbohydrate and lipids.5, 9 B6 also is a potent antioxidant, rivaling carotenoids and vitamin E in its ability to quench reactive oxidants in the body.
in the synthesis of neurotransmitters, phospholipids and sphingolipids, the vitamin niacin from tryptophan, and other vital metabolites.5
In addition to its role in enzyme reactions, B6 appears to moderate the action of some steroid hormones such as the glucocorticoid hormones, which in turn influence the metabolism of protein, carbohydrate and lipids.5, 9 B6 also is a potent antioxidant, rivaling carotenoids and vitamin E in its ability to quench reactive oxidants in the body.
In addition to its
role in enzyme reactions, B6 appears to moderate the action of some steroid hormones such as the glucocorticoid hormones, which in turn influence the metabolism of protein, carbohydrate and lipids.5, 9 B6 also is a potent antioxidant, rivaling carotenoids and vitamin E in its ability to quench reactive oxidants in the body.
in enzyme reactions, B6 appears to moderate the action of some steroid hormones such as the glucocorticoid hormones, which
in turn influence the metabolism of protein, carbohydrate and lipids.5, 9 B6 also is a potent antioxidant, rivaling carotenoids and vitamin E in its ability to quench reactive oxidants in the body.
in turn influence the
metabolism of protein, carbohydrate and lipids.5, 9 B6 also is a potent antioxidant, rivaling carotenoids and vitamin E
in its ability to quench reactive oxidants in the body.
in its ability to quench reactive oxidants
in the body.
in the body.29
Arginine may also play a
role in the
regulation of fat
metabolism, perhaps through up -
regulation of mitochondrial and brown adipose tissue activity, improving our bodies» fat - burning capacities, which help maintain a healthy weight.
In just the past year, there have been several significant studies about magnesium's role in keeping your metabolism running like a well - oiled clock — specifically in terms of insulin sensitivity, glucose regulation, and protection from type 2 diabete
In just the past year, there have been several significant studies about magnesium's
role in keeping your metabolism running like a well - oiled clock — specifically in terms of insulin sensitivity, glucose regulation, and protection from type 2 diabete
in keeping your
metabolism running like a well - oiled clock — specifically
in terms of insulin sensitivity, glucose regulation, and protection from type 2 diabete
in terms of insulin sensitivity, glucose
regulation, and protection from type 2 diabetes.
Our circadian clock plays a major
role in metabolism, blood pressure
regulation, and hormone secretion.
It is incorporated into key enzymes involved
in several metabolic pathways implicated
in thyroid hormone
metabolism; additionally, it plays an antioxidant
role in the
regulation of the immune system.
Fats play a vital
role in not only energy production and fat
metabolism, but also
in hormone
regulation especially during dieting.Be sure to include some fats into your eating plan such as whole eggs, avocado, nuts (almonds and walnuts), natural peanut and almond butter and olive oil.
They play a significant
role in the
regulation of fat
metabolism, glucose, and insulin.
GLA plays a
role in hormone production, fat
metabolism and insulin
regulation.
The
role of leucine
in the
regulation of protein
metabolism.
These two conventional nutrients play a critical
role in our body's
regulation of oxygen
metabolism, and they are widely known for their
role in helping lower our risk of oxidative stress.
• Help regulate oxygen uses and energy production • Important
in nerve, muscle and cellular functions • Play a vital
role in cognitive function, including memory and mood • Involved
in regulation of
metabolism, body temperature, blood sugar and insulin control, thyroid function, carbohydrate
metabolism and control over hormonal processes • Lubricate joints and improve mineralization of bones • Help transport cholesterol • Improve digestion of the gut • Build the immune system and regulate inflammatory response • Can help direct the processes that stimulate fat breakdown and utilization • Helps regulate blood pressure
A Scientific Review: The
Role of Chromium in Insulin Resistance The Diabetes Educator 2004; Suppl: 2 — 14 Chromium is an essential mineral that appears to have a beneficial role in the regulation of insulin action and its effects on carbohydrate, protein and lipid metabol
Role of Chromium
in Insulin Resistance The Diabetes Educator 2004; Suppl: 2 — 14 Chromium is an essential mineral that appears to have a beneficial
role in the regulation of insulin action and its effects on carbohydrate, protein and lipid metabol
role in the
regulation of insulin action and its effects on carbohydrate, protein and lipid
metabolism.
The understanding of phytosterols and the
role of these lipids
in drug therapy such as cholesterol lowering drugs may provide molecular mechanisms that are involved
in the
regulation of cell Aβ clearance and
metabolism.
For example, KBs were recently reported to act as neuroprotective agents by raising ATP levels and reducing the production of reactive oxygen species
in neurological tissues, 80 together with increased mitochondrial biogenesis, which may help to enhance the regulation of synaptic function.80 Moreover, the increased synthesis of polyunsaturated fatty acids stimulated by a KD may have a role in the regulation of neuronal membrane excitability: it has been demonstrated, for example, that polyunsaturated fatty acids modulate the excitability of neurons by blocking voltage-gated sodium channels.81 Another possibility is that by reducing glucose metabolism, ketogenic diets may activate anticonvulsant mechanisms, as has been reported in a rat model.82 In addition, caloric restriction per se has been suggested to exert neuroprotective effects, including improved mitochondrial function, decreased oxidative stress and apoptosis, and inhibition of proinflammatory mediators, such as the cytokines tumour necrosis factor - α and interleukins.83 Although promising data have been collected (see below), at the present time the real clinical benefits of ketogenic diets in most neurological diseases remain largely speculative and uncertain, with the significant exception of its use in the treatment of convulsion disease
in neurological tissues, 80 together with increased mitochondrial biogenesis, which may help to enhance the
regulation of synaptic function.80 Moreover, the increased synthesis of polyunsaturated fatty acids stimulated by a KD may have a
role in the regulation of neuronal membrane excitability: it has been demonstrated, for example, that polyunsaturated fatty acids modulate the excitability of neurons by blocking voltage-gated sodium channels.81 Another possibility is that by reducing glucose metabolism, ketogenic diets may activate anticonvulsant mechanisms, as has been reported in a rat model.82 In addition, caloric restriction per se has been suggested to exert neuroprotective effects, including improved mitochondrial function, decreased oxidative stress and apoptosis, and inhibition of proinflammatory mediators, such as the cytokines tumour necrosis factor - α and interleukins.83 Although promising data have been collected (see below), at the present time the real clinical benefits of ketogenic diets in most neurological diseases remain largely speculative and uncertain, with the significant exception of its use in the treatment of convulsion disease
in the
regulation of neuronal membrane excitability: it has been demonstrated, for example, that polyunsaturated fatty acids modulate the excitability of neurons by blocking voltage-gated sodium channels.81 Another possibility is that by reducing glucose
metabolism, ketogenic diets may activate anticonvulsant mechanisms, as has been reported
in a rat model.82 In addition, caloric restriction per se has been suggested to exert neuroprotective effects, including improved mitochondrial function, decreased oxidative stress and apoptosis, and inhibition of proinflammatory mediators, such as the cytokines tumour necrosis factor - α and interleukins.83 Although promising data have been collected (see below), at the present time the real clinical benefits of ketogenic diets in most neurological diseases remain largely speculative and uncertain, with the significant exception of its use in the treatment of convulsion disease
in a rat model.82
In addition, caloric restriction per se has been suggested to exert neuroprotective effects, including improved mitochondrial function, decreased oxidative stress and apoptosis, and inhibition of proinflammatory mediators, such as the cytokines tumour necrosis factor - α and interleukins.83 Although promising data have been collected (see below), at the present time the real clinical benefits of ketogenic diets in most neurological diseases remain largely speculative and uncertain, with the significant exception of its use in the treatment of convulsion disease
In addition, caloric restriction per se has been suggested to exert neuroprotective effects, including improved mitochondrial function, decreased oxidative stress and apoptosis, and inhibition of proinflammatory mediators, such as the cytokines tumour necrosis factor - α and interleukins.83 Although promising data have been collected (see below), at the present time the real clinical benefits of ketogenic diets
in most neurological diseases remain largely speculative and uncertain, with the significant exception of its use in the treatment of convulsion disease
in most neurological diseases remain largely speculative and uncertain, with the significant exception of its use
in the treatment of convulsion disease
in the treatment of convulsion diseases.