1
However, the optimal strategy and target level for lipid reduction remain uncertain.
2
Char length, weight, age, condition factor and lipid content explained additional variance.
3
A new method to measure the activity of lipid-metabolizing enzymes is described.
4
Collectively, emerging data support an essential role of glucagon for lipid metabolism.
5
Conclusions: The results suggest an inverse relationship between lipid levels and AF.
1
Changes in heart lipids other than ceramide levels lead to cardiac toxicity.
2
This carbon-chain structure has one overriding consequence: lipids can't dissolve in water.
3
However, anionic lipids are common in both eukaryotic and prokaryotic cell membranes.
4
This effect of lipids and long-chain alcohols has so far remained unnoticed.
5
Conclusion: In addition to serum lipids, clinical variables contributed significantly to prediction.
6
Local vascular bioactive lipids might play a potential role in this context.
7
Thanks to their chemical relatedness, different lipids can dissolve in each other.
8
NPC1 deficiency leads to lysosomal accumulation of a broad range of lipids.
9
Lipidomics analysis validated multiple alterations in hepatic lipids resulting from ethanol treatment.
10
Plasma lipids and lipoproteins were measured at the end of each period.
11
Gangliosides are polar, sugar-containing lipids that are major constituents of neuronal membranes.
12
Macrophages specialize in removing lipids and debris present in the atherosclerotic plaque.
13
This was accompanied by changes in proteins and lipids characteristic of senescence.
14
Nerve membranes consist of an approximately equal mixture of lipids and proteins.
15
Cholesterol, phosphatidylethanolamine and phosphatidylcholine were the major lipids in these nervous tissues.
16
Chitosan, a dietary fiber, can regulate lipids with benefit on anthropometric parameters.
