IGEM:PennState/Labbook/Nimrah Ahmed/2008/05/28: Difference between revisions

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(Autocreate 2008/05/28 Entry for IGEM:PennState/Labbook/Nimrah_Ahmed)
 
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==Entry title==
==PPAR & Thalates==
* Insert content here...
*Reference material on CMS. Lots of it.
 
Briefly:
 
*Peroxisomes are subcellular organelles, found in
most animal cells, that perform diverse metabolic
functions, including H2O2-derived respiration, boxidation
of fatty acids, and cholesterol metabolism
(Lock et al., 1989).
 
 
*Peroxisome proliferator
chemicals (PP) are a large class of structurally
dissimilar industrial and pharmaceutical products
that were originally identified as inducers of
peroxisomes in the livers of exposed mice and
rats.
 
*A subset of nuclear receptor superfamily members
called peroxisome proliferator-activated receptors
(PPAR) play pivotal roles in mediating
many, if not all, of the adaptive consequences of
PP exposure. PP activate PPAR in most cases by
binding directly to the receptor, leading to the
altered regulation of genes involved in lipid
metabolism and peroxisome proliferation, as well
as genes involved in determining cell fate (Corton
et al., 2000).





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PPAR & Thalates

  • Reference material on CMS. Lots of it.

Briefly:

  • Peroxisomes are subcellular organelles, found in

most animal cells, that perform diverse metabolic functions, including H2O2-derived respiration, boxidation of fatty acids, and cholesterol metabolism (Lock et al., 1989).


  • Peroxisome proliferator

chemicals (PP) are a large class of structurally dissimilar industrial and pharmaceutical products that were originally identified as inducers of peroxisomes in the livers of exposed mice and rats.

  • A subset of nuclear receptor superfamily members

called peroxisome proliferator-activated receptors (PPAR) play pivotal roles in mediating many, if not all, of the adaptive consequences of PP exposure. PP activate PPAR in most cases by binding directly to the receptor, leading to the altered regulation of genes involved in lipid metabolism and peroxisome proliferation, as well as genes involved in determining cell fate (Corton et al., 2000).