レサス・マカクは,ピオグリタゾンに反応する可逆性血管機能不全による代謝症候群を発症します
Xiuqin Zhang1, Rongli Zhang, Susanne Raab
1Institute of Molecular Medicine, Peking University, No.5 Yiheyuan Rd, Haidian District, Beijing 100871, China.
Circulation
|June 22, 2011
まとめ
メタボリックシンドローム (MetS) のコンポーネントは, metabolic と cardiovascular の問題をリンクして,一緒に追跡します. ピオグリタゾン治療は血管機能不全を逆転させ,共用メカニズムとMetSの早期介入をサポートしました.
科学分野:
- メタボリックと心臓血管研究
- 人間の病気の霊長類のモデル
- 薬理学的介入 薬理学的介入
背景:
- メタボリックシンドローム (MetS) は,肥満,高血圧,脂質不全,およびインスリン抵抗性を含む状態のクラスターです.
- MetSの根本的な病理生理学は,共有されたメカニズムであろうと,偶然の危険因子であろうと,依然として議論されている.
研究 の 目的:
- MetS発達の過程で代謝と心血管の要素の共出現を調査する.
- MetSと血管機能不全の間のメカニズム的なリンクを探求する.
- MetSにおけるピオグリタゾンの治療の可能性を評価する.
主な方法:
- MetSに罹患しやすい rhesus macaqueの18か月の特定とモニタリング.
- 流動媒介の膨張を含む代謝および心血管のパラメータの評価.
- MetS動物をPPARγアゴニストであるピオグリタゾンで治療する.
主要な成果:
- MetSの成分は, rhesus macaquesの疾患進行中に一緒に追跡された.
- MetSはフローメディエーションによる膨張の有意な障害と関連しており,血管機能不全を示唆しています.
- ピオグリタゾン治療は,不脂血症とインスリン抵抗性を改善し,血管機能を完全に回復させました.
結論:
- 共有された病理生理学的メカニズムは,メトス発症と心血管合併症の根底にある.
- MetSコンポーネントをターゲットにした早期介入は有益です.
- 非人間霊長類のモデルは,METS研究と翻訳研究に価値があります.
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