Team:Hong Kong HKUST/modules

From 2013.igem.org

(Difference between revisions)
Line 331: Line 331:
</div>
</div>
-
<br><br><br><div id="slide"><h3 class="title">Project Outline</h3><p id="isi">Our ultimate goal is to build a ‘smart’ glyoxylate shunt that burns extra fatty acid when there is energy surplus. To achieve this, we would have to first build the shunt itself in mammalian cells. The shunt comprises two bacterial glyoxlyate enzymes, isocitrate lyase (AceA) and malate synthase (AceB). Tagged with localization signal peptide, they could be directed to the mitochondria and act on the citric acid cycle, eventually increasing fatty acid uptake. The two enzymes would be initially driven by constitutive promoters (CMV and EF-1alpha promoters), putting the shunt in a constantly “ON” state and burns calories regardless of the energy profile. To improve this, we are developing fatty acid responsive promoters, which, when used to regulate the glyoxylate enzymes, should dispense energy only when it is in excess. <strong>Hover</strong> your mouse and <strong>click</strong> on the images below to learn more about each modules!</p></div>
+
<br><br><br><div id="slide"><h3 class="title">Project Outline</h3><p id="isi">Our ultimate goal is to build a ‘smart’ glyoxylate shunt that burns extra fatty acid when there is energy surplus. To achieve this, we would have to first build the shunt itself in mammalian cells. The shunt comprises two bacterial glyoxylate enzymes, isocitrate lyase (AceA) and malate synthase (AceB). Tagged with a localization signal peptide, they could be directed to the mitochondria and act on the citric acid cycle, eventually increasing fatty acid uptake. The two enzymes would be initially driven by constitutive promoters (CMV and EF-1alpha promoters), placing the shunt in a constantly “ON” state and burning calories regardless of the energy profile. To improve this, we are developing fatty acid responsive promoters, which, when used to regulate the glyoxylate enzymes, should dispense energy only when it is in excess. <strong>Hover</strong> your mouse and <strong>click</strong> on the images below to learn more about each modules!</p></div>
<div id="Table_01">
<div id="Table_01">

Revision as of 19:35, 27 September 2013




Project Outline

Our ultimate goal is to build a ‘smart’ glyoxylate shunt that burns extra fatty acid when there is energy surplus. To achieve this, we would have to first build the shunt itself in mammalian cells. The shunt comprises two bacterial glyoxylate enzymes, isocitrate lyase (AceA) and malate synthase (AceB). Tagged with a localization signal peptide, they could be directed to the mitochondria and act on the citric acid cycle, eventually increasing fatty acid uptake. The two enzymes would be initially driven by constitutive promoters (CMV and EF-1alpha promoters), placing the shunt in a constantly “ON” state and burning calories regardless of the energy profile. To improve this, we are developing fatty acid responsive promoters, which, when used to regulate the glyoxylate enzymes, should dispense energy only when it is in excess. Hover your mouse and click on the images below to learn more about each modules!

Cell Viability & Fatty Acid Quantification

Responsible for:
Measuring cell viability at different fatty acid concentration & measure fatty acid uptake rate
Parts submitted: -

Fatty Acid Sensing Mechanism

Responsible for:
Introduce inducible system that allows tunable fatty acid uptake by sensing fatty acid concentration
Parts submitted: -

Protein Trafficking

Responsible for:
Target ACE proteins into mitochondria
Parts submitted: BBa_K1119000, BBa_K1119001 & BBa_K1119009

Glyoxylate Shunt

Responsible for:
Introduce glyoxylate enzymes responsible for the shunt
Parts submitted:BBa_K1119002, BBa_K1119003, BBa_K1119004, BBa_K1119006 & BBa_K1119008