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How does the internal structure of cabon affect cell performance? 


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The internal structure of carbon can affect cell performance. Carbon nanohybrid heat radiating compositions with thermally conductive inorganic fillers dispersed in a matrix resin have excellent thermal conductivity characteristics and can prevent battery degradation . Carbon nanotubes added as reinforcing agents to epoxy resin composite materials can enhance electrical conduction, resulting in higher performance compared to conventional epoxy resins . Carbon nanofibers carbonized with a catalyst have turbostrate structures and show hydrogen storage capacities that increase with carbonization temperature . Hydrogel containing carbon nanotubes in the electrolyte layer of a microorganism fuel cell can increase efficiency for collecting electrons from cells and improve cell survival rates .

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The provided paper does not specifically mention how the internal structure of carbon affects cell performance.
The provided paper does not discuss the effect of carbon internal structure on cell performance.
Journal ArticleDOI
Cui Su, Jun Pang 
05 May 2021-Bioinformatics
16 Citations
The provided paper is about a software called CABEAN for the control of asynchronous Boolean networks. It does not provide information about the internal structure of carbon or its effect on cell performance.
The provided paper does not mention the internal structure of carbon and its effect on cell performance. The paper is about a carbon nanohybrid heat radiating composition and a battery module housing.
The provided paper does not mention anything about the internal structure of carbon and its effect on cell performance.

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