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Biological membranes can achieve remarkably high permeabilities while maintaining ideal selectivities by relying on homogeneous internal structures in the form of membrane proteins. In new research, a team of scientists led by Penn State University and the University of Texas at Austin applied such design strategies to desalination polyamide membranes.
This 3D model of a polymer desalination membrane shows water avoiding dense spots in the membrane and slowing flow; red above the membrane shows water under higher pressure and with higher concentrations of salt; the gold, granular, sponge-like structure in the middle shows denser and less-dense areas within the salt-stopping membrane; silver channels show how water flows through; and the blue at the bottom shows water under lower pressure and with lower concentrations of salt. Image credit: Ganapathysubramanian Research Group / Iowa State University / Gregory Foss, Texas Advanced Computing Center.

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Texas , United States , Tylere Culp , Enrique Gomez , Manish Kumar , Baskar Ganapathysubramanian , Biswajit Khara , University Of Texas At Austin , Texas Advanced Computing Center , Dow Chemical Co , Dupont Water Solutions , Iowa State University , Penn State University , Ganapathysubramanian Research Group , Gregory Foss , Texas Advanced Computing , Dow Chemical , Professor Baskar Ganapathysubramanian , Iowa State , டெக்சாஸ் , ஒன்றுபட்டது மாநிலங்களில் , மனிஷ் குமார் , பிஸ்வாஜித் கார , பல்கலைக்கழகம் ஆஃப் டெக்சாஸ் இல் ஆஸ்டின் , டோ இரசாயன இணை , ட்யூபாஂட் தண்ணீர் தீர்வுகள் , ஐயுவா நிலை பல்கலைக்கழகம் , பென் நிலை பல்கலைக்கழகம் , கிரெகொரி புதை , டோ இரசாயன , ஐயுவா நிலை ,

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