Litcius/Paper detail

Thin film composite on fluorinated thermally rearranged polymer nanofibrous membrane achieves power density of 87 W m−2 in pressure retarded osmosis, improving economics of osmotic heat engine

Sun Ju Moon, Ji Hoon Kim, Jong Geun Seong, Won Hee Lee, Sang Hyun Park, Seong Hee Noh, Jae‐Hoon Kim, Young Moo Lee

2020Journal of Membrane Science25 citationsDOI

Topics & Concepts

Pressure-retarded osmosisThin-film composite membraneOsmotic powerMembraneOsmosisChemical engineeringMaterials scienceOsmotic pressureComposite numberForward osmosisComposite materialPower densityPolymer chemistryPower (physics)ChemistryReverse osmosisThermodynamicsEngineeringPhysicsBiochemistryMembrane Separation TechnologiesMembrane-based Ion Separation TechniquesFuel Cells and Related Materials
Thin film composite on fluorinated thermally rearranged polymer nanofibrous membrane achieves power density of 87 W m−2 in pressure retarded osmosis, improving economics of osmotic heat engine | Litcius