Inside Cover: Immobilised Lipase on Structured Supports Containing Covalently Attached Ionic Liquids for the Continuous Synthesis of Biodiesel in scCO 2  (ChemSusChem 4/2012) | Zendy

Lozano Pedro | Zendy; GarcíaVerdugo Eduardo | Zendy; Bernal Juana M. | Zendy; Izquierdo Diana F. | Zendy; Burguete M. Isabel | Zendy; SánchezGómez Gregorio | Zendy; Luis Santiago V. | Zendy

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Inside Cover: Immobilised Lipase on Structured Supports Containing Covalently Attached Ionic Liquids for the Continuous Synthesis of Biodiesel in scCO 2 (ChemSusChem 4/2012)

Author(s) -

Lozano Pedro,

GarcíaVerdugo Eduardo,

Bernal Juana M.,

Izquierdo Diana F.,

Burguete M. Isabel,

SánchezGómez Gregorio,

Luis Santiago V.

Publication year - 2012

Publication title -

chemsuschem

Language(s) - English

Resource type - Reports

SCImago Journal Rank - 2.412

H-Index - 157

eISSN - 1864-564X

pISSN - 1864-5631

DOI - 10.1002/cssc.201290014

Subject(s) - supercritical fluid , lipase , candida antarctica , biodiesel , triolein , ionic liquid , methanol , chemical engineering , chemistry , organic chemistry , covalent bond , materials science , catalysis , engineering , enzyme

The inside cover picture shows a continuous reactor, containing immobilized lipase onto a polymeric matrix with covalently attached ionic liquid phase (SILLPs), to synthesize biodiesel in supercritical CO 2 from vegetable oil and methanol. In their paper on page 790 , Lozano and co‐workers describe the preparation and extraordinary performance of different nanostructured supports applied to immobilize Candida antarctica lipase B (CALB). The suitability of these immobilized lipase derivatives to carry out the synthesis of biodiesel by methanolysis of triolein in supercritical CO 2 was excellent, leading up to 95% biodiesel yields with high operational stability.

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