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Fabrication of sulphonated hollow porous nanospheres and their remarkably improved catalytic performance for biodiesel synthesis

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Abstract Biodiesel as a kind of green energy has been considered as a popular alternative to fossil-based petroleum. Herein, sulphonated hollow microporous organic nanospheres (HMONs-SO3H) were synthesized based on the… Click to show full abstract

Abstract Biodiesel as a kind of green energy has been considered as a popular alternative to fossil-based petroleum. Herein, sulphonated hollow microporous organic nanospheres (HMONs-SO3H) were synthesized based on the marriage between hyper-cross-linking mediated self-assembly strategy with polylactide-b-polystyrene (PLA-b-PS) diblock copolymers as precursors and post-modification with chlorosulfonic acid. The results demonstrated that the sulfonic groups could be introduced into hollow microporous organic nanospheres (HMONs) without any damage to the hollow nanostructure and porosity. The prepared HMONs-SO3H were used to synthesize biodiesel products through catalyzing esterification of long-chain free fatty acid with methanol. Compared with sulfonated nonhollow microporous polymers (Non-HMPs-SO3H), HMONs-SO3H exhibit higher catalytic activity and rate because the hollow structure can accelerate diffusion of the molecules even though long-chain free fatty acid is large in size.

Keywords: biodiesel; porous nanospheres; hmons so3h; fabrication sulphonated; hollow porous; sulphonated hollow

Journal Title: Reactive and Functional Polymers
Year Published: 2018

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