TY - JOUR VL - 289 JF - Bioresource Technology A1 - Chia, S.R. A1 - Chew, K.W. A1 - Show, P.L. A1 - Xia, A. A1 - Ho, S.-H. A1 - Lim, J.W. UR - https://www.scopus.com/inward/record.uri?eid=2-s2.0-85068260797&doi=10.1016%2fj.biortech.2019.121727&partnerID=40&md5=b5abf95cbe88e7aeee2030e81c0b6e3d PB - Elsevier Ltd SN - 09608524 Y1 - 2019/// ID - scholars11288 TI - Spirulina platensis based biorefinery for the production of value-added products for food and pharmaceutical applications KW - Algae; Extraction; Microorganisms KW - Downstream-processing; Liquid biphasic systems; Micro-algae; Pharmaceutical applications; Phycobiliproteins; Processing technique; Sonication treatment; Value added products KW - Purification KW - phycobiliprotein; phycocyanin; drug KW - bioreactor; drug; food processing; irradiation; microalga; protein; purification; recovery method KW - Arthrospira platensis; Article; biomass; cell disruption; downstream processing; drug industry; electromagnetic radiation; food industry; freeze thawing; irradiation; microalga; microwave cooking; microwave irradiation; microwave radiation; nonhuman; priority journal; protein isolation; protein purification; ultrasound; microalga; Spirulina KW - algae; Spirulina platensis KW - Biomass; Microalgae; Pharmaceutical Preparations; Phycobiliproteins; Spirulina N2 - In this present study, microalgal phycobiliproteins were isolated and purified via potential biphasic processing technique for pharmaceutical as well as food applications. The algal pre-treatment techniques were studied to enhance the yield of microalgal phycobiliproteins from the biomass. The proposed methods were optimised to obtain the best recovery yield of phycobiliproteins that can be isolated from the biomass. The phycobiliproteins were further purified using liquid biphasic system. The results showed that microalgal phycobiliproteins of high purity and yield was achieved using sonication treatment (20 power, 50 duty cycle and 7 min of irradiation time) with the biphasic system, where the purification fold of 6.17 and recovery yield of 94.89 was achieved. This work will provide insights towards the effective downstream processing of biomolecules from microalgae. © 2019 Elsevier Ltd N1 - cited By 34 AV - none ER -