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      클로렐라(Chlorella pyrenoidosa) 단백질 추출을 위한 친환경 추출법 탐색 = Exploring Eco-friendly Methods for Protein Extraction from Chlorella pyrenoidosa

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      https://www.riss.kr/link?id=A109496406

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      In this study, we investigated eco-friendly physical and enzymatic methods for extracting proteins from Chlorella pyrenoidosa via cell wall decomposition. The physical methods used were hot-water extraction (HW), sonication (S), and ultrasonication (US), whereas the enzymatic methods included two cell wall-decomposing enzymes (cellulase and viscozyme L) and three proteolytic enzymes (microbial protease, papain, and bromelain) at a 1% substrate concentration.
      The results showed that HW and S were unsuitable for extracting chlorella proteins because of their low protein extraction yields. Conversely, among the physical treatment methods, US showed the highest protein extraction yield of 16.78±0.47%. However, physical methods can cause protein denaturation due to temperature increases with extended treatment time. In enzymatic treatment, only microbial protease proved effective, achieving the highest protein extraction yield of 36.26±2.32% after 6 h of treatment. The use of mixed enzymes did not significantly improve the yield compared to treatment with microbial protease alone. This study suggests that microbial protease is an effective method for protein extraction from chlorella and highlights its potential for application in the food industry as foundational data.
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      In this study, we investigated eco-friendly physical and enzymatic methods for extracting proteins from Chlorella pyrenoidosa via cell wall decomposition. The physical methods used were hot-water extraction (HW), sonication (S), and ultrasonication (U...

      In this study, we investigated eco-friendly physical and enzymatic methods for extracting proteins from Chlorella pyrenoidosa via cell wall decomposition. The physical methods used were hot-water extraction (HW), sonication (S), and ultrasonication (US), whereas the enzymatic methods included two cell wall-decomposing enzymes (cellulase and viscozyme L) and three proteolytic enzymes (microbial protease, papain, and bromelain) at a 1% substrate concentration.
      The results showed that HW and S were unsuitable for extracting chlorella proteins because of their low protein extraction yields. Conversely, among the physical treatment methods, US showed the highest protein extraction yield of 16.78±0.47%. However, physical methods can cause protein denaturation due to temperature increases with extended treatment time. In enzymatic treatment, only microbial protease proved effective, achieving the highest protein extraction yield of 36.26±2.32% after 6 h of treatment. The use of mixed enzymes did not significantly improve the yield compared to treatment with microbial protease alone. This study suggests that microbial protease is an effective method for protein extraction from chlorella and highlights its potential for application in the food industry as foundational data.

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      참고문헌 (Reference)

      1 Sporchia F, "Zero hunger : Future challenges and the way forward towards the achievement of sustainable development goal 2" 7 : 10-, 2024

      2 Hildebrand G, "Ultrasound-assisted processing of Chlorella vulgaris for enhanced protein extraction" 32 : 1709-1718, 2020

      3 Wang W, "Ultrasound-assisted multienzyme extraction for highly efficient extraction of polysaccharides from Ulva lactuca" 13 : 891-, 2024

      4 Mócsai R, "The diversity of N-glycans of chlorella food supplements challenges current species classification" 13 : 3182-, 2019

      5 Gasser J, "Role of proteins : Complex molecules present in the human body" 12 : 207-, 2023

      6 Ye J, "Protoplast preparation for algal single-cell omics sequencing" 11 : 538-, 2023

      7 Krieg RC, "Protein quantification and its tolerance for different interfering reagents using the BCA-method with regard to 2D SDS PAGE" 65 : 13-19, 2005

      8 Stack J, "Protein extraction and bioactive hydrolysate generation from two microalgae, Porphyridium purpureum and Phaeodactylum tricornutum" 1 : 153-165, 2018

      9 Bito T, "Potential of Chlorella as a dietary supplement to promote human health" 12 : 2524-, 2020

      10 Wang X, "Optimal extraction and hydrolysis of Chlorella pyrenoidosa proteins" 126 : 307-313, 2012

      1 Sporchia F, "Zero hunger : Future challenges and the way forward towards the achievement of sustainable development goal 2" 7 : 10-, 2024

      2 Hildebrand G, "Ultrasound-assisted processing of Chlorella vulgaris for enhanced protein extraction" 32 : 1709-1718, 2020

      3 Wang W, "Ultrasound-assisted multienzyme extraction for highly efficient extraction of polysaccharides from Ulva lactuca" 13 : 891-, 2024

      4 Mócsai R, "The diversity of N-glycans of chlorella food supplements challenges current species classification" 13 : 3182-, 2019

      5 Gasser J, "Role of proteins : Complex molecules present in the human body" 12 : 207-, 2023

      6 Ye J, "Protoplast preparation for algal single-cell omics sequencing" 11 : 538-, 2023

      7 Krieg RC, "Protein quantification and its tolerance for different interfering reagents using the BCA-method with regard to 2D SDS PAGE" 65 : 13-19, 2005

      8 Stack J, "Protein extraction and bioactive hydrolysate generation from two microalgae, Porphyridium purpureum and Phaeodactylum tricornutum" 1 : 153-165, 2018

      9 Bito T, "Potential of Chlorella as a dietary supplement to promote human health" 12 : 2524-, 2020

      10 Wang X, "Optimal extraction and hydrolysis of Chlorella pyrenoidosa proteins" 126 : 307-313, 2012

      11 Akharume FU, "Modification of plant proteins for improved functionality : A review" 20 : 198-224, 2021

      12 Postma PR, "Mild disintegration of the green microalgae Chlorella vulgaris using bead milling" 184 : 297-304, 2015

      13 Mata TM, "Microalgae for biodiesel production and other applications : A review" 14 : 217-232, 2010

      14 Kumar R, "Microalgae as a sustainable source of edible proteins and bioactive peptides–Current trends and future prospects" 157 : 111338-, 2022

      15 Skorupskaite V, "Microalgae Chlorella sp. cell disruption efficiency utilising ultrasonication and ultrahomogenisation methods" 31 : 2349-2354, 2019

      16 Schwenzfeier A, "Isolation and characterization of soluble protein from the green microalgae Tetraselmis sp" 102 : 9121-9127, 2011

      17 Zwander S, "Integrating eco-friendly approaches to produce protein extracts and hydrolysates with antioxidant properties from Microchloropsis gaditana" 77 : 103368-, 2024

      18 Weber S, "Insights into cell wall disintegration of Chlorella vulgaris" 17 : e0262500-, 2022

      19 Guo X, "Improving enzyme accessibility in the aqueous enzymatic extraction process by microwave-induced porous cell walls to increase oil body and protein yields" 147 : 109407-, 2024

      20 인만진, "Improvement of protein extraction efficiency from defatted sesame meal with thermal and enzymatic treatments" 63 : 291-295, 2020

      21 Potkule JB, "Impact of non-thermal techniques on enzyme modifications for their applications in food" 275 : 133566-, 2024

      22 O’ Connor J, "Extraction of protein from four different seaweeds using three different physical pre-treatment strategies" 25 : 2005-, 2020

      23 Zhang R, "Extraction of intracellular protein from Chlorella pyrenoidosa using a combination of ethanol soaking, enzyme digest, ultrasonication and homogenization techniques" 247 : 267-272, 2018

      24 Huang Y, "Evaluation of cell disruption of Chlorella Vulgaris by pressure-assisted ozonation and ultrasonication" 9 : 173-, 2016

      25 Kumar B, "Enzyme mediated multi-product process : A concept of bio-based refinery" 154 : 112607-, 2020

      26 Patel A, "Enhanced production of ethanol from enzymatic hydrolysate of microwave-treated wheat straw by statistical optimization and mass balance analysis of bioconversion process" 10 : 1251-1258, 2021

      27 Zhou P, "Encyclopedia of Dairy Sciences" Elsevier 256-263, 2011

      28 Spínola MP, "Effect of selected mechanical/physical pre-treatments on Chlorella vulgaris protein solubility" 13 : 1309-, 2023

      29 Xu Y, "Effect of enzymatic hydrolysis using endo-and exo-proteases on secondary structure, functional, and antioxidant properties of chickpea protein hydrolysates" 14 : 343-352, 2020

      30 MFDS (Ministry of Food and Drug Safety), "Current Status of Functional Ingredients Recognized in Health Functional Foods"

      31 daSilva AS, "Constraints and advances in high-solids enzymatic hydrolysis of lignocellulosic biomass : A critical review" 13 : 58-, 2020

      32 Widyaningrum D, "Chlorella as a source of functional food ingredients : Short review" 794 : 012148-, 2021

      33 Safi C, "Aqueous extraction of proteins from microalgae : Effect of different cell disruption methods" 3 : 61-65, 2014

      34 Raheem A, "A review on sustainable microalgae based biofuel and bioenergy production : Recent developments" 181 : 42-59, 2018

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