Characterization of Maltogenic Amylase Activity Recovery: A Potential Approach for Improving Immobilization
DOI:
https://doi.org/10.11113/bioprocessing.v2n2.34Keywords:
Maltogenic amylase, Enzyme immobilization, Enzyme technology, MaltooligosaccharidesAbstract
Cross-linked enzymes aggregate (CLEA) is a versatile carrier free-immobilization technique that has gained much attention in the development of biocatalyst technology. However, there is no precise and accurate method of using this technique that will lead to an expected outcome that meets the requirements of the industrial standard. Therefore, the objective of this study is to investigate the effect of a few methods of executing cross-linked enzyme aggregates approach using maltogenic amylase by measuring the activity recovery of the developed CLEA. Some factors that are considered in developing the methodologies are the interaction between cross-linkers and enzymes, size of the cross-linked enzyme aggregates and substrate diffusion. The addition of precipitant and the cross-linking agent steps has been manipulated and four different methodologies were developed. Based on the results, Method 2 showed the highest activity recovery (57.9%) whilst Method 4 gave the lowest activity recovery (15.7%). Method 2 is an improvised method that removed supernatant after centrifugation before proceeding to the cross-linking step. The characterization of cross-linked enzyme aggregates such as morphological characterization and Fourier Transform-Infrared Spectroscopy was also determined. In conclusion, the best and most productive preparation method was determined based on the highest activity recovery.
References
Abdul Manas, N.H., Pachelles, S., Mahadi, N.M. and Illias, R.M. 2014. The Characterisation of An Alkali-Stable Maltogenic Amylase from Bacillus lehensis G1 and Improved Malto-Oligosaccharide Production by Hydrolysis Suppression. PLoS ONE. 9(9).
Ahrari, F., Yousefi, M., Habibi, Z. and Mohammadi, M. 2023. Cross-linked Lipase Particles with Improved Activity: Application of A Non-Toxic Linker for Cross-Linking. LWT. 173: 114371.
Alves, N.R., Pereira, M.M., Giordano, R.L.C., Tardioli, P.W., Lima, A.S., Soares, C.M.F. and Souza, R.L. 2021. Design for Preparation of More Active Cross-Linked Enzyme Aggregates of Burkholderia cepacia Lipase Using Palm Fiber Residue. Bioprocess And Biosystems Engineering. 44(1): 57-66.
Ashjari, M., Garmroodi, M., Ahrari, F., Yousefi, M., Mohammadi, M. 2020. Soluble Enzyme Cross-Linking Via Multi-Component Reactions: A New Generation of Cross-Linked Enzymes. Chemical communications. 56(67): 9683-9686.
Bian, H., Cao, M., Wen, H., Tan, Z., Jia, S. and Cui, J. 2019. Biodegradation of Polyvinyl Alcohol Using Cross-Linked Enzyme Aggregates of Degrading Enzymes from Bacillus niacini. International Journal of Biological Macromolecules. 124: 10-16.
Bilal, M., Noreen, S., Asher, M., Parvewwn, S., 2021. Development And Characterization of Cross-Linked Laccase Aggregates (Lac-CLEAs) from Trameter versicolor IBL-04 As Ecofriendly Biocatalyst for Degradation of Dye-Based Environmental Pollutants. Environmental Technology and Innovation. 21: 101364.
Bolivar, J.M., Woodley, J.M., Fernandez-Lafuente, R. 2022. Is Enzyme Immobilization a Mature Discipline? Some Critical Considerations to Capitalize on The Benefits of Immobilization. Chemical Society Reviews. 51(15): 6251-6290.
Carbonaro, M. and Nucara, A. 2010. Secondary Structure of Food Proteins by Fourier Transform Spectroscopy in The Mid-Infrared Region. Amino acids. 38(3), 679–690.
Chaturvedi, S., Gupta, A.K., Bhattacharya, A., Dutta, T., Nain, L. and Khare, S.K. 2021. Overexpression And Repression of Key Rate Limiting Enzymes (Acetyl CoA carboxylase and HMG reductase) To Enhance Fatty Acid Production from Rhodotorula mucilaginosa. Journal of Basic Microbiology. 61(1): 4-14.
Chen, N., Chan, B., Shi, N., Lu, F. and Liu, F. 2023. Robust And Recyclable Cross-Linked Enzyme Aggregates of Sucrose Isomaerase for Isomaltulose Production. Food Chemistry. 399: 134000.
Cordero-Soto, I.N., Castillo-Araiza, C.O., Garcia-Martinez, L.E., Prado-Barragan, A., Huerta-Ochoa, A. 2020. Solid/gas Biocatalysis for Aroma Production: An Alternative Process of White Biotechnology. Biochemical Engineering Journal. 164: 107767.
Ernest, V., Nirmala, M.J., Gajalakshmi, S., Mukherjee, A. and Chandrasekaran, N. 2013. Biophysical Investigation Of Α-Amylase Conjugated Silver Nanoparticles Proves Structural Changes Besides Increasing Its Enzyme Activity. Journal of Bionanoscience. 7(3), 271–275.
Fang, G., Chen, H., Zhang, Y. and Chen, A. 2016. Immobilization of Pectinase onto Fe3O4@SiO2-NH2 and Its Activity and Stability. International Journal of Biological Macromolecules. 88, 189–195.
George, J., Rajendran, D.S., Kumar, P.S., Anand, S.S., Kumar, V.V. and Rangasamy, G. 2023. Efficient Decolorization and Detoxification of Triarylmethane and Azo Dyes by Porous-Cross-Linked Enzyme Aggregates of Pleurotus ostreatus Laccase. Chemospere. 313: 137612.
Guo, L., Zhu, Y., Li, J., Gui, Y., Tao, H., and Zou, F. 2021. The Effects of Wheat Amylose Ratios on The Structural and Physicochemical Properties of Waxy Rice Starch Using Branching Enzyme and Glucoamylase. Food Hydrocolloids. 113: 106410.
Jailani, N., Jaafar, N.R., SUhaimi, S., Mackeen, M.M., Abu Bakar, A.B., Illias, R.M. 2022. Cross-linked Cyclodextrin Glucanotransferase Aggregates from Bacillus lehensis G1 For Cyclodextrin Production: Molecular Modelling, Developmental, Physicochemical, Kinetic and Thermodynamic Properties. International Journal of Biological Macromolecules. 213: 516-533.
Jun, L.Y., Yan, L.S., Mubarak, N.M., Bing, C.H., Pan, S., Danquah, M.K., Khalid, M. 2019. An Overview of Immobilized Enzyme Technologies for Dye and Phenolic Removal from Wastewater. Journal of Environmental and Chemical Engineering. 7(2): 102961.
Lewis, R.D., France, S.P. and Martinez, C.A. 2023. Emerging Technologies for Biocatalysis in The Pharmaceutical Industry. ACS Catalysis. 13(8):5571-5577.
Nawawi, N.N., Hashim, Z., Manas, N.H.A., Azelee, N.I.W. and Illias, R.M. (2020). A Porous-Cross Linked Enzyme Aggregates of Maltogenic Amylase from Bacillus Lehensis G1: Robust Biocatalyst with Improved Stability and Substrate Diffusion. International Journal of Biological Macromolecules. 148, 1222–1231.
Pachelles, S. (2013). Expression and Biochemical Characterization of Maltogenic Amylase from Bacillus Lehensis G1 (Doctoral dissertation, Universiti Teknologi Malaysia).
Rabolt, J.F., Burns, F.C., Schlotter, N.E. and Swalen, J.D. (1998). Anisotropic Orientation in Molecular Monolayers by Infrared Spectroscopy. The Journal of Chemical Physics. 78(2), 946.
Shakerian, F., Zhao, J. and Li, S.P. 2020. Recent development in the application of immobilized oxidative enzymes for bioremediation of hazardous micropollutants - A review. Chemosphere. 239: 124716.
Singh, S., Sharma, P.K., Chaturvedi, S., Kumar, P., Nannaware, A.D., Kalra, A. and Rout, P.K. 2024. Biocatalyst For the Synthesis of Natural Flavouring Compounds as Food Additives: Bridging the Gap for A More Sustainable Industrial Future. Food Chemistry. 435: 137217.
Soleimani, M., Khani, A. and Najafzadeh, K. 2012. α-Amylase Immobilization on The Silica Nanoparticles for Cleaning Performance Towards Starch Soils in Laundry Detergents. Journal of Molecular Catalysis B: Enzymatic. 74(1–2), 1–5.
Wang, Y., Bai, Y., Ji, H., Dong, J., Li, X., Liu, J. and Jin, Z. 2022. Insights Into Rice Starch Degradation by Maltogenic A-Amylase: Effect of Starch Structure on Its Rheological Properties. Food Hydrocolloids. 124: 107289.
Yamaguchi, H., Kiyota, Y. and Miyazaki, M. (2018). Techniques For Preparation of Cross-Linked Enzyme Aggregates and Their Applications in Bioconversions. Catalysts. 8(5).