Abstract
Enzymes are widely used in industrial and pharmaceutical applications, but their activities often decrease rapidly under harsh environmental conditions such as heat, organic solvents, and dehydration. In this study, a new method for enzyme coating with polysaccharide using a rapid tyrosinase-mediated crosslinking reaction was developed. When tyrosinase reacts with a monophenol-containing biopolymer such as polysaccharide, it forms a covalent crosslink between the biopolymer and the enzyme. This crosslinking reaction create a rigid polysaccharide-coated enzyme (PCE) that protects the enzyme from harsh environmental conditions, that leads to improve the enzyme stability. To demonstrate the concept, trypsin (TR), a model enzyme with a positively charged surface, was used. Tyramine conjugated alginate polymer (AlgT), a negatively charged biocompatible polysaccharide, was used to coat TR. The AlgT was subsequently used to coat TR, forming an AlgT-TR complex. We characterized the PCE using particle size, surface charge (zeta potential), optimal pH shift, etc. Afterwards, we compared the enzyme kinetics of AlgT-TR and uncoated TR (free-TR). The AlgT-TR showed a higher activity and higher heat, storage, and water-miscible organic solvent stabilities than the free-TR. The AlgT coating method was efficient and effective to increase the thermal stability of not only TR, but also hydrolases with neutral to negative surface charges, such as elastase, subtilisin, and chymotrypsin. These results suggest that the tyrosinase-mediated crosslinking reaction is a very promising and general coating method for improving the stability of enzymes with positive surface charge, but the opposite case would be also possible.
References
Silva, C., M. Martins, S. Jing, J. Fu, and A. Cavaco-Paulo (2018) Practical insights on enzyme stabilization. Crit. Rev. Biotechnol. 38: 335–350.
Upadhyay, R., J. Y. Kim, E. Y. Hong, S.-G. Lee, J.-H. Seo, and B.-G. Kim (2019) RiSLnet: rapid identification of smart mutant libraries using protein structure network. Application to thermal stability enhancement. Biotechnol. Bioeng. 116: 250–259.
Razzaghi, M., A. Homaei, F. Vianello, T. Azad, T. Sharma, A. K. Nadda, R. Stevanato, M. Bilal, and H. M. N. Iqbal (2022) Industrial applications of immobilized nano-biocatalysts. Bioprocess Biosyst. Eng. 45: 237–256.
Rodriguez-Abetxuko, A., D. Sánchez-deAlcázar, P. Muñumer, and A. Beloqui (2020) Tunable polymeric scaffolds for enzyme immobilization. Front. Bioeng. Biotechnol. 8: 830.
Chapman, R. and M. H. Stenzel (2019) All wrapped up: stabilization of enzymes within single enzyme nanoparticles. J. Am. Chem. Soc. 141: 2754–2769.
Beloqui, A., A. Y. Kobitski, G. U. Nienhaus, and G. Delaittre (2018) A simple route to highly active single-enzyme nanogels. Chem. Sci. 9: 1006–1013.
Kim, J. and J. W. Grate (2003) Single-enzyme nanoparticles armored by a nanometer-scale organic/inorganic network. Nano Lett. 3: 1219–1222.
Wang, Y., Y. T. Cheng, C. Cao, J. D. Oliver, M. H. Stenzel, and R. Chapman (2020) Polyion complex-templated synthesis of cross-linked single-enzyme nanoparticles. Macromolecules 53: 5487–5496.
Wang, Y., M. Milewska, H. Foster, R. Chapman, and M. H. Stenzel (2021) The core–shell structure, not sugar, drives the thermal stabilization of single-enzyme nanoparticles. Biomacromolecules 22: 4569–4581.
Agunbiade, M. and M. Le Roes-Hill (2021) Application of bacterial tyrosinases in organic synthesis. World J. Microbiol. and Biotechnol. 38: 2.
Kim, H., U.-J. Lee, H. Song, J. Lee, W.-S. Song, H. Noh, M.-H. Kang, B.-S. Kim, J. Park, N. S. Hwang, and B.-G. Kim (2022) Synthesis of soluble melanin nanoparticles under acidic conditions using Burkholderia cepacia tyrosinase and their characterization. RSC Adv. 12: 17434–17442.
Liebscher, J.(2019) Chemistry of polydopamine–scope, variation, and limitation. Eur. J. Org. Chem. 2019: 4976–4994.
Fujieda, N., K. Umakoshi, Y. Ochi, Y. Nishikawa, S. Yanagisawa, M. Kubo, G. Kurisu, and S. Itoh (2020) Copper-oxygen dynamics in tyrosinase mechanism. Angew. Chem. Int. Ed. Engl. 59: 13385–13390.
Kim, S.-H., S.-H. Lee, J.-E. Lee, S. J. Park, K. Kim, I. S. Kim, Y.-S. Lee, N. S. Hwang, and B.-G. Kim (2018) Tissue adhesive, rapid forming, and sprayable ECM hydrogel via recombinant tyrosinase crosslinking. Biomaterials 178: 401–412.
Lee, N., S.-H. Lee, K. Baek, and B.-G. Kim (2015) Heterologous expression of tyrosinase (MelC2) from Streptomyces avermitilis MA4680 in E. coli and its application for ortho-hydroxylation of resveratrol to produce piceatannol. Appl. Microbiol. Biotechnol. 99: 7915–7924.
Chamorro, J. A., J. A. Cuesta-Seijo, and S. Garcia-Granda. Pancratic bovine Trypsin native and inhibited with Benzamidine from synchotron data. https://www.rcsb.org/structure/1s0r
Sakai, S., Y. Yamada, T. Zenke, and K. Kawakami (2009) Novel chitosan derivative soluble at neutral pH and in-situ gellable via peroxidase-catalyzed enzymatic reaction. J. Mater. Chem. 19: 230–235.
Han, J., Y. Cui, X. Han, C. Liang, W. Liu, D. Luo, and D. Yang (2020) Super-soft DNA/dopamine-grafted-dextran hydrogel as dynamic wire for electric circuits switched by a microbial metabolism process. Adv. Sci. (Weinh) 7: 2000684.
Lee, P.-G., S.-H. Lee, E. Y. Hong, S. Lutz, and B.-G. Kim (2019) Circular permutation of a bacterial tyrosinase enables efficient polyphenol-specific oxidation and quantitative preparation of orobol. Biotechnol. Bioeng. 116: 19–27.
Huynh, K. and C. L. Partch (2015) Analysis of protein stability and ligand interactions by thermal shift assay. Curr. Protoc Protein Sci. 79: 28.9.1–28.9.14.
Magari, R. T. (2002) Estimating degradation in real time and accelerated stability tests with random lot-to-lot variation: a simulation study. J. Pharm Sci. 91: 893–899.
Unni, S., Y. Huang, R. M. Hanson, M. Tobias, S. Krishnan, W. W. Li, J. E. Nielsen, and N. A. Baker (2011) Web servers and services for electrostatics calculations with APBS and PDB2PQR. J. Comput. Chem. 32: 1488–1491.
Pettersen, E. F., T. D. Goddard, C. C. Huang, G. S. Couch, D. M. Greenblatt, E. C. Meng, and T. E. Ferrin (2004) UCSF Chimera—a visualization system for exploratory research and analysis. J. Comput. Chem. 25: 1605–1612.
Jablaoui, A., A. Kriaa, N. Akermi, H. Mkaouar, A. Gargouri, E. Maguin, and M. Rhimi (2018) Biotechnological applications of serine proteases: a patent review. Recent Pat. Biotechnol. 12: 280–287.
Walsh, K. A. (1970) [4] Trypsinogens and trypsins of various species. pp. 41–63. Methods in Enzymology. Elsevier.
Lv, Y., J. Zhang, Y. Song, B. Wang, S. Wang, S. Zhao, G. Lv, and X. Ma (2014) Natural anionic polymer acts as highly efficient trypsin inhibitor based on an electrostatic interaction mechanism. Macromol. Rapid Commun. 35: 1606–1610.
Quiñones, J. P., H. Peniche, and C. Peniche (2018) Chitosan based self-assembled nanoparticles in drug delivery. Polymers (Basel) 10: 235.
Yuan, H., W. M. Mullett, and J. Pawliszyn (2001) Biological sample analysis with immunoaffinity solid-phase microextraction. Analyst 126: 1456–1461.
Thiele, M. J., M. D. Davari, M. König, I. Hofmann, N. O. Junker, T. Mirzaei Garakani, L. Vojcic, J. Fitter, and U. Schwaneberg (2018) Enzyme–polyelectrolyte complexes boost the catalytic performance of enzymes. ACS Catal. 8: 10876–10887.
Stepankova, V., S. Bidmanova, T. Koudelakova, Z. Prokop, R. Chaloupkova, and J. Damborsky (2013) Strategies for stabilization of enzymes in organic solvents. ACS Catal. 3: 2823–2836.
Würtele, M., M. Hahn, K. Hilpert, and W. Höhne (2000) Atomic resolution structure of native porcine pancreatic elastase at 1.1 Å. Acta. Crystallogr. D Biol. Crystallogr. 56: 520–523.
Prangé, T., M. Schiltz, L. Pernot, N. Colloc’h, S. Longhi, W. Bourguet, and R. Fourme (1998) Exploring hydrophobic sites in proteins with xenon or krypton. Proteins 30: 61–73.
Tornøe, C. W., E. Johansson, and P.-O. Wahlund (2017) Divergent protein synthesis of Bowman–Birk protease inhibitors, their hydrodynamic behavior and co-crystallization with α-chymotrypsin. Synlett 28: 1901–1906.
Barker, M. K. and D. R. Rose (2013) Specificity of processing α-glucosidase I is guided by the substrate conformation: crystallographic and in silico studies. J. Biol. Chem. 288: 13563–13574.
Saini, A. S., A. Tripathi, and J. S. Melo (2015) On-column enzymatic synthesis of melanin nanoparticles using cryogenic poly(AAM-co-AGE) monolith and its free radical scavenging and electro-catalytic properties. RSC Adv. 5: 87206–87215.
Kim, D. H., H. S. Lee, T.-W. Kwon, Y.-M. Han, N.-W. Kang, M. Y. Lee, D.-D. Kim, M. G. Kim, and J.-Y. Lee (2020) Single enzyme nanoparticle, an effective tool for enzyme replacement therapy. Arch. Pharm.l Res. 43: 1–21.
Kim, H. (2022) Soluble Melanin Synthesis and Enzyme Coating Using Tyrosinase Catalyzed Reaction. Ph.D. Thesis. Seoul National University, Seoul, Korea.
Acknowledgements
This research was supported by Korea Initiative for fostering University of Research and Innovation Program of the National Research Foundation (NRF) funded by the Korean government (MSIT) (No. NRF-2020M3H1A1073304).
This work was also supported by the Korea Planning & Evaluation of Industrial Technology (20024336) funded by the Ministry of Trade, Industry & Energy (MOTTE, Republic of Korea).
This paper is based on the doctoral dissertation [37] submitted by Dr. Hyun Kim to Seoul National University in August 2022.
Author information
Authors and Affiliations
Corresponding author
Ethics declarations
The authors declare no conflict of interest.
Neither ethical approval nor informed consent was required for this study.
Additional information
Publisher’s Note Springer Nature remains neutral with regard to jurisdictional claims in published maps and institutional affiliations.
Rights and permissions
About this article
Cite this article
Kim, H., Lee, UJ., Lim, GM. et al. Stability Enhancement of Target Enzymes via Tyrosinase-Mediated Site-Specific Polysaccharide Coating. Biotechnol Bioproc E 28, 862–873 (2023). https://doi.org/10.1007/s12257-023-0190-5
Received:
Revised:
Accepted:
Published:
Issue Date:
DOI: https://doi.org/10.1007/s12257-023-0190-5