Mineralization of Lipase from Thermomyces lanuginosus Immobilized on Methacrylate Beads Bearing Octadecyl Groups to Improve Enzyme Features
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[1] R. Fernández-Lafuente,et al. Tuning Immobilized Enzyme Features by Combining Solid-Phase Physicochemical Modification and Mineralization , 2022, International journal of molecular sciences.
[2] R. Fernández-Lafuente,et al. The immobilization protocol greatly alters the effects of metal phosphate modification on the activity/stability of immobilized lipases. , 2022, International journal of biological macromolecules.
[3] Jovany G. Merham,et al. Role of Molecular Modification and Protein Folding in the Nucleation and Growth of Protein–Metal–Organic Frameworks , 2022, Chemistry of materials : a publication of the American Chemical Society.
[4] Huai-Song Wang,et al. Enzyme-immobilized metal-organic frameworks: From preparation to application. , 2022, Chemistry, an Asian journal.
[5] F. Péter,et al. Development of a Tailored Sol-Gel Immobilized Biocatalyst for Sustainable Synthesis of the Food Aroma Ester n-Amyl Caproate in Continuous Solventless System , 2022, Foods.
[6] R. Fernández-Lafuente,et al. Is enzyme immobilization a mature discipline? Some critical considerations to capitalize on the benefits of immobilization. , 2022, Chemical Society reviews.
[7] R. Fernández-Lafuente,et al. Tuning Immobilized Commercial Lipase Preparations Features by Simple Treatment with Metallic Phosphate Salts , 2022, Molecules.
[8] A. S. Alwabli,et al. Reusability of immobilized β-glucosidase on sodium alginate-coated magnetic nanoparticles and high productivity applications , 2022, Journal of Saudi Chemical Society.
[9] R. Fernández-Lafuente,et al. Lipase immobilization via cross-linked enzyme aggregates: Problems and prospects - A review. , 2022, International journal of biological macromolecules.
[10] R. Fernández-Lafuente,et al. Stabilization of immobilized lipases by treatment with metallic phosphate salts. , 2022, International journal of biological macromolecules.
[11] Yunfeng Yan,et al. Microfluidic fabrication of tunable alginate‐based microfibers for the stable immobilization of enzymes , 2022, Biotechnology journal.
[12] P. Fernandes,et al. Enzyme Immobilization and Co-Immobilization: Main Framework, Advances and Some Applications , 2022, Processes.
[13] W. Blankenfeldt,et al. Biocatalytically Active and Stable Cross‐Linked Enzyme Crystals of Halohydrin Dehalogenase HheG by Protein Engineering , 2022, ChemCatChem.
[14] M. Ghollasi,et al. Synthesis of two novel bio-based hydrogels using sodium alginate and chitosan and their proficiency in physical immobilization of enzymes , 2022, Scientific Reports.
[15] J. Guisán,et al. Enzyme Immobilization Strategies for the design of robust and efficient biocatalysts , 2022, Current Opinion in Green and Sustainable Chemistry.
[16] M. Hassanshahian,et al. One-pot synthesis and biochemical characterization of a magnetic collagenase nanoflower and evaluation of its biotechnological applications. , 2021, Colloids and surfaces. B, Biointerfaces.
[17] J. Cui,et al. Metal-organic frameworks with different dimensionalities: An ideal host platform for enzyme@MOF composites , 2021, Coordination Chemistry Reviews.
[18] M. Forte,et al. Enzyme immobilization: what have we learned in the past five years? , 2021, Biofuels, Bioproducts and Biorefining.
[19] R. Fernández-Lafuente,et al. Enzyme-support interactions and inactivation conditions determine Thermomyces lanuginosus lipase inactivation pathways: Functional and florescence studies. , 2021, International journal of biological macromolecules.
[20] Á. Berenguer-Murcia,et al. Stabilization of enzymes via immobilization: Multipoint covalent attachment and other stabilization strategies. , 2021, Biotechnology advances.
[21] Jian-guo Tang,et al. Enzyme-inorganic hybrid nanoflowers: Classification, synthesis, functionalization and potential applications , 2021, Chemical Engineering Journal.
[22] Hafiz M.N. Iqbal,et al. Cellulose-deconstruction potential of nano-biocatalytic systems: A strategic drive from designing to sustainable applications of immobilized cellulases. , 2021, International journal of biological macromolecules.
[23] Z. Karami,et al. Synthesis and characterization of cross-linked lipase-metal hybrid nanoflowers on graphene oxide with increasing the enzymatic stability and reusability , 2021 .
[24] E. Franceschi,et al. Evaluation of Different Ionic Liquids as Additives in the Immobilization of Lipase CAL B by Sol-Gel Technique , 2021, Applied Biochemistry and Biotechnology.
[25] A. Garg,et al. Protein morphology drives the structure and catalytic activity of bio-inorganic hybrids. , 2021, International journal of biological macromolecules.
[26] Quanshun Li,et al. Immobilization of thermophilic lipase in inorganic hybrid nanoflower through biomimetic mineralization. , 2020, Colloids and surfaces. B, Biointerfaces.
[27] Serkan Dayan,et al. Catalase/Fe3O4@Cu2+ hybrid biocatalytic nanoflowers fabrication and efficiency in the reduction of organic pollutants , 2020 .
[28] S. Jia,et al. Paper-based biosensor based on phenylalnine ammonia lyase hybrid nanoflowers for urinary phenylalanine measurement. , 2020, International journal of biological macromolecules.
[29] R. Fernández-Lafuente,et al. Enzyme-Coated Micro-Crystals: An Almost Forgotten but Very Simple and Elegant Immobilization Strategy , 2020, Catalysts.
[30] R. Fernández-Lafuente,et al. Immobilized Biocatalysts of Eversa® Transform 2.0 and Lipase from Thermomyces Lanuginosus: Comparison of Some Properties and Performance in Biodiesel Production , 2020, Catalysts.
[31] S. Jia,et al. Self-assembly of activated lipase hybrid nanoflowers with superior activity and enhanced stability , 2020, Biochemical Engineering Journal.
[32] Veymar G. Tacias-Pascacio,et al. Production and characterization of biodiesel from oil of fish waste by enzymatic catalysis , 2020 .
[33] Z. Weiwei,et al. Di‐functional magnetic nanoflowers: A highly efficient support for immobilizing penicillin G acylase , 2020 .
[34] R. Fernández-Lafuente,et al. Modulating the properties of the lipase from Thermomyces lanuginosus immobilized on octyl agarose beads by altering the immobilization conditions. , 2020, Enzyme and microbial technology.
[35] Jinfeng Xing,et al. Magnetic nanoparticles encapsulated laccase nanoflowers: evaluation of enzymatic activity and reusability for degradation of malachite green. , 2020, Water science and technology : a journal of the International Association on Water Pollution Research.
[36] Hao Zhou,et al. Self-assembly of lipase hybrid nanoflowers with bifunctional Ca2+ for improved activity and stability. , 2020, Enzyme and microbial technology.
[37] Yao Li,et al. A novel catalytic material for hydrolyzing cow's milk allergenic proteins: Papain-Cu3(PO4)2·3H2O-magnetic nanoflowers. , 2019, Food chemistry.
[38] J. H. Z. Santos,et al. Amylases immobilization by sol–gel entrapment: application for starch hydrolysis , 2019, Journal of Sol-Gel Science and Technology.
[39] B. Nidetzky,et al. The Microenvironment in Immobilized Enzymes: Methods of Characterization and Its Role in Determining Enzyme Performance , 2019, Molecules.
[40] O. Barbosa,et al. Immobilization of lipases on hydrophobic supports: immobilization mechanism, advantages, problems, and solutions. , 2019, Biotechnology advances.
[41] Veymar G. Tacias-Pascacio,et al. Comparison of acid, basic and enzymatic catalysis on the production of biodiesel after RSM optimization , 2019, Renewable Energy.
[42] R. Fernández-Lafuente,et al. Immobilization on octyl‐agarose beads and some catalytic features of commercial preparations of lipase a from Candida antarctica (Novocor ADL): Comparison with immobilized lipase B from Candida antarctica , 2018, Biotechnology progress.
[43] Y. Li,et al. Synthesis and continuous catalytic application of alkaline protease nanoflowers–PVA composite hydrogel , 2018, Catalysis Communications.
[44] Anming Wang,et al. Efficient synthesis of vitamin A palmitate in nonaqueous medium using self-assembled lipase TLL@apatite hybrid nanoflowers by mimetic biomineralization , 2018, Green Chemistry Letters and Reviews.
[45] J. Ren,et al. Biomimetic nanoflowers by self-assembly of nanozymes to induce intracellular oxidative damage against hypoxic tumors , 2018, Nature Communications.
[46] J. Pinto,et al. Pilot-scale development of core-shell polymer supports for the immobilization of recombinant lipase B fromCandida antarcticaand their application in the production of ethyl esters from residual fatty acids , 2018, Journal of Applied Polymer Science.
[47] Bharat P. Dwivedee,et al. An Ultrafast Sonochemical Strategy to Synthesize Lipase-Manganese Phosphate Hybrid Nanoflowers with Promoted Biocatalytic Performance in the Kinetic Resolution of β-Aryloxyalcohols , 2018, ChemNanoMat.
[48] Martin Müller,et al. Multifunctional crosslinkable itaconic acid copolymers for enzyme immobilization , 2018 .
[49] M. Kim,et al. Preparation of glutaraldehyde-treated lipase-inorganic hybrid nanoflowers and their catalytic performance as immobilized enzymes. , 2017, Enzyme and microbial technology.
[50] O. Barbosa,et al. Polyethylenimine: a very useful ionic polymer in the design of immobilized enzyme biocatalysts. , 2017, Journal of materials chemistry. B.
[51] Veymar G. Tacias-Pascacio,et al. Evaluation of different lipase biocatalysts in the production of biodiesel from used cooking oil: Critical role of the immobilization support , 2017 .
[52] C. Bernal,et al. Understanding the functional properties of bio-inorganic nanoflowers as biocatalysts by deciphering the metal-binding sites of enzymes. , 2017, Journal of materials chemistry. B.
[53] Christina T. Lollar,et al. Enzyme-MOF (metal-organic framework) composites. , 2017, Chemical Society reviews.
[54] Yanjun Jiang,et al. Monodisperse core-shell magnetic organosilica nanoflowers with radial wrinkle for lipase immobilization , 2017 .
[55] R. Fernández-Lafuente,et al. Agarose and Its Derivatives as Supports for Enzyme Immobilization , 2016, Molecules.
[56] Veymar G. Tacias-Pascacio,et al. Evaluation of different commercial hydrophobic supports for the immobilization of lipases: tuning their stability, activity and specificity , 2016 .
[57] Yanjun Jiang,et al. Lipase Immobilization through the Combination of Bioimprinting and Cross-Linked Protein-Coated Microcrystal Technology for Biodiesel Production , 2016 .
[58] Ki‐Hyun Kim,et al. Recent advances in enzyme immobilization techniques: Metal-organic frameworks as novel substrates , 2016 .
[59] Veymar G. Tacias-Pascacio,et al. Design of a core–shell support to improve lipase features by immobilization , 2016 .
[60] S. Jia,et al. Surfactant-activated lipase hybrid nanoflowers with enhanced enzymatic performance , 2016, Scientific Reports.
[61] Lei Tian,et al. Preparation of lipase/Zn3(PO4)2 hybrid nanoflower and its catalytic performance as an immobilized enzyme , 2016 .
[62] M. Kim,et al. Organic–inorganic hybrid nanoflowers: types, characteristics, and future prospects , 2015, Journal of Nanobiotechnology.
[63] R. Fernández-Lafuente,et al. Tuning the catalytic properties of lipases immobilized on divinylsulfone activated agarose by altering its nanoenvironment. , 2015, Enzyme and microbial technology.
[64] Ángel Berenguer-Murcia,et al. Strategies for the one-step immobilization-purification of enzymes as industrial biocatalysts. , 2015, Biotechnology advances.
[65] D. Freire,et al. Immobilization of lipases on hydrophobic supports involves the open form of the enzyme. , 2015, Enzyme and microbial technology.
[66] A. G. Cunha,et al. Preparation of core–shell polymer supports to immobilize lipase B from Candida antarctica: Effect of the support nature on catalytic properties , 2014 .
[67] Weihong Tan,et al. Noncanonical self-assembly of multifunctional DNA nanoflowers for biomedical applications. , 2013, Journal of the American Chemical Society.
[68] Bernd Nidetzky,et al. Quantitating intraparticle O2 gradients in solid supported enzyme immobilizates: Experimental determination of their role in limiting the catalytic effectiveness of immobilized glucose oxidase , 2013, Biotechnology and bioengineering.
[69] C. Ortiz,et al. Modifying enzyme activity and selectivity by immobilization. , 2013, Chemical Society reviews.
[70] Roger A Sheldon,et al. Enzyme immobilisation in biocatalysis: why, what and how. , 2013, Chemical Society reviews.
[71] Jun Ge,et al. Protein-inorganic hybrid nanoflowers. , 2012, Nature nanotechnology.
[72] R. Sheldon. Characteristic features and biotechnological applications of cross-linked enzyme aggregates (CLEAs) , 2011, Applied Microbiology and Biotechnology.
[73] Á. Berenguer-Murcia,et al. Coupling Chemical Modification and Immobilization to Improve the Catalytic Performance of Enzymes , 2011 .
[74] R. Fernández-Lafuente,et al. Hydrolysis of triacetin catalyzed by immobilized lipases: effect of the immobilization protocol and experimental conditions on diacetin yield. , 2011, Enzyme and microbial technology.
[75] Roberto Fernandez-Lafuente,et al. Lipase from Thermomyces lanuginosus: Uses and prospects as an industrial biocatalyst , 2010 .
[76] R. Fernández-Lafuente,et al. Interfacially activated lipases against hydrophobic supports: Effect of the support nature on the biocatalytic properties , 2008 .
[77] Roberto Fernandez-Lafuente,et al. Improvement of enzyme activity, stability and selectivity via immobilization techniques , 2007 .
[78] Matthias Reuss,et al. Investigations of Reaction Kinetics for Immobilized Enzymes—Identification of Parameters in the Presence of Diffusion Limitation , 2008, Biotechnology progress.
[79] M. Kreiner,et al. Protein-coated Microcrystals for use in Organic Solvents: Application to Oxidoreductases , 2005, Biotechnology Letters.
[80] A. Al-Muftah,et al. Effects of internal mass transfer and product inhibition on a simulated immobilized enzyme-catalyzed reactor for lactose hydrolysis , 2005 .
[81] R. Sheldon,et al. Preparation, optimization, and structures of cross‐linked enzyme aggregates (CLEAs) , 2004, Biotechnology and bioengineering.
[82] T. E. Abraham,et al. Strategies in making cross-linked enzyme crystals , 2004 .
[83] M. Kreiner,et al. High‐activity biocatalysts in organic media: solid‐state buffers as the immobilisation matrix for protein‐coated microcrystals , 2004, Biotechnology and bioengineering.
[84] R. Fernández-Lafuente,et al. Cross-linked aggregates of multimeric enzymes: a simple and efficient methodology to stabilize their quaternary structure. , 2004, Biomacromolecules.
[85] R. Sheldon,et al. Cross-linked enzyme aggregates: a simple and effective method for the immobilization of penicillin acylase. , 2000, Organic letters.
[86] S. Varanasi,et al. A mathematical model for the generation and control of a pH gradient in an immobilized enzyme system involving acid generation. , 1998, Biotechnology and bioengineering.
[87] H. Waldmann,et al. Cross‐Linked Enzyme Crystals (CLECs): Efficient and Stable Biocatalysts for Preparative Organic Chemistry , 1997 .
[88] R. Fernández-Lafuente,et al. Industrial design of enzymic processes catalysed by very active immobilized derivatives: utilization of diffusional limitations (gradients of pH) as a profitable tool in enzyme engineering , 1994, Biotechnology and applied biochemistry.
[89] S. Varanasi,et al. Generation of a pH gradient in an immobilized enzyme system , 1993, Biotechnology and bioengineering.
[90] D. Lombardo,et al. Effect of alcohols on the hydrolysis catalyzed by human pancreatic carboxylic-ester hydrolase. , 1981, Biochimica et biophysica acta.
[91] G. Whitesides,et al. Enzyme immobilization by condensation copolymerization into crosslinked polyacrylamide gels , 1980 .
[92] M. M. Bradford. A rapid and sensitive method for the quantitation of microgram quantities of protein utilizing the principle of protein-dye binding. , 1976, Analytical biochemistry.