Effect of Surface Modification of Inorganic Materials with Amino Acids of Different Physicochemical Properties on Enzyme Immobilization Efficiency and Stability

Research Topic
Abstract

Thesis level: Master

This Master's thesis focuses on the investigation of the effect of surface modification of inorganic materials with amino acids exhibiting different physicochemical properties (e.g., acidic, basic, polar, and hydrophobic) on enzyme immobilization efficiency and the performance of the resulting biocatalysts. Selected inorganic supports will be functionalized with amino acids prior to enzyme immobilization. The immobilized enzymes will be evaluated in terms of immobilization efficiency, catalytic activity, stability under operational conditions, and reusability. The study is expected to provide a better understanding of the relationship between surface chemistry and enzyme–support interactions, as well as to identify effective surface modification strategies for improving the activity and long-term operational stability of immobilized enzymes.

Keywords
inorganic materials
aminoacid
modification
enzyme immobilization
ERC sector(s)
PE Physical Sciences and Engineering
Host Researcher Info
Name Surname
Agnieszka Kołodziejczak-Radzimska
E-mail
agnieszka.kolodziejczak-radzimska@put.poznan.pl
Department/Faculty/School/Institute/Area/Division
Faculty of Chemical Technology
EUNICE University
Poznan University of Technology (PUT)
Country
Poland
EUNICE contact e-mail
anna.jaskolska@put.poznan.pl
Mobility additional info
Thesis mode
On-site
Start date
Call deadline
Length of the research internship
6 months
Financial support available (other than E+)
No
Applicant (Student) info
Current position at home university
Master student
Minimal language knowledge requisite
English B2
Research interests for cooperation opportunities
Research interests include the synthesis, surface engineering, modification, and comprehensive physicochemical characterization of inorganic and organic–inorganic materials, with a focus on functionalization using biopolymers and natural-origin compounds.