PEPTIDE RESEARCH
At the International Institute of Translational Medicine (MIMT), we conduct advanced research on the design, synthesis, and characterization of biologically active peptides – amino acid sequences with broad therapeutic, regenerative, and protective potential. Owing to their structure and functional versatility, peptides play a crucial role in modulating biological processes, making them promising tools in human medicine, veterinary medicine, and industrial biotechnology.
Our research encompasses both the synthesis of peptides with defined biological functions and the evaluation of their activity in in vitro and preclinical models. The overarching goal is to develop innovative therapeutic molecules capable of supporting tissue regeneration, alleviating inflammation, and protecting organs from damage.
Scientific Activities
Advanced Synthesis
Design and synthesize peptides using advanced chemical synthesis techniques.
Sequence Optimization
Optimize sequences to enhance stability, biological activity, and specific therapeutic functions.
Biological Characterization
Characterize biological properties through cellular assays and preclinical studies.
Prototype Solutions
Develop prototype solutions for biomedical and veterinary applications.
Types of Peptides We Develop
Within our research program, we focus on several major classes of peptides:
Pro-regenerative Peptides
We design peptides that support tissue healing and regenerative processes. These molecules often modulate cellular signaling pathways and influence extracellular matrix production, thereby
accelerating repair of damaged tissues.
Gastroprotective Peptides
We develop peptides with protective activity toward the gastrointestinal mucosa, with potential applications in the treatment of ulcers.
Anti-inflammatory Peptides
We investigate peptides capable of attenuating excessive inflammatory responses, which is particularly important in both human and veterinary medicine.
Carefully designed amino acid sequences may influence cytokine production, receptor activity, and immune signaling pathways, helping to reduce tissue damage.