Marcin Chmielewski | Synthetic Chemistry | Excellence in Innovation

Dr. Marcin Chmielewski, Future Synthesis / Insitiute of Bioorganic Chemistry, Poland.

Dr. Marcin K. Chmielewski, is a renowned researcher and professor at the Institute of Bioorganic Chemistry, Polish Academy of Sciences (IBCh PAN) in Poznań. His work focuses on synthetic chemistry, particularly the development of novel protecting groups for oligonucleotide synthesis and DNA microarray applications. He has over 500 citations and has published extensively in high-impact scientific journals.

Publication profile

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Scopus

Education and Experience

PhD in Bioorganic Chemistry, Polish Academy of Sciences
Post-doctoral Research at various prestigious institutions
Professor, Institute of Bioorganic Chemistry, Polish Academy of Sciences
Research Focus: Nucleoside Chemistry, Oligonucleotide Synthesis, Thermolabile Protecting Groups
Peer-Reviewed Publications: Over 30+ publications in leading scientific journals
Citations: 527 citations, h-index 14

Suitability For The Award

MK Chmielewski is highly suitable for the Excellence in Innovation award due to his transformative contributions to organic chemistry and nucleic acid synthesis. His groundbreaking work on thermolabile protecting groups, click chemistry applications for DNA microarrays, and advanced bioconjugation strategies exemplifies cutting-edge innovation. These advancements have streamlined synthetic methodologies, enhanced efficiency in oligonucleotide production, and expanded the practical applications of nucleic acid technologies in biotechnology and medicine. His research not only addresses fundamental scientific challenges but also translates into impactful real-world solutions. Widely recognized through high-impact publications and citations, Chmielewski’s work embodies the principles of ingenuity, creativity, and transformative impact.

Professional Development

Dr. Chmielewski has consistently expanded his expertise through involvement in cutting-edge research on thermolabile protecting groups and functionalized DNA microarrays. He collaborates internationally, regularly contributing to and leading research initiatives in nucleoside chemistry. He actively participates in scientific conferences and has received numerous invitations to share his findings globally, cementing his reputation in the chemical biology community. His research is widely recognized for its practical applications in biotechnology and pharmacology.

Research Focus

Dr. Chmielewski’s research centers on synthetic chemistry, particularly the design and synthesis of novel thermolabile protecting groups for nucleosides and oligonucleotides. He has made significant contributions to the development of chemical tools used in DNA microarrays, click chemistry, and phosphorothioate synthesis. His work enhances the stability, reactivity, and applications of nucleic acid chemistry, providing foundational tools for future advancements in genetic engineering, diagnostics, and biotechnology. His research also includes surface chemistry techniques for biomolecule immobilization.

Publications

The 3-(N-tert-Butylcarboxamido)-1-propyl Group as an Attractive Phosphate/Thiophosphate Protecting Group for Solid-Phase Oligodeoxyribonucleotide Synthesis – Cited by: 87, Year: 2002
Application of Click Chemistry to the Production of DNA Microarrays – Cited by: 39, Year: 2012
The 4-Oxopentyl Group as a Labile Phosphate/Thiophosphate Protecting Group for Synthetic Oligodeoxyribonucleotides – Cited by: 37, Year: 2001
Protecting of a Thermolabile Protecting Group: “Click-clack” Approach – Cited by: 26, Year: 2009
Disulfide Bridge as a Linker in Nucleic Acids’ Bioconjugation. Part II: A Summary of Practical Applications – Cited by: 25, Year: 2020

Prof. Xueliang Shi| Non-covalent interactions Award | Best Researcher Award

Prof. Xueliang Shi , East China Normal University , China

Xueliang Shi (史学亮) 🧬 is a distinguished chemist hailing from the People’s Republic of China, currently serving as a Professor at the School of Chemistry and Molecular Engineering, East China Normal University. With a rich academic journey that includes a PhD from the National University of Singapore under the guidance of Professors Chunyan Chi and Jishan Wu, his expertise spans multi-step organic synthesis, semiconductor materials, and advanced spectroscopic techniques like UV-vis, cyclic voltammetry, NMR, and EPR spectroscopy. His research interests converge on pioneering fronts: exploring the design and synthesis of organic radicals, integrating radical chemistry with supramolecular chemistry to innovate new molecular architectures, and advancing π-conjugated materials for organic semiconductors, particularly in applications such as field-effect transistors and solar cells. Xueliang Shi’s multidisciplinary approach underscores his commitment to pushing the boundaries of molecular science, aiming to unlock new possibilities at the intersection of chemistry and materials engineering.

Profile :

Education

2018.10 – now: Professor, School of Chemistry and Molecular Engineering, East China Normal University

2016.9 – 2018.10: Research Associate, Materials Science and Engineering, University of Washington

Supervisor: Professor Alex K-Y. Jen

2015.9 – 2016.8: Research Assistant, Department of Chemistry, National University of Singapore

Supervisor: Professor Chunyan Chi
Co-Supervisor: Professor Jishan Wu

2011.8 – 2015.8: PhD, Department of Chemistry, National University of Singapore

Supervisor: Professor Chunyan Chi
Co-Supervisor: Professor Jishan Wu
Thesis: Quinoidal Compounds: Synthesis, Structures, Properties and Their Applications for Field Effect Transistors

Research Interests

Organic radicals: Design and synthesis of novel organic radicals; investigating structure-property-application relationships.

Supramolecular chemistry: Integration of traditional supramolecular chemistry with radical chemistry to create new molecules and materials.

Organic semiconductors: Development of new π-conjugated (supramolecular radical) materials for applications in organic semiconductors, including field-effect transistors and solar cells.