Qianbing Mou

WEBSITE(S)| Mou Lab

SURF Mentoring

Potential projects/topics: The Mou Lab focuses on developing chemical biology tools to study RNA biology and explore novel RNA-related technologies. Potential projects for undergraduate researchers include: 1. Developing tools to map the 3D spatial distribution of mRNAs in single cells and tissues to gain insights into biological processes such as cancer heterogeneity, developmental biology, and neuroscience. 2. Engineering site-specific mRNA modifications to understand their role in mRNA transport, translation, stability, and immunogenicity, with applications in mRNA vaccine development. 3. Contributing to the design of high-fidelity CRISPR/Cas gRNA systems for precise gene editing, with potential applications in disease detection and treatment.

Potential skills gained: Students will gain hands-on experience in: 1. Basic laboratory techniques (pipetting, gel electrophoresis, and solution preparation). 2. RNA biology, including RNA synthesis, modification, and purification. 3. Molecular biology techniques such as PCR and DNA/RNA sequencing. 4. Experimental design, troubleshooting, and scientific communication skills. Collaboration and interdisciplinary research in chemical biology and b

Required qualifications or skills: Preferred majors: Chemistry, Biochemistry, Bioengineering, or Biology. No prior lab experience is required; training will be provided. Basic coursework in chemistry or biology is recommended. A willingness to learn, attention to detail, and strong organizational skills are essential.

Direct mentor: Faculty/P.I., Post-doctorate, Graduate Student

Research Areas

The Mou Lab is dedicated to developing diverse chemical biology tools to explore RNA biology and enhance RNA-related technologies. We aim to create tools that elucidate the spatial information of biomacromolecules within various biological systems. Additionally, our lab is committed to advancing several areas, such as the development of chemical biology tools for mRNA-based therapies and the engineering of high-fidelity gene editing systems. Our goal is to integrate cutting-edge technologies with our tool development efforts to gain insights into complex biological processes and translate these technologies into applications for biosensing as well as disease detection and treatment.