The Multi-Omics Facility is dedicated to integrating cutting-edge technologies to advance research into the complexity of biological systems. By combining spatial omics, targeted proteomics, and bioinformatics, the facility provides powerful tools for researchers to uncover the microscopic mechanisms and dynamic changes in biological processes. The core technologies of the facility include:
1. Spatial Omics: Spatial omics integrates molecular biology and imaging technologies to precisely locate and analyze the spatial distribution of specific molecules at the single-cell level. This technology captures the spatial features of gene expression in tissues or organs, revealing cell-cell interactions, dynamic changes in tissue microenvironments, and disease-specific spatial characteristics. It is widely applied in fields such as tumor microenvironments and neuroscience, helping to deepen the understanding of complex biological processes.
2. Targeted Proteomics: Targeted proteomics, based on antibody technology, enables high-precision quantification of specific proteins and their changes under different conditions. This technology can sensitively detect low-abundance biomarkers with high reproducibility and quantitative accuracy, making it widely applicable in biomarker validation, new drug target identification, and disease mechanism research.
3. Bioinformatics: The bioinformatics team employs advanced methods such as machine learning, statistical analysis, and network modeling to extract meaningful insights from vast omics datasets. By integrating spatial omics and proteomics data, bioinformatics reveals connections across different omics layers, accelerating drug discovery and the progress of precision medicine.
Through the integration of these technologies, the Multi-Omics Facility provides researchers with comprehensive analytical tools, driving exploration and breakthroughs at the forefront of science.