We believe that collaboration and knowledge sharing are essential for advancing genomics research. Our facility offers consultation sessions with our experts, where we discuss project design, experimental strategies, and data analysis approaches tailored to your specific research goals. Additionally, we organize training programs and workshops to equip researchers with the necessary skills and expertise to independently conduct genomics experiments and data analysis.

Untargeted metabolomics and lipidomics screening are advanced analytical techniques used in the field of life sciences to comprehensively analyze and identify a wide range of metabolites and lipids within a biological sample. These techniques aim to provide a holistic view of the metabolic and lipidomic profile of the sample without focusing on specific compounds or pathways.

Targeted metabolomics and lipidomics screening are specialized analytical techniques used in the field of life sciences to focus on the quantitative analysis of specific metabolites or lipid molecules within a biological sample. Unlike untargeted approaches that aim to capture a broad range of compounds, targeted screening hones in on a predetermined set of metabolites or lipids of interest.

The Omega-3 index analysis by Gas Chromatography with Flame Ionization Detection (GC FID) is a method to measure the levels of omega-3 fatty acids, such as EPA (eicosapentaenoic acid) and DHA (docosahexaenoic acid), in a sample of blood or tissue. GC FID separates and quantifies fatty acids based on their chemical properties, providing insights into an individual's omega-3 fatty acid status, which is linked to various health benefits including cardiovascular health and inflammation regulation.

Vitamin D3 analysis by LC-MS quantifies the metabolite 25OH-VitD3, distinguishing between epi-25OH-D3 and 25OH-D3. This method precisely measures these forms of vitamin D metabolites, important for assessing overall vitamin D status and its various health impacts.

Small molecule identification and impurity analysis are performed using Liquid Chromatography-Mass Spectrometry (LCMS). LCMS allows for the precise separation and detection of metabolites within biological samples. Through this advanced technique, researchers can identify small molecules and define impurities, providing valuable insights into sample purity essential for accurate research outcomes.