Resources

Proteomics Databases



Metabolomics Databases

• • Comprehensive Workflow Analysis of Proteomics Sequencing

  Proteomics sequencing is a key technology for studying the proteome. It provides important information for a comprehensive analysis of protein composition, structure, and function, aiding in the deeper understanding of biological mechanisms and the development of diseases. This article will provide a detailed overview of the proteomics sequencing process, from sample preparation to data analysis, to help readers gain a comprehensive understanding of the entire process.

• • How to Use Proteomics DIA to Reveal Disease Molecular Mechanisms?

  Proteins play a crucial role in the occurrence and development of diseases, and understanding the molecular mechanisms of diseases is essential for the development of new therapeutic methods and precision medicine. Protein-based DIA (Data-Independent Acquisition) technology, as a high-throughput, comprehensive, and quantitative protein analysis method, has played an important role in uncovering the molecular mechanisms of diseases.

• • Comprehensive Analysis from Protein Repertoire to Biological Processes

  Proteomics is a scientific field that focuses on studying the expression, structure, and function of proteins in the proteome. The proteome refers to the complete set of proteins present in a cell, tissue, or organism under specific conditions. Through proteomic studies, we can gain in-depth understanding of the roles proteins play in biological processes, unravel cellular functions, disease mechanisms, and explore the potential for developing biopharmaceuticals.

• • How to Optimize Proteomics TMT Experimental Design and Sample Prep?

  Proteomics is a key technology for studying the composition and function of proteins in biological organisms. In proteomic research, TMT (Tandem Mass Tagging) technology has become a commonly used quantitative method. It involves labeling proteins in different samples with specific marker molecules and then analyzing them using mass spectrometry.

• • Why Choose Absolute Quantification in Proteomics Analysis?

  Proteomics is a scientific field that studies the composition, structure, and function of all proteins within an organism. As the development and application of bioproducts continue to increase, accurate analysis of protein expression levels has become increasingly important. In proteomics research, absolute quantification methods are preferred due to their accuracy and reliability.

• • How to Interpret IP Sample Protein Mass Spectrometry Results?

  Protein mass spectrometry, as a unique tool for biological analysis, is increasingly valued and used by researchers. Among them, IP sample proteomics is an important branch in this field. However, many beginners or non-professionals may be confused about how to interpret "IP sample proteomics results.

• • How to Analyze IP Mass Spectrometry Results?

  IP-MS (Immunoprecipitation Mass Spectrometry), as an interdisciplinary research technique that encompasses biochemistry, molecular biology, and mass spectrometry, is widely used in the field of biomedical research. It enables the study of protein co-precipitation and protein-protein interactions, ultimately advancing the progress of drug development.

• • Can Mass Spectrometry-Based Proteomics Study Peptide Structure and Function?

  Proteins are important biomolecules in living organisms and they are involved in almost all cellular activities. Peptides are important components of proteins and play crucial roles in signal transduction, immune regulation, drug action, and more. Understanding the structure and function of peptides is essential for research in the field of biopharmaceuticals and drug development.

• • Label-Free Quantitative Proteomics Technique

  Proteomics is the field that studies the overall composition and expression of proteins in biological organisms, and it is of great significance for understanding biological processes and disease development. Non-labeled quantitative proteomics technology is a high-throughput and highly sensitive analytical method that can compare the relative abundance of proteins in samples without labeled molecules.

• • Spatial Proteomics of Tuberculosis Revealing Molecular Mechanisms of Pulmonary Lesions

  Tuberculosis is an infectious disease caused by Mycobacterium tuberculosis and poses a serious threat to global public health. Despite the availability of numerous anti-tuberculosis drugs and vaccines, the complex pathogenesis of tuberculosis makes it difficult to eradicate. In recent years, spatial proteomics of tuberculosis has emerged as a novel technique, providing new insights into the molecular mechanisms of pulmonary tuberculosis lesions.