Resources

Proteomics Databases



Metabolomics Databases

• • What Are the Protein Protein Interaction Databases?

  Protein-protein interaction databases primarily record experimentally validated protein-protein interaction information. Here are some major protein-protein interaction databases:- BioGRID: The Biological General Repository for Interaction Datasets provides protein and gene interaction data across species.- DIP: The Database of Interacting Proteins records protein interactions obtained from scientific literature.

• • Acetylome Quantitative Proteomics of Spirulina

  Spirulina, due to its unique nutritional composition and potential bioactivity, has become a focus of biotechnology research. As a unicellular microalga, Spirulina has wide applications in bioproducts, food, and pharmaceutical industries. Acetylation is an important post-translational modification that affects protein function, localization, and stability.

• • Analysis of Phospholipids in Liver Tissue

  As the main biotransformation center in the human body, the liver is responsible for various biological activities such as metabolism, detoxification, and storage. Phospholipids in liver tissue are one of the key substances involved in these functions. Accurate analysis of phospholipids in liver tissue can provide important information for disease research and can also provide new research directions for drug development.

• • Nannochloropsis mRNA 3' poly(A) tail Analysis

  Nannochloropsis, as a widely existing single-celled photosynthetic microorganism in freshwater and marine environments, has attracted high attention from the scientific community due to its enormous potential in bioenergy production, CO2 fixation, and synthesis of high-value bioactive compounds.

• • Selection of Antibodies: 10 Steps

  Antibodies possess the ability to specifically recognize antigens, enabling precise detection of the expression and function of target proteins. This is crucial for unraveling biological processes, understanding disease mechanisms, and advancing medical treatment and prevention. Selecting the correct antibodies ensures the accuracy and reliability of experimental results, providing strong support for scientific research and clinical applications.

• • Sequencing of Proteins, Peptides, and Antibodies in Biomedicine

  Protein, peptide, and antibody sequencing technologies play a crucial role in the field of biomedicine. These technologies not only provide researchers with the ability to gain a deep understanding of the structure and function of biomolecules but also offer powerful technical support for precision medicine, drug design optimization, as well as disease diagnosis and treatment.

• • Tandem MS for Amino Acid Sequencing

  Amino acid sequence analysis is an important part of protein structure analysis and has a profound impact on understanding protein function. In recent years, tandem mass spectrometry (MS/MS) has played a crucial role in the analysis of amino acid sequences, with its high sensitivity and accuracy making it the preferred method for amino acid sequence analysis.

• • Antibody Sequencing: Insights for Drug Design

  Antibody sequencing technology is an essential component of modern biotechnology and has made significant advancements in the field of antibody drug design in recent years. Through precise sequencing of antibodies, we can gain in-depth understanding of their structure and functional characteristics, thus providing important basis and inspiration for the design of antibody drugs.

• • Protein Modifications and Metabolome Study in Plant Stems

  Plant stems and veins are important organs in plants, responsible for nutrient and water transportation, as well as the foundation for plant growth and development. The post-translational modified protein groups and metabolome in plant stems and veins are important tools for studying their functions.

• • Plant Root System IEF-Based Protein Isoelectric Point Analysis

  Plant root systems are the main sites for interaction with the soil, where proteins play a key role in regulating plant growth, nutrient absorption, and response to environmental stress. Through IEF technology, researchers can isolate proteins in root samples, and then identify them with other techniques (such as mass spectrometry) to understand their functions.