Resources

Proteomics Databases



Metabolomics Databases

• • Mechanism of Protein Full-Length Sequencing

  Proteins are essential molecules that execute a variety of functions within organisms, including catalysis, structural support, and regulation. Precisely determining the amino acid sequences of proteins is critical for studying their structure and function. Full-length protein sequencing involves multiple methods and steps to analyze complex protein samples comprehensively.

• • Application of Protein Full-Length Sequencing

  Full-Length Protein Sequencing (FLPS) is a technique that allows the comprehensive sequencing of a protein molecule from its N-terminus to its C-terminus. Recent advancements in this technology have opened new avenues in biological research, particularly in understanding protein structure-function relationships, elucidating disease mechanisms, and developing new drugs.

• • Workflow of Protein Full-Length Sequencing

  Full-length protein sequencing is a sophisticated and vital technique that plays a crucial role in proteomics research. By determining the precise amino acid sequence of proteins, researchers can gain a deeper understanding of protein structure and function, thereby advancing fields such as disease research and drug development.

• • Principle of Protein Full-Length Sequencing

  Proteins are fundamental molecules in biological processes, with their structures and functions directly impacting the physiology of organisms. Determining the full-length sequence of proteins is crucial for understanding their functional mechanisms, designing drugs, and studying diseases. Protein full-length sequencing involves accurately determining the amino acid sequence of a protein from the N-terminus to the C-terminus through various technical approaches.

• • Mechanism of Protein Sequence Analysis

  Protein sequence analysis is a critical aspect of molecular biology that delves into the intricate details of amino acid sequences to uncover the mysteries of protein structure, function, and evolution.

• • Application of Protein Sequence Analysis

  Protein sequence analysis has become a cornerstone in the field of molecular biology, providing invaluable insights into the structure, function, and evolutionary history of proteins. This analytical technique has widespread applications, from understanding disease mechanisms to advancing biotechnology and drug discovery.

• • Workflow of Protein Sequence Analysis

  Protein sequence analysis is a cornerstone of modern biotechnology, providing crucial insights into protein function, structure, and interactions. The workflow of protein sequence analysis typically involves several key steps, each critical for the accurate interpretation of proteomic data.

• • Principle of Protein Sequence Analysis

  Protein sequence analysis is a critical component of modern biological research. It involves identifying the amino acid sequence of proteins, which is crucial for understanding their structure and function. The analysis typically includes several key principles:

• • Mechanism of Peptide Mass Fingerprinting

  Peptide mass fingerprinting (PMF) is a pivotal technique in the field of proteomics, enabling the identification of proteins with high precision and efficiency. This method leverages mass spectrometry to analyze peptide masses derived from protein digests, providing a unique "fingerprint" that can be matched against protein databases.

• • Application of Peptide Mass Fingerprinting

  Peptide mass fingerprinting (PMF) is a robust and efficient technique that has significantly advanced the field of proteomics. By enabling the precise identification of proteins through mass spectrometric analysis of peptide fragments, PMF has found a wide range of applications in biological and clinical research.