Splice Genes in Protein Diversity and Tissue-Specific Regulation: Advances and Applications I. Biological Basis of Alternative Splicing and Protein Diversity 1. Prevalence and Molecular Mechanisms Alternative splicing, a central post-transcriptional regulatory mechanism, generates multiple mRNA isof … Splice Genes in Protein Diversity and Tissue-Specific Regulation: Advances and ApplicationsRead more
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Strategies and Recent Advances in Viral Gene-Based Disease Prevention
Strategies and Recent Advances in Viral Gene-Based Disease Prevention The unique biological properties of viral genes—such as high infectivity, target specificity, and programmability—have revolutionized disease prevention. By engineering viral vectors or leveraging viral genome characteristics, sci … Strategies and Recent Advances in Viral Gene-Based Disease PreventionRead more
The Research Significance of Viral Genes in Medical Applications, Gene Therapy, Evolution, and Epidemiology
The Research Significance of Viral Genes in Medical Applications, Gene Therapy, Evolution, and Epidemiology I. Core Roles of Viral Genes in Medical Applications 1. Breakthroughs in Gene Therapy Vectors Genetically engineered viruses serve as efficient gene delivery tools, leveraging their natural in … The Research Significance of Viral Genes in Medical Applications, Gene Therapy, Evolution, and EpidemiologyRead more
SynBio V: Engineering Viral Vectors for mRNA Vaccine Design and Production
SynBio V: Engineering Viral Vectors for mRNA Vaccine Design and Production Integrating Viral Delivery Systems with Synthetic Biology Tools 1. Technological Foundations: Synthetic Biology Reengineering of Viral Vectors Viral vectors, as core mRNA delivery tools, require synthetic biology modification … SynBio V: Engineering Viral Vectors for mRNA Vaccine Design and ProductionRead more
Vector Vaccines: A Cornerstone Tool Against Emerging Infections, Cancer, and Genetic Diseases
Vector Vaccines: A Cornerstone Tool Against Emerging Infections, Cancer, and Genetic Diseases Core Mechanisms and Technical Principles Vector vaccines use engineered viruses or bacteria as delivery vehicles to introduce foreign antigen genes into host cells, triggering specific immune responses. Key … Vector Vaccines: A Cornerstone Tool Against Emerging Infections, Cancer, and Genetic DiseasesRead more
CRISPR Flow: Integrated Applications in Infectious Disease Diagnosis, Cancer Screening, and Genetic Disorder Analysis
CRISPRFlow: Integrated Applications in Infectious Disease Diagnosis, Cancer Screening, and Genetic Disorder Analysis CRISPR technology has evolved from a gene-editing tool into a comprehensive solution spanning disease diagnosis, therapeutic development, and precision medicine. Its core strengths—hi … CRISPR Flow: Integrated Applications in Infectious Disease Diagnosis, Cancer Screening, and Genetic Disorder AnalysisRead more
ViralVectorAI: The Role and Future of AI-Driven Viral Vector Technology in Gene Editing
ViralVectorAI: The Role and Future of AI-Driven Viral Vector Technology in Gene Editing The integration of AI and viral vector technology is revolutionizing gene editing, driving advancements in precision, intelligence, and industrial scalability. By optimizing vector design, predicting editing outc … ViralVectorAI: The Role and Future of AI-Driven Viral Vector Technology in Gene EditingRead more
VectorVaccines:（Vector Vaccines） Advantages and Challenges Compared to Traditional Vaccines
Vector Vaccines: Advantages and Challenges Compared to Traditional Vaccines I. Innovative Technical Principles Vector vaccines use genetic engineering to insert pathogen antigen genes into harmless viral (e.g., adenovirus, poxvirus, VSV) or bacterial vectors. These vectors deliver antigens to host c … VectorVaccines:（Vector Vaccines） Advantages and Challenges Compared to Traditional VaccinesRead more