Performing RNA splicing experiments to analyze gene expression patterns.

Designing and optimizing splicing assays for high-throughput screening.

Analyzing and interpreting splicing data using bioinformatics tools.

Developing novel therapeutic strategies targeting splicing defects.

Investigating the role of splicing factors in disease pathogenesis.

Conducting research on alternative splicing events in cancer cells.

Collaborating with other scientists to advance splicing research.

Presenting research findings at scientific conferences and publications.

Writing grant proposals to secure funding for splicing projects.

Mentoring junior researchers and students in splicing techniques.

Cutting DNA into smaller fragments using restriction enzymes for analysis.

Inserting DNA fragments into vectors to create multiple copies of specific genes.

Using PCR to amplify specific DNA sequences for further study and manipulation.

Separating DNA fragments by size using gel electrophoresis techniques.

Determining the precise order of nucleotides in DNA molecules.

Creating genomic or cDNA libraries for comprehensive genetic analysis.

Introducing specific mutations into DNA sequences to study gene function.

Detecting specific DNA sequences in a sample using Southern blotting.

Designing primers for PCR and sequencing reactions.

Analyzing sequencing data and interpreting results.