Little is known about the functional significance of this alternative splicing.

The ability to make different proteins from the same gene is known as alternative splicing.

Alternative splicing might play a role in this apparent discrepancy.

The biological significance of alternative splicing is yet to be determined.

In a first step, we eliminated genes that showed evidence of alternative splicing.

These two alternatives are both made by alternative splicing.

These studies suggest that such alternative splicing could play a role in the disease and lend themselves to further investigation.

Since then, alternative splicing has been found to be ubiquitous in eukaryotes.

Each gene in turn produces multiple proteins through alternative splicing.

Any gene can code for multiple proteins as a result of alternative splicing.

Alternative splicing is a modern discovery of great importance.

Alternative splicing is a process in which one gene makes more than one different protein.

We view these cases as one extreme along a continuum of protein diversity created by alternative splicing.

Alternative splicing of this gene results in two transcript variants.

Five basic modes of alternative splicing are generally recognized.

Alternative splicing is widely used to generate multiple proteins from a single gene.

New types of alternative splicing are being found.

All of these isoforms result from alternative splicing of the same gene.

At least three isoforms of synuclein are produced through alternative splicing.

These different isoforms result from variations in alternative splicing.

There are various kinds of alternative splicing: the most common is exon skipping.

Additional transcript sizes have been detected, suggesting the presence of alternative splicing.

Genome-wide analysis of alternative splicing is a challenging task.

Alternative splicing of this gene generates 2 transcript products.

Alternative splicing is one mechanism by which tenascin isoforms are generated.