Plants have adapted to tolerate and survive constantly changing environmental conditions
by reprogramming gene expression The dynamics of the contribution of alternative splicing …

Plants have evolved numerous molecular strategies to cope with perturbations in
environmental temperature, and to adjust growth and physiology to limit the negative effects …

The molecular responses of plants to the important abiotic stress, heat stress (HS), have
been extensively studied at the transcriptional level. Alternative splicing (AS) is a post …

Plant growth and development are constantly influenced by temperature fluctuations. To
respond to temperature changes, different levels of gene regulation are modulated in the …

Alternative splicing plays a major role in expanding the potential informational content of
eukaryotic genomes. It is an important post-transcriptional regulatory mechanism that can …

Alternative splicing, which generates multiple transcripts from the same gene, is an
important modulator of gene expression that can increase proteome diversity and regulate …

High-throughput sequencing for transcript profiling in plants has revealed that alternative
splicing (AS) affects a much higher proportion of the transcriptome than was previously …

Highlights•Alternative splicing (AS) acts as 'molecular thermometer'in plants.•Key flowering
time and circadian clock regulatory genes undergo temperature dependent AS.•Splicing …

Modifications of the cellular proteome pool upon stress allow plants to tolerate
environmental changes. Alternative splicing is the most significant mechanism responsible …

Alternative splicing is a mechanism for the regulation of gene expression that is widespread
in higher eukaryotes. Genome-wide approaches, based on comparison of expressed and …