The two types of proteins have mechanisms that work both cooperatively and synergistically, depending on their location in a plant. Together they control the movement of auxin, a hormone that regulates plant architecture, tissue development and flowering time.
The documentation of how these two mechanisms work together has direct applications in designing plants suitable for developing ornamentals with desirable traits, such as producing more flowers.
“This is a major step in understanding auxin transport, which is vital to every aspect of plant growth and development,” said Angus Murphy, professor of horticulture and landscape architecture.
Other applications from this discovery could lead to ornamentals that do not need pruning or have larger root systems to support more vegetation, he said. Such plants would require less labor, energy and -- with larger roots -- less fertilizer, he said.
{sidebar id=1}
The discovery also will help design crops suitable for biofuel and ethanol production.
For more: Angus Murphy,
Latest from Greenhouse Management
- The Growth Industry Episode 10: State of the Horticulture Industry
- Millennium Pacific Greenhouses launches California Grown Cucumber Program
- Scientists develop vitamin A-enriched tomato to fight global deficiency
- Tennessee Green Industry Field Day scheduled for June 11
- UTIA and UT Knoxville research teams will develop automated compost monitoring system
- Ken and Deena Altman receive American Floral Endowment Ambassador Award
- [SNEAK PEEK] Leading Women of Horticulture: The women of Fairview Greenhouses & Garden Center
- [SNEAK PEEK] Leading Women of Horticulture: The inventive women of TPIE ’26