Early flower development in Arabidopsis thaliana occurs in 12 stages, with 1.9 buds initiated per day and a 13.25-day time span from initiation to bud opening.

Early flower development in Arabidopsis.

Recent studies in Arabidopsis have refined our understanding of floral development, revealing key molecular genetic mechanisms and gaps in our knowledge.

Flower development: initiation, differentiation, and diversification.

Flower development is a complex process involving gene products, and understanding these gene products can help us better understand and manage flower development in plants.

Flower development

Recent advances in Arabidopsis flower development reveal complex feedback loops that promote robust and stable flower formation, even in the face of genetic or environmental perturbations.

The flowering of Arabidopsis flower development.

Differential growth of petals in the asiatic lily Lilium casablanca drives the deployment of shell-like structures, offering new biomimetic design possibilities.

Growth, geometry, and mechanics of a blooming lily

Recent genetic and molecular studies in Arabidopsis thaliana and Antirrhihum majus have identified homeotic genes that regulate flower development, providing insights into the complex mechanisms controlling flower development.

The unfolding drama of flower development: recent results from genetic and molecular analyses.

Flower development research should extend beyond eudicot model species to include gymnosperms, as understanding their development is crucial for human life and the products they produce.

Current trends and future directions in flower development research.

Arabidopsis studies reveal the molecular basis of diverse floral morphologies, advancing our understanding of flower development and advancing our understanding of plant structure and function.

Flower Development

Woody plants regulate flowering through dynamic gene expression, with the florigen gene FLOWERING LOCUS T and its antagonistic gene TERMINAL FLOWER 1 playing central roles in various flowering transition events.

From Floral Induction to Blooming: The Molecular Mysteries of Flowering in Woody Plants

The research reveals that the timing of flowering in plants is controlled by integrating spatial and temporal signals, with FLOWERING LOCUS T (FT) and FD (bZIP transcription factor) playing key roles in this process.

Plant development: A time and a place for flowers

Flower bud growth and opening are intricately studied, with a focus on dormancy, cleistogamy, bud growth, turgor maintenance, stamens, and light regulation.

Physiology of flower bud growth and opening

This review of floral biology integrates recent molecular and genetic data with an evolutionary and ecological perspective, revealing complex molecular mechanisms and evolutionary context in floral development.

Understanding flowers and flowering: an integrated approach

The length of the growing season impacts floral development in the arctic-alpine plant Ranunculus glacialis, with staggered preformation creating a permanent belowground reserve pool of floral structures for harsh high-mountain environments.

Flower preformation in the nival plant Ranunculus glacialis L.: shoot architecture and impact of the growing season length on floral morphogenesis and developmental dynamics

Mobile signals, florigen, play a crucial role in regulating photoperiod-dependent flowering in plants, relaying information from leaves to the shoot apex.

Move on up, it's time for change--mobile signals controlling photoperiod-dependent flowering.

This book offers a comprehensive guide to growing 100 of the most beautiful flowers for the garden and greenhouse, with full-page coloured plates and reproductions of flower paintings by well-known artists.

Beautiful Flowers and how to Grow Them

Cell wall composition, specifically cellulose, hemicellulose, and pectins, plays a crucial role in flower development and reproduction, with genetic regulation influencing the activity of cell wall remodeling proteins.

Building a Flower: The Influence of Cell Wall Composition on Flower Development and Reproduction

Epigenetic modifications play a crucial role in controlling flowering and stress tolerance in plants, enabling transgenerational seed production under adverse conditions.

The role of epigenetic processes in controlling flowering time in plants exposed to stress.

The developed model accurately simulates chrysanthemum flower development in greenhouses, but underestimates development in fluctuating temperatures.

Predicting flower development in greenhouse grown chrysanthemum

Plant growth control, involving cell proliferation and expansion, is influenced by intrinsic growth signals and environmental cues, with potential non-cell autonomous mechanisms also playing a role.

Size control in plants--lessons from leaves and flowers.

Citrus seedlings typically flower for the first time after 5-10 years, with some showing anomalous flowering within the first year of development.

AN INVESTIGATION OF FLOWER FORMATION IN ADULT AND JUVENILE CITRUS TREES

These studies suggest that flower growth is a complex process regulated by genetic and molecular mechanisms, involving stages of development, gene expression, and feedback loops to ensure robust formation.