Aug 2026· Stresses· Vol 6, pp. 54· 0 citations· 224 references
TL;DR
Eco-physiological and molecular evidence for temperature-dependent flowering across plant groups and terrestrial ecosystems is synthesized, indicating that the temperature requirements for floral initiation, their organogenesis and anthesis vary widely among species and developmental stages, and that these optima reflect life-history strategy, origin and adaptation to seasonal temperature regimes.
Abstract
Temperature is a major environmental determinant of flowering time and reproductive success in plants. Ongoing global warming is changing flowering phenology across natural and agricultural ecosystems, yet the mechanisms by which ambient temperature regulates the transition to reproduction remain less fully resolved than those underlying photoperiodic flowering and vernalization. This review synthesizes eco-physiological and molecular evidence for temperature-dependent flowering across plant groups and terrestrial ecosystems. It considers the development of the florigen concept, the identification of FLOWERING LOCUS T (FT) and related phosphatidylethanolamine-binding protein family members, and the integration of temperature signals with flowering activators and repressors. Particular attention is given to the thermosensory pathway, including alternative splicing, chromatin regulation, membrane-associated signaling, phase separation and temperature-dependent accumulation or stability of regulatory proteins. The review also examines phenological responses to rising temperatures in bulbous geophytes, Arctic and boreal species, subtropical and tropical crops, and desert plants. Available evidence indicates that the temperature requirements for floral initiation, their organogenesis and anthesis vary widely among species and developmental stages, and that these optima reflect life-history strategy, origin and adaptation to seasonal temperature regimes.
This review examines the molecular and genetic foundations underlying photoperiod sensitivity in flowering plants, with particular emphasis on the model organism Arabidopsis thaliana, and synthesizes current knowledge of photoperiod sensing mechanisms and highlights emerging areas for future research in plant developme...
Kesavan K· International Journal of Pur...· 0 citations
This review summarizes molecular, genetic and physiological evidence, to propose that, to ensure stable yields at high temperatures, there is a need to coordinate optimization of reproductive timing, cell and development thermotolerance, and post-fertilization sink stability.
Sana Basharat, Muhammad Waseem, W. Saeed et al.· Stresses· 0 citations
This review summarizes the structural, evolutionary, and functional characteristics of WRKY transcription factors involved in flowering regulation in Brassica species and demonstrates substantial expansion of WRKY gene families through genome triplication and polyploidization.
M. Raihan, Itezaz Younas, Shuo-Wei Su et al.· Plant Science· 0 citations
Temperature critically influences flowering time, yet the molecular mechanisms governing this process in perennial woody species remain largely elusive. Based on flowering characteristics, Osmanthus fragrans can be divided into two major groups: once-flowering types and continuous-flowering types (the Asiaticus group)....
Yan-Gang Lan, Ziyi Li, Xuewang Huang et al.· Tree Physiology· 0 citations
Light occupies a singular position in plant biology because it supplies the energy for photosynthetic carbon gain while simultaneously providing information about time, season, canopy proximity, spatial orientation and environmental change. These energetic and informational functions are sensed across different scales...
Gagendra Singh Rajput, J. Sahu· International Journal of Pla...· 0 citations