Pieter A. Arnold

The paper introduces fvfmPy and fvfmR, user-friendly tools for automated analysis of chlorophyll fluorescence images to assess plant stress responses, significantly reducing processing time compared to manual methods.

This paper introduces a flexible modelling framework using a four-parameter log-logistic model to estimate thermal tolerance and sensitivity, improving reliability over conventional two-stage analyses.

The paper develops a protocol to assess thermal load sensitivity of photosystem II in plants by integrating temperature intensity and exposure duration, showing dose-dependent effects and light intensity impacts on tolerance thresholds.

This paper provides a methodological roadmap with reproducible code to integrate extreme heat into ecological and physiological studies, showing improved predictions and population risk assessments.

This study examines how morphological and heat-tolerance traits relate to tree decline progression and impact, finding no evidence of trait-based vulnerability but identifying feedback loops exacerbating decline under warming.

This study examines how climate variability affects thermal tolerance in plants across three biomes, finding that thermal variability increases cold tolerance but not heat tolerance.

This study shows that high plasticity in underutilized crop species like Amaranthus leads to maladaptive responses to environmental changes, limiting their resilience to climate shifts.

This study quantifies phenotypic plasticity and genetic variation in Wahlenbergia ceracea, finding strong plastic responses to growth temperature over parental effects and genetic variation.

This study examines the transcriptomic response of Wahlenbergia ceracea to sustained moderate warming, identifying gene regulation patterns linked to heat tolerance.