Celia Schunter

The paper uses single-nucleus transcriptomics to identify neural cell type responses to elevated CO2 in cleaner wrasse, revealing disruptions in myelination, glutamatergic signalling, and cell-cell communication.

This study maps the telencephalon transcriptome of cleaner wrasse to identify conserved neural cell populations and gene networks involved in social behavior.

This study identifies molecular mechanisms underlying the mutualistic relationship between anemone and anemonefish by analyzing transcriptional changes after association.

This study examines cheating behavior in coral reef cleaner fishes using standardized experiments, finding interspecific variation in interaction patterns and context-dependent behavioral responses.

This study shows that early-life exposure to warming increases sea urchin tolerance to moderate heatwaves but not extreme ones, revealing context-dependent developmental plasticity.

This study identifies miRNAs involved in transgenerational thermal plasticity in coral reef fish, showing that parental temperature exposure affects offspring miRNA-mRNA networks differently based on parent type.

The paper develops a species-specific qPCR assay to detect endangered Hong Kong grouper eDNA in water samples, finding low shedding rates and rare occurrence.

This study examines how foraminiferal eDNA from different life stages affects sea-level reconstruction in mangrove and mudflat environments, finding that bulk sediment eDNA is reliable in mangroves but less so in transitional zones.

This study examines the developmental and transcriptomic responses of Hawaiian bobtail squid to ocean warming and acidification, finding trade-offs in metabolism versus development and molecular changes like alternative splicing.

This study uses foraminiferal environmental DNA to reconstruct late Holocene sea-level changes with high precision, extending reconstructions beyond traditional morphological methods.

This study assesses the spatiotemporal variability of foraminiferal eDNA in mangrove and mudflat environments to evaluate its reliability for sea-level reconstruction.

This study analyzes the diet of a man-made hybrid grouper released into the wild through religious practices, finding it consumes different prey than native species and may impact marine ecosystems.

This study shows that parental exposure to ocean acidification reprograms offspring tissue transcriptomes, enhancing their acclimation to elevated CO2 levels through tissue-specific transcriptional changes.

This study shows that parental exposure to elevated temperature affects larval zebrafish brain activity response to alarm cues, with interactions between parental and offspring thermal conditions influencing response duration.

The paper identifies neural molecular mechanisms in wild cleaner fish during mutualistic interactions, finding genes related to learning, memory, and feeding behavior.

This study examines how ocean acidification affects the nervous system of Aplysia californica by altering transcriptomic responses in the pleural-pedal ganglia during tail withdrawal reflex behavior.

This study examines how parental developmental temperature affects offspring thermal acclimation in coral reef fish, finding that parental experience enhances offspring response to warming, but prolonged heat stress reduces species persistence.

This study shows that parental thermal experiences shape offspring transcriptomic profiles through epigenetic and metabolic mechanisms, with congruent parental exposure enhancing acclimation to warming.

This study shows that warming reduces routine swimming in larval zebrafish and alters molecular responses to novel odours, with energy trade-offs in gene expression.

The paper presents a pipeline for identifying lncRNAs from RNA-Seq data and uses it to study their role in environmental response in fish.

The paper examines molecular changes in Arabian pupfish during salinity acclimation, identifying both transient and long-term gene expression responses in different populations.

This study creates and validates a spectral library for proteome analysis in a non-model coral reef fish using SWATH-MS, demonstrating its utility for detecting environmental stress responses.

The paper detects fine-scale dispersal patterns in a well-connected marine population using genetic markers, otolith data, and spatial analysis, revealing complex dispersal dynamics influenced by environmental factors.

This paper presents a chromosome-scale genome assembly for the orange clownfish, providing a valuable resource for studying reef fish ecology and evolution.