Ariana S Huffmyer
@cnidariana.bsky.social
Research Scientist at UW SAFS Marine invertebrate reproduction & ecophysiology. Coral & oyster stress resilience. Info here: linktr.ee/ashuffmyer (she/her)
Pinned
Ariana S Huffmyer
@cnidariana.bsky.social
· Oct 16
Interrogating Metabolic Plasticity in Marine Organisms: A Framework for Best Practices Using Metabolomic and Lipidomic Approaches
Synopsis. Understanding the mechanisms that underlie resilience in marine invertebrates is critical as climate change and human impacts transform coastal e
doi.org
Our new perspective in ICB @sicb.bsky.social offers a framework to study metabolic #plasticity in marine invertebrates. We outline best practices for #metabolomics & #lipidomics and call for stronger #multiomic integration linking molecules to resilience. Check it out here! doi.org/10.1093/icb/...
Our new perspective in ICB @sicb.bsky.social offers a framework to study metabolic #plasticity in marine invertebrates. We outline best practices for #metabolomics & #lipidomics and call for stronger #multiomic integration linking molecules to resilience. Check it out here! doi.org/10.1093/icb/...
Interrogating Metabolic Plasticity in Marine Organisms: A Framework for Best Practices Using Metabolomic and Lipidomic Approaches
Synopsis. Understanding the mechanisms that underlie resilience in marine invertebrates is critical as climate change and human impacts transform coastal e
doi.org
October 16, 2025 at 5:10 PM
Our new perspective in ICB @sicb.bsky.social offers a framework to study metabolic #plasticity in marine invertebrates. We outline best practices for #metabolomics & #lipidomics and call for stronger #multiomic integration linking molecules to resilience. Check it out here! doi.org/10.1093/icb/...
📢 New paper alert!
How do corals fuel early development? We tracked physiological and -omic 🧬 changes across #coral 🪸 development. We found that symbiotic interactions are contribute to nutritional demands and shape metabolic response in early life stages.
Read the paper 👉 doi.org/10.1016/j.cu...
How do corals fuel early development? We tracked physiological and -omic 🧬 changes across #coral 🪸 development. We found that symbiotic interactions are contribute to nutritional demands and shape metabolic response in early life stages.
Read the paper 👉 doi.org/10.1016/j.cu...
May 29, 2025 at 4:20 PM
📢 New paper alert!
How do corals fuel early development? We tracked physiological and -omic 🧬 changes across #coral 🪸 development. We found that symbiotic interactions are contribute to nutritional demands and shape metabolic response in early life stages.
Read the paper 👉 doi.org/10.1016/j.cu...
How do corals fuel early development? We tracked physiological and -omic 🧬 changes across #coral 🪸 development. We found that symbiotic interactions are contribute to nutritional demands and shape metabolic response in early life stages.
Read the paper 👉 doi.org/10.1016/j.cu...
Reposted by Ariana S Huffmyer
Symbiodiniaceae algal symbionts of Pocillopora damicornis larvae provide more carbon to their coral host under elevated levels of acidification and temperature
Symbiodiniaceae algal symbionts of Pocillopora damicornis larvae provide more carbon to their coral host under elevated levels of acidification and temperature - Communications Biology
Acidification and warming enhance the productivity and nutrient assimilation of Pocillopora damicornis coral larvae, without destabilizing its symbiosis with intracellular algae.
www.nature.com
November 19, 2024 at 3:54 PM
Symbiodiniaceae algal symbionts of Pocillopora damicornis larvae provide more carbon to their coral host under elevated levels of acidification and temperature
Reposted by Ariana S Huffmyer
And to thicken the plot, this aligns nicely with recent and highly complimentary excellent work by @cnidariana.bsky.social et al. journals.plos.org/plosbiology/...
Coral larvae increase nitrogen assimilation to stabilize algal symbiosis and combat bleaching under increased temperature
Rising sea surface temperatures threaten coral-algal symbiosis, impacting reef ecosystems. This study shows that coral larvae alter nutrient metabolism by increasing nitrogen assimilation to maintain ...
journals.plos.org
November 20, 2024 at 8:06 AM
And to thicken the plot, this aligns nicely with recent and highly complimentary excellent work by @cnidariana.bsky.social et al. journals.plos.org/plosbiology/...
Reposted by Ariana S Huffmyer
The results of a great collaboration finally out. Symbiotic carbon recycling in coral larvae is enhanced by elevated pCO2 and moderate increases in temperature. 🪸🧫 #Symbiosky
Symbiodiniaceae algal symbionts of Pocillopora damicornis larvae provide more carbon to their coral host under elevated levels of acidification and temperature
Symbiodiniaceae algal symbionts of Pocillopora damicornis larvae provide more carbon to their coral host under elevated levels of acidification and temperature - Communications Biology
Acidification and warming enhance the productivity and nutrient assimilation of Pocillopora damicornis coral larvae, without destabilizing its symbiosis with intracellular algae.
www.nature.com
November 20, 2024 at 8:01 AM
The results of a great collaboration finally out. Symbiotic carbon recycling in coral larvae is enhanced by elevated pCO2 and moderate increases in temperature. 🪸🧫 #Symbiosky
Our research examining the metabolic response of #coral #larvae to thermal stress is out now in PLOS Biology!
We found that symbiotic coral larvae reduce their metabolism and increase nitrogen sequestration to resist #bleaching under high temperatures.
Check it out here! plos.io/4foh6lL
We found that symbiotic coral larvae reduce their metabolism and increase nitrogen sequestration to resist #bleaching under high temperatures.
Check it out here! plos.io/4foh6lL
Coral larvae increase nitrogen assimilation to stabilize algal symbiosis and combat bleaching under increased temperature
Rising sea surface temperatures threaten coral-algal symbiosis, impacting reef ecosystems. This study shows that coral larvae alter nutrient metabolism by increasing nitrogen assimilation to maintain ...
plos.io
November 13, 2024 at 4:45 PM
Our research examining the metabolic response of #coral #larvae to thermal stress is out now in PLOS Biology!
We found that symbiotic coral larvae reduce their metabolism and increase nitrogen sequestration to resist #bleaching under high temperatures.
Check it out here! plos.io/4foh6lL
We found that symbiotic coral larvae reduce their metabolism and increase nitrogen sequestration to resist #bleaching under high temperatures.
Check it out here! plos.io/4foh6lL