Chance R Noffsinger

Department of Ecology and Evolutionary Biology, University of Tennessee, Knoxville, Tennessee 37996, USA.

8 publications 2023 – 2026 ORCID

What does Chance R Noffsinger research?

Dr. Noffsinger studies mushrooms and other large fungi, particularly at the Ordway-Swisher Biological Station in Florida. His nine-year research project involved cataloging various fungal species, resulting in the identification of over 546 species. He uses DNA testing to ensure precise identification and aims to provide a crucial reference collection for future research. His work highlights the surprising biodiversity of fungi in comparison to other life forms such as plants and animals, emphasizing their vital roles in forest ecosystems, including nutrient absorption and decomposition.

Key findings

  • Identified over 546 species of macrofungi at a single site in Florida, with estimates suggesting a total of 900 to 1,200 species.
  • Demonstrated that this site has more fungal species than vertebrate animals or plants combined.
  • Created a reference collection of fungi that can be used for future ecological research, contributing to the understanding of fungal biodiversity in subtropical environments.

Frequently asked questions

Does Dr. Noffsinger study fungi?
Yes, he specifically focuses on the biodiversity of mushrooms and other large fungi.
What has Dr. Noffsinger learned about fungal diversity?
He has identified over 546 species of fungi at one site, revealing that there may be between 900 and 1,200 species total.
Why is Dr. Noffsinger's research important?
His research helps to understand the roles fungi play in ecosystems, which are crucial for nutrient absorption and the breakdown of dead material.

Publications in plain English

Biogeography and host associations of Russula subsection Xerampelinae based on large-scale analysis of UNITE sequence data.

2026

The New phytologist

Noffsinger CR, Caboň M, Matheny PB, Adamčíková K, Looney BP +3 more

Plain English
This study looked at a group of fungi called Russula subsection Xerampelinae to understand where they live and what plants they associate with. Researchers analyzed a large number of DNA sequences and discovered that these fungi are widely spread across northern regions and can connect with many different plant species. Specifically, they analyzed 1,363 DNA sequences, revealing that these fungi are more common and adaptable than previously thought, which is important for understanding ecosystems and the roles these fungi play. Who this helps: This helps scientists and ecologists studying ecosystems, as well as farmers and forest managers interested in plant-fungi relationships.

PubMed

Historical Lead Contamination Linked to Atmospheric Deposition is Associated With Declines in Ectomycorrhizal Diversity and Shifts in Fungal Community Composition.

2025

Molecular ecology

Noffsinger CR, Matheny PB

Plain English
This study examined how lead contamination in soil affects different types of fungi in a spruce-fir forest in the Southern Appalachians. The researchers found that higher levels of lead in the soil led to a decrease in fungal diversity, specifically noting that certain ectomycorrhizal fungi became less diverse when lead levels were high. These findings are important because they show how soil pollution can impact ecosystem health and the functioning of important soil organisms. Who this helps: This information benefits environmental scientists and conservationists focused on maintaining healthy ecosystems.

PubMed

Phylogenomics, trophic ecology, and systematics of the truffle-forming.

2025

Persoonia

Lemmond B, Bonito G, Healy R, Van Wyk J, Dawson HA +8 more

Plain English
This study focused on understanding the evolution and classification of truffles, a type of fungus that forms underground. Researchers analyzed 41 new fungal genomes and discovered that truffles evolved from above-ground to underground forms only once. They also identified new species and confirmed that some truffles obtain nutrients by partnering with trees, which is important for understanding their role in ecosystems and the potential for cultivation. Who this helps: This benefits chefs, foragers, and researchers interested in gourmet fungi and their ecological roles.

PubMed

Recent taxonomic discoveries suggest a host-symbiont co-migration ofsubsect.within the Americas.

2025

Fungal systematics and evolution

Manz C, Ortiz-Suárez A, Adamčíková K, Looney B, Noffsinger CR +8 more

Plain English
Researchers studied a group of fungi in tropical forests in Panama and Colombia. They identified three new types of these fungi and discovered that one of them has specific features that distinguish it from others, such as unique red stems. This study shows that these fungi may have evolved separately due to geographic barriers and highlights their close relationship with a specific tree species found only in Colombia. Who this helps: This research benefits scientists studying biodiversity and ecology, as well as conservation efforts for these unique ecosystems.

PubMed

Think globally, barcode locally: nine years of macrofungi sampling reveals extensive biodiversity at the ordway-swisher biological station, a subtropical site in Florida.

2025

Fungal biology

Caiafa MV, Kaminsky L, Healy R, Sheffer LP, Willis CB +26 more

Plain English
Researchers spent nine years cataloging mushrooms and other large fungi at a Florida nature preserve, identifying over 546 species and estimating the actual total is probably between 900 and 1,200 species—meaning there are more fungal species at this one site than there are vertebrate animals or plants. They used DNA testing to precisely identify each specimen and created a reference collection for future research. This matters because fungi are essential to forest ecosystems (they help trees absorb nutrients and break down dead material), yet scientists know far less about fungal diversity than they do about plants and animals, making this comprehensive catalog a crucial foundation for understanding and protecting Florida's ecosystems.

PubMed

Three new species insubsectionsupported by genealogical and phenotypic coherence.

2024

Mycologia

Noffsinger CR, Adamčíková K, Eberhardt U, Caboň M, Bazzicalupo A +8 more

Plain English
This study looked at certain types of fungi that have a strong smell, found in both Europe and North America, and identified three new species of these fungi. Researchers used DNA analysis to better understand the relationships among these species, revealing at least 23 different kinds, although only 17 are formally recognized right now. This is important because it helps clarify how many distinct species exist, which can influence our understanding of biodiversity and ecosystem health. Who this helps: This information benefits ecologists and conservationists working to protect plant and fungal diversity.

PubMed

A phylogeny for North Americanand taxonomic revision of eastern North American taxa.

2023

Fungal systematics and evolution

Matheny PB, Kudzma LV, Graddy MG, Mardini SM, Noffsinger CR +11 more

Plain English
This research focused on understanding the relationships between different species of fungi in eastern North America by analyzing their genetic information. The study identified 16 species and discovered that two new species from Florida and the southern Appalachians are unique to small areas, meaning they don't exist anywhere else. This work is important because it helps clarify the classification of these fungi and enhances our understanding of their diversity and ecology. Who this helps: This helps scientists, especially mycologists, who study fungi and their classifications.

PubMed

Does One Size Fit All? Variations in the DNA Barcode Gaps of Macrofungal Genera.

2023

Journal of fungi (Basel, Switzerland)

Wilson AW, Eberhardt U, Nguyen N, Noffsinger CR, Swenie RA +7 more

Plain English
This study looked at how the differences in DNA sequences can help distinguish various types of fungi, specifically macrofungi. Researchers analyzed over 5,100 DNA sequences from 717 species and found that the differences in DNA sequences (called barcode gaps) varied depending on the type of fungi and the method used to categorize them. They discovered that the DNA sequences from one region (ITS2) showed more variation than another region (ITS1), indicating that using multiple DNA markers can improve accuracy in identifying fungal species. Who this helps: This benefits researchers and scientists working to document and classify fungi.

PubMed

Publication data sourced from PubMed . Plain-English summaries generated by AI. Not medical advice.