Claire Elizabeth Willing (Claire E Willing)

ORCID

Publication Activity (10 Years)

Years Active: 2020-2024
Publications (10 Years): 17

Top Venues

mSystems

Global change biology

ISME communications

Nature communications

Stanford University

This page only lists publications with an associated author ORCID identifier.

Affiliation History

Stanford University

United States

Postdoctoral Scholar :: Biology

Publications

Louis Berrios, Glade D Bogar, Laura M Bogar, Andressa Monteiro Venturini, Claire Elizabeth Willing, Anastacia Del Rio, Tillson Bertie Ansell, Kevin J Zemaitis, Marija Veličković, Dušan Veličković, Peter T Pellitier, Jay J Yeam, Chelsea Hutchinson, Kent Bloodsworth, Mary S Lipton, Gabriel Reuben Smith
Ectomycorrhizal fungi alter soil food webs and the functional potential of bacterial communities. mSystems 9 (6) (2024)
Louis Berrios, Glade D Bogar, Laura M Bogar, Andressa Monteiro Venturini, Claire Elizabeth Willing, Anastacia Del Rio, Tillson Bertie Ansell, Kevin J Zemaitis, Marija Veličković, Dušan Veličković, Peter T Pellitier, Jay J Yeam, Chelsea Hutchinson, Kent Bloodsworth, Mary S Lipton, Gabriel Reuben Smith
Ectomycorrhizal fungi alter soil food webs and the functional potential of bacterial communities. mSystems 9 (6) (2024)
Louis Berrios, Glade D Bogar, Laura M Bogar, Andressa Monteiro Venturini, Claire Elizabeth Willing, Anastacia Del Rio, Tillson Bertie Ansell, Kevin J Zemaitis, Marija Veličković, Dušan Veličković, Peter T Pellitier, Jay J Yeam, Chelsea Hutchinson, Kent Bloodsworth, Mary S Lipton, Gabriel Reuben Smith
Ectomycorrhizal fungi alter soil food webs and the functional potential of bacterial communities. mSystems 9 (6) (2024)
Louis Berrios, Glade D Bogar, Laura M Bogar, Andressa Monteiro Venturini, Claire Elizabeth Willing, Anastacia Del Rio, Tillson Bertie Ansell, Kevin J Zemaitis, Marija Veličković, Dušan Veličković, Peter T Pellitier, Jay J Yeam, Chelsea Hutchinson, Kent Bloodsworth, Mary S Lipton, Gabriel Reuben Smith
Ectomycorrhizal fungi alter soil food webs and the functional potential of bacterial communities. mSystems 9 (6) (2024)
Louis Berrios, Glade D Bogar, Laura M Bogar, Andressa Monteiro Venturini, Claire Elizabeth Willing, Anastacia Del Rio, Tillson Bertie Ansell, Kevin J Zemaitis, Marija Veličković, Dušan Veličković, Peter T Pellitier, Jay J Yeam, Chelsea Hutchinson, Kent Bloodsworth, Mary S Lipton, Gabriel Reuben Smith
Ectomycorrhizal fungi alter soil food webs and the functional potential of bacterial communities. mSystems (2024)
Claire Elizabeth Willing, Joe Wan, Jay J Yeam, Alex M Cessna, Gabriel Reuben Smith
Arbuscular mycorrhizal fungi equalize differences in plant fitness and facilitate plant species coexistence through niche differentiation. Nature ecology & evolution (2024)
Louis Berrios, Andressa Monteiro Venturini, Tillson Bertie Ansell, Esther Tok, William Johnson, Claire Elizabeth Willing, Gabriel Reuben Smith
Co-inoculations of bacteria and mycorrhizal fungi often drive additive plant growth responses. ISME communications 4 (1) (2024)
Louis Berrios, Andressa Monteiro Venturini, Tillson Bertie Ansell, Esther Tok, William Johnson, Claire Elizabeth Willing, Gabriel Reuben Smith
Co-inoculations of bacteria and mycorrhizal fungi often drive additive plant growth responses. ISME communications 4 (1) (2024)
Joan C Dudney, Andrew M Latimer, Phillip van Mantgem, Harold Zald, Claire Elizabeth Willing, Jonathan C B Nesmith, Jennifer Cribbs, Elizabeth Milano
The energy-water limitation threshold explains divergent drought responses in tree growth, needle length, and stable isotope ratios. Global change biology (2023)
Joan C Dudney, Andrew M Latimer, Phillip van Mantgem, Harold Zald, Claire Elizabeth Willing, Jonathan C B Nesmith, Jennifer Cribbs, Elizabeth Milano
The energy-water limitation threshold explains divergent drought responses in tree growth, needle length, and stable isotope ratios. Global change biology (2023)
Joan C Dudney, Andrew M Latimer, Phillip van Mantgem, Harold Zald, Claire Elizabeth Willing, Jonathan C B Nesmith, Jennifer Cribbs, Elizabeth Milano
The energy-water limitation threshold explains divergent drought responses in tree growth, needle length, and stable isotope ratios. Global change biology (2023)
Joan C Dudney, Andrew M Latimer, Phillip van Mantgem, Harold Zald, Claire Elizabeth Willing, Jonathan C B Nesmith, Jennifer Cribbs, Elizabeth Milano
The energy-water limitation threshold explains divergent drought responses in tree growth, needle length, and stable isotope ratios. Global change biology (2023)
Busayo Joshua Babalola, Jing Li, Claire Elizabeth Willing, Yong Zheng, Yong-Long Wang, Hui-Yun Gan, Xing-Chun Li, Cong Wang, Catharine A Adams, Cheng Gao, Liang-Dong Guo
Nitrogen fertilisation disrupts the temporal dynamics of arbuscular mycorrhizal fungal hyphae but not spore density and community composition in a wheat field. The New phytologist 234 (6) (2022)
Claire Elizabeth Willing, Grady Pierroz, Aidee Guzman, Leander D L Anderegg, Cheng Gao, Devin Coleman-Derr, John W Taylor, Tom D Bruns, Todd E Dawson
Keep your friends close: Host compartmentalisation of microbial communities facilitates decoupling from effects of habitat fragmentation. Ecology letters 24 (12) (2021)
Joan C Dudney, Claire Elizabeth Willing, Adrian J Das, Andrew M Latimer, Jonathan C B Nesmith, John J Battles
Author Correction: Nonlinear shifts in infectious rust disease due to climate change. Nature communications 12 (1) (2021)
Joan C Dudney, Claire Elizabeth Willing, Adrian J Das, Andrew M Latimer, Jonathan C B Nesmith, John J Battles
Nonlinear shifts in infectious rust disease due to climate change. Nature communications 12 (1) (2021)
Claire Elizabeth Willing, Grady Pierroz, Devin Coleman-Derr, Todd E Dawson
The generalizability of water-deficit on bacterial community composition; Site-specific water-availability predicts the bacterial community associated with coast redwood roots. Molecular ecology 29 (23) (2020)

Claire Elizabeth Willing.css-eqlu8i{font-size:small;padding-left:4px;} (Claire E Willing)

Publication Activity (10 Years)

Top Topics

Top Venues

Claire Elizabeth Willing (Claire E Willing)