Keywords: paralog processing, CO2 enrichment, pathogen compatibility, root development, ascorbate, climate change

Latest 20 Papers

Transcriptional responses of Solanum lycopersicum to three distinct parasites reveal host hubs and networks underlying parasitic successes

Authors: Truch, J., Jaouannet, M., Da Rocha, M., Kulhanek-Fontanille, E., Van Ghelder, C., Rancurel, C., Migliore, O., Pere, A., Jaubert, S., Coustau, C., Galiana, E., Favery, B.

Date: 2026-01-23 · Version: 1

DOI: 10.64898/2026.01.22.701158

Model Organism: Solanum lycopersicum

tomato pathogen compatibility transcriptomics co‑expression network Arabidopsis interactome

Root-Suppressed Phenotype of Tomato Rs Mutant is Seemingly Related to Expression of Root-Meristem-Specific Sulfotransferases

Authors: Kumari, A., Gupta, P., Santisree, P., Pamei, I., Valluri,, S., Sharma, K., Venkateswara Rao, K., Shukla, S., Nama, S., Sreelakshmi, Y., Sharma, R.

Date: 2026-01-03 · Version: 1

DOI: 10.64898/2026.01.03.697460

Model Organism: Solanum lycopersicum

root development sulfur metabolism sulfotransferase radiation‑induced mutant tomato

Climbing invasions or climatic refugees: how many and to which extent non-native plant species could reach the Pyrenees mountains under climate change?

Authors: COLLETTE, N., GIBERT, A., PINEL, S., DELORME-HINOUX, V., BERTRAND, J. A. M.

Date: 2026-01-02 · Version: 1

DOI: 10.64898/2026.01.01.697276

Model Organism: Multi-species

invasive plant species climate change mountain refugia species distribution modeling Pyrenees

An ancient alkalinization factor informs Arabidopsis root development

Authors: Xhelilaj, K., von Arx, M., Biermann, D., Parvanov, A., Faiss, N., Monte, I., Klingelhuber, F., Zipfel, C., Timmermans, M., Oecking, C., Gronnier, J.

Date: 2025-12-23 · Version: 1

DOI: 10.64898/2025.12.22.695669

Model Organism: Arabidopsis thaliana

REMORIN proteins H⁺‑ATPase inhibition extracellular pH (pHe) alkalinization root development Arabidopsis thaliana

Historical data reveals earlier flowering under environmental change

Authors: Stunz, E. A., Gustavsson, A. S., Bacon, C. D.

Date: 2025-12-17 · Version: 1

DOI: 10.64898/2025.12.16.694749

Model Organism: Oxyria digyna

climate change flowering phenology Oxyria digyna Arctic‑alpine plants temperature response

Natural variation in an NLR pair confers thermostable resistance to a devastating bacterial pathogen

Authors: Aoun, N., Singh, M., Chacko, J., Maruta, N., Griffiths, C., Dangla, E., Demont, H., Carrere, S., Gouzy, J., Duflos, R., Zaffuto, M., Marchetti, M., Hancock, A., Bernoux, M., Kobe, B., Deslandes, L., Roux, F., Berthome, R.

Date: 2025-12-16 · Version: 1

DOI: 10.64898/2025.12.15.694456

Model Organism: Arabidopsis thaliana

climate change NLR immune receptors RPS4/RRS1 thermostable resistance natural genetic variation

Leveraging Crop Wild Relatives and Ploidy Level for Climate-Resilient Annual Ryegrass

Authors: Mailhos, M. E., Timmers, J., Erickson, J., Caram, N., Messina, C. D., Rios, E. F.

Date: 2025-10-18 · Version: 1

DOI: 10.1101/2025.10.15.682691

Model Organism: Lolium multiflorum

polyploidy climate change Lolium multiflorum CO2 enrichment evapotranspiration

Phylogenomic challenges in polyploid-rich lineages: Insights from paralog processing and reticulation methods using the complex genus Packera (Asteraceae: Senecioneae)

Authors: Moore-Pollard, E. R., Ellestad, P., Mandel, J.

Date: 2025-10-13 · Version: 2

DOI: 10.1101/2025.09.14.676143

Model Organism: Multi-species

phylogenomic discordance polyploidy paralog processing Packera historical biogeography

Spectral network analysis illuminates coordinated trait adaptation across plant populations

Authors: Ray, R., Quarles-Chidyagwai, B., Ashlock, S., Lyons, J., Gremer, J. R., Maloof, J., Magney, T.

Date: 2025-09-21 · Version: 1

DOI: 10.1101/2025.09.18.676927

Model Organism: Streptanthus tortuosus

hyperspectral reflectance functional leaf traits population adaptation climate change spectral network analysis

In situ near-infrared non-destructive monitoring of sugar accumulation reveals that single berries ripening takes only 20 days

Authors: Tavernier, F., Motelica-Heino, E., Thomas, M., Herbold, T., Shi, M., Le Cunff, L., Romieu, C., Segura, V.

Date: 2025-09-11 · Version: 2

DOI: 10.1101/2024.12.10.627588

Model Organism: Vitis vinifera

climate change berry ripening near‑infrared spectroscopy partial least squares regression grapevine

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