Keywords: decoding modules, SNP array, AtSF1, local adaptation

Latest 11 Papers

In vivo binding by Arabidopsis SPLICING FACTOR 1 shifts 3' splice site choice, regulating circadian rhythms and immunity in plants

Authors: Agrofoglio, Y. C., Iglesias, M. J., de Leone, M. J., Hernando, C. E., Lewinski, M., Torres, S. B., Contino, G., Yanovsky, M. J., Staiger, D., Mateos, J. L.

Date: 2025-12-17 · Version: 1

DOI: 10.64898/2025.12.17.693997

Model Organism: Arabidopsis thaliana

alternative splicing branch point recognition AtSF1 circadian clock regulation plant immunity

Universal modules for decoding amplitude and frequency of Ca2+ signals in plants

Authors: Vergara-Valladares, F., Rubio-Melendez, M. E., Charpentier, M., Michard, E., Dreyer, I.

Date: 2025-12-16 · Version: 1

DOI: 10.64898/2025.12.13.694100

Model Organism: General

calcium signaling EF‑hand Ca2+ binding protein decoding modules plant calcium sensors signal amplitude and frequency

Variation in bud phenology, frost tolerance and non-structural carbohydrates among white spruce seed sources on climate-contrasted test sites: implications for assisted migration

Authors: Analy, C., Benomar, L., Perron, M., Godbout, J., Beaulieu, J., Bergeron, Y., Bousquet, J., Lamara, M.

Date: 2025-12-13 · Version: 1

DOI: 10.64898/2025.12.10.693555

Model Organism: Picea glauca

white spruce local adaptation bud set phenology frost tolerance non‑structural carbohydrates

A century of breeding has preserved genetic variation, accumulated favorable alleles, and shaped the Rht gene portfolio in North American spring wheat

Authors: Gill, H. S., Blecha, S., Conley, E., Brault, C., Fiedler, J., Cook, J., Glover, K., Green, A., Read, A. C., Anderson, J. A.

Date: 2025-09-23 · Version: 1

DOI: 10.1101/2025.09.22.677111

Model Organism: Triticum aestivum

Hard red spring wheat genetic diversity Rht dwarfing genes SNP array KASP genotyping

Major alleles of CDCA7α shape CG-methylation in Arabidopsis thaliana

Authors: Bourguet, P., Lorkovic, Z. J., Casado, D. K., Bapteste, V., Cho, C. H., Igolkina, A., Lee, C.-R., Nordborg, M., Berger, F., Sasaki, E.

Date: 2025-09-07 · Version: 1

DOI: 10.1101/2025.09.03.673934

Model Organism: Arabidopsis thaliana

DNA methylation CG methylation (mCG)CDCA7 DDM1 local adaptation

Contrasting patterns of local adaptation and climate resilience across forest management regimes in Norway spruce (Picea abies): implications for reforestation practices under climate change

Authors: Eklöf, H., Bernhardsson, C., Ingvarsson, P. K.

Date: 2025-06-17 · Version: 1

DOI: 10.1101/2025.06.11.659044

Model Organism: Picea abies

genetic diversity local adaptation Picea abies forest management climate change

Extensive photophysiological variation in wild barley is linked to environmental origin

Authors: Breil-Aubert, M., Shaw, K., Royles, J., Rodrigues Gabriel Sales, C., Walter, J., Taylor, G., Vath, R., Bdolach, E., Dev Tiwari, L., Mathan, J., Lawson, T., Fridman, E., Kromdijk, J., Ferguson, J. N.

Date: 2025-03-31 · Version: 1

DOI: 10.1101/2025.03.28.645825

Model Organism: Hordeum vulgare

crop wild relatives photophysiology genome-wide association study local adaptation stomatal conductance

Phytochrome A is required for light-inhibited germination of Aethionema arabicum seed

Authors: Merai, Z., Xu, F., Hajdu, A., Kozma-Bognar, L., Dolan, L.

Date: 2025-02-28 · Version: 1

DOI: 10.1101/2025.02.26.640300

Model Organism: Aethionema arabicum

negative photoblastic germination phytochrome A Aethionema arabicum high‑irradiance response local adaptation

Transcriptome differentiation in Cryptomeria japonica trees with different origins growing in the north and south of Japan

Authors: Ujino-Ihara, T., Uchiyama, K., Kanetani, S., Suyama, Y., Tsumura, Y.

Date: 2025-02-25 · Version: 1

DOI: 10.1101/2025.02.22.639673

Model Organism: Cryptomeria japonica

local adaptation transcriptome analysis weighted gene co‑expression network analysis (WGCNA)SNP differentiation defense response genes

Identification of QTLs linked to partial resistance to foot and root rot caused by Fusarium avenaceum and Fusarium oxysporum in faba bean (Vicia faba)

Authors: Webb, A., Thomas, J. E., Davis, H., McAdam, S., Angra, D., O'Sullivan, D. M., Gostkiewicz, K., Capozzi, M., Wood, T. A.

Date: 2025-02-25 · Version: 1

DOI: 10.1101/2025.02.21.639454

Model Organism: Vicia faba

Vicia faba Fusarium foot and root rot QTL mapping SNP array disease resistance

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