Environmental DNA from highly standardized leaf sample time series suggests no localized species losses, but biotic turnover and homogenization, as main drivers of forest insect decline.

Environmentally responsive genes evolve under strong selective constraint in Arabidopsis lyrata.

Seed-specific and cold-induced DNA methylation is deposited in the seed progeny to form a transient and transgenerational memory of past environmental conditions to optimize seed germination timing.

Fish environmental DNA remaining in a cup of seawater provides information about interaction strengths among marine fish species in nature, highlighting the potential impact of global climate change on community dynamics and stability.

Transient adaptation to environmental fluctuations in plants is mediated through discrete epigenetic changes.

The application of real-time genomics by long-read nanopore sequencing to environmental samples creates a new trajectory for non-invasive genomics-based monitoring of critically endangered wildlife.

The DNA-bridging efficiency of H-NS, a genome organising and transcription regulatory protein, is modulated by changes in environmental conditions of the cell, which drive a structural rearrangement of the protein.

From now on, nanopore metagenomics can be used to monitor aquatic environments with high spatiotemporal resolution, by use of a benchmarked, standardised and cost-effective workflow.

Signals from major hormones and the environment are integrated in the Arabidopsis hypocotyl to control gene expression and plant stem elongation.

By leveraging quantitative environmental DNA metabarcoding and ecological network analysis, influential organisms in rice fields are identified, thereby revealing potential avenues for environmentally friendly agricultural practices.