Research Article10.1016/j.gde.2026.102476Wound-triggered plasticity in plant regeneration.Apr 23, 2026Current opinion in genetics & developmentMax Minne + 1 more +1CiteListenSave
Research Article10.1016/j.gde.2025.102429Polymer simulations of chromatin: connecting 3D organization and dynamics to function.Feb 01, 2026Current opinion in genetics & developmentShuvadip Dutta + 1 more +1CiteListenSave
Research Article10.1016/j.gde.2025.102427Cooperativity between regulatory elements acts as a modulator of enhancer function.Feb 01, 2026Current opinion in genetics & developmentDeevitha Balasubramanian + 2 more +2CiteListenSave
Research Article210.1016/j.gde.2025.102383Dynamic three-dimensional epigenomic reorganization for the development of undifferentiated spermatogonia in mice.Oct 01, 2025Current opinion in genetics & developmentMasahiro Nagano + 1 more +1CiteListenSave
Research Article310.1016/j.gde.2025.102353Rewinding the clock: mechanisms of dedifferentiation.Aug 01, 2025Current opinion in genetics & developmentAmelie A Raz + 1 more +1CiteListenSave
Research Article110.1016/j.gde.2025.102375The Yin and Yang of replicative aging and rejuvenation.Aug 01, 2025Current opinion in genetics & developmentWei-Han Lin + 2 more +2Budding yeast undergoes replicative aging through asymmetric cell divisions. Yeast mother cells progressively age as they generate successive daughter cells, until they ultimately die. However, their daughters are born rejuvenated, that is, most of them recover a full lifespan potential, with little impact of their mothers' age at their birth. In this review, we will discuss recent findings regarding the mechanisms of replicative aging and rejuvenation. Based on these insights, we will also discuss which evolutionary forces may havepresided over the emergence of aging in yeast. We suggest that aging and rejuvenation represent two adaptive strategies that each bring their own benefits.Read moreCiteListenSave
Research Article210.1016/j.gde.2025.102368Recent advances in interspecies chimeras and organogenesis.Aug 01, 2025Current opinion in genetics & developmentJia Huang + 2 more +2CiteListenSave
Research Article1110.1016/j.gde.2025.102369Transcriptional adaptation: where mRNA decay meets genetic compensation.Aug 01, 2025Current opinion in genetics & developmentLara Falcucci + 2 more +2Nonsense-mediated mRNA decay (NMD) is a translation-coupled quality control mechanism that safeguards cells against faulty transcripts that could lead to truncated and potentially harmful proteins. However, we posit that there is another side to NMD: it does not just clear away defective transcripts, it also triggers a form of genetic compensation known as transcriptional adaptation (TA). This recently discovered cellular response operates independently of protein loss. Instead, mutant mRNA decay can lead to the upregulation of functional paralogs, thereby compensating for the loss of the mutated gene. Consequently, TA could play a prominent role in genotype-phenotype correlations in human genetic diseases.Read moreCiteListenSave
Research Article210.1016/j.gde.2025.102354Molecular basis of cell fate plasticity - insights from the privileged cells.Aug 01, 2025Current opinion in genetics & developmentStephen Maxwell Scalf + 2 more +2CiteListenSave
Front Matter10.1016/j.gde.2025.102355Editorial overview: Emerging perspectives in genome architecture and gene regulation.Aug 01, 2025Current opinion in genetics & developmentMarcelo Nollmann + 1 more +1CiteListenSave