bioRxivEvolutionary Biology
Mineral facilitated horizontal gene transfer: A new principle for evolution of life?
Abstract
A number of studies have highlighted that adsorption to minerals increases DNA longevity in the environment. Such DNA-mineral associations can essentially serve as pools of genes that can be stored across time. Importantly, this DNA is available for incorporation into alien organisms through the process of horizontal gene transfer. Here we argue that minerals hold an unrecognized potential for successfully transferring genetic material across environments and timescales to distant organisms and hypothesize that this process has significantly influenced the evolution of life. Our hypothesis is illustrated in the context of the evolution of early microbial life and the oxygenation of the Earths atmosphere and offers an explanation for observed outbursts of evolutionary events caused by horizontal gene transfer.
Reproducibility ledger
Nobody has reported trying to reproduce this paper yet. Did you replicate an experiment or run the code? Your report saves the next lab a week.
Sign in to file a reproducibility report.
Related papers
- Recurrence and propagation of past functions through mineral facilitated horizontal gene transfer
T. Verma, S. Hendiani, … K. K. Sand·bioRxiv·Jan 24, 2023
- Reconciling the importance of minerals for propagation of antibiotic resistance genes in the environment
S. Hendiani, C. Carbajo, … K. K. Sand·bioRxiv·Mar 4, 2024
- Survival of environmental DNA in sediments: Mineralogic control on DNA taphonomy
C. L. Freeman, L. Dieudonne, … K. K. Sand·bioRxiv·Jan 28, 2020
- Changes in natural transformation after salt adaptation
H. A. Kittredge, S. E. Evans·bioRxiv·Dec 5, 2021
- Horizontal gene transfer, segregation loss and the speed of microbial adaptation
David V. McLeod, Sylvain Gandon·Evolution LettersPeer-reviewed·Jul 14, 2025
- Evolutionary crowdsourcing: alignment of fitness landscapes allows cross-species adaptation of a horizontally transferred gene
O. Kosterlitz, N. Grassi, … B. Kerr·bioRxiv·Sep 13, 2022