Dryopteris carthusiana

Common Names: spinulose woodfern

Ethnobotanical Studies

Studies

Asymmetric hybridization in Central European populations of the Dryopteris carthusiana group.

Hornych O et al (2019).
Am J Bot.
PubMed:
31634425

δ(15)N of forest soil and understorey vegetation reflect the former agricultural land use.

Koerner W et al (1999).
Oecologia.
PubMed:
28308332

Transfer of elements relevant to nuclear fuel cycle from soil to boreal plants and animals in experimental meso- and microcosms.

Tuovinen TS et al (2016).
Sci Total Environ.
PubMed:
26363398

Element interactions and soil properties affecting the soil-to-plant transfer of six elements relevant to radioactive waste in boreal forest.

Roivainen P et al (2012).
Radiat Environ Biophys.
PubMed:
22130976

Reproductive biology of three fern species may contribute to differential colonization success in post-agricultural forests.

Flinn KM et al (2006).
Am J Bot.
PubMed:
21642193

Species boundaries and frequency of hybridization in the Dryopteris carthusiana (Dryopteridaceae) complex: A taxonomic puzzle resolved using genome size data.

Summary

Genome duplication and hybridization shape the characteristics, behavior, and reproduction patterns of land plants like the Dryopteris carthusiana complex. This group consists of one diploid species (D. expansa) and two allotetraploid species (D. carthusiana and D. dilatata) in Central Europe. Similar appearances, adaptability, and the presence of hybrids have created ongoing debates regarding species definitions. The study explores the significance of these processes in understanding the evolution and diversity of land plants.

Ekrt L et al (2010).
Am J Bot.
PubMed:
21616872

Influence of fertilizing on the (137)Cs soil-plant transfer in a spruce forest of Southern Germany.

Zibold G et al (2009).
J Environ Radioact.
PubMed:
19375834

Microsite-limited recruitment controls fern colonization of post-agricultural forests.

Flinn KM et al (2007).
Ecology.
PubMed:
18229844