https://mapress.com/bde/issue/feedBryophyte Diversity and Evolution2024-05-22T00:00:00+12:00Chief Editor Michael Stechmichael.stech@naturalis.nlOpen Journal Systems<p><strong>Bryophyte Diversity and Evolution </strong>is an international research journal of the <a href="http://bryology.org/" target="_blank" rel="noopener">International Association of Bryologists</a> (IAB). BDE publishes review articles and original contributions on the diversity and biology of bryophytes (i.e., liverworts, mosses and hornworts), including bryophyte chemistry, conservation, ecology, genetics, genomics, ontogeny, mutualism, phylogeography, physiology, and systematics. All contributions are peer-reviewed. It was previously published under the title Tropical Bryology (1989–2013).</p>https://mapress.com/bde/article/view/bde.47.1.1<strong>Special issue for Stephan Robbert Gradstein, commemorating his 80th birthday (Cover)</strong>2024-05-21T13:39:03+12:00CATHERINE REEBcatherine.reeb@mnhn.frMICHAEL STECHmichael.stech@naturalis.nlMATT VON KONRATmkonrat@fieldmuseum.org2024-05-22T00:00:00+12:00Copyright (c) 2024 https://mapress.com/bde/article/view/bde.47.1.2<strong>Special issue for Stephan Robbert Gradstein, commemorating his 80th birthday (Table of Contents)</strong>2024-05-21T13:39:20+12:00CATHERINE REEBcatherine.reeb@mnhn.frMICHAEL STECHmichael.stech@naturalis.nlMATT VON KONRATmkonrat@fieldmuseum.org2024-05-22T00:00:00+12:00Copyright (c) 2024 https://mapress.com/bde/article/view/bde.47.1.3<strong>In Celebration of Professor Stephan Robbert Gradstein</strong>2024-05-21T13:39:45+12:00BARBARA J. CRANDALL-STOTLERcrandall@siu.edu2024-05-22T00:00:00+12:00Copyright (c) 2024 https://mapress.com/bde/article/view/bde.47.1.4<strong>A new Western Australian species of <em>Riccia</em> in section <em>Spongodes</em> Nees, group ‘Vesiculosa’ (Ricciaceae, Marchantiophyta)</strong>2024-05-21T13:40:00+12:00D. CHRISTINE CARGILLchris.cargill@dcceew.gov.auEMERSON LAMONDuser@example.comJOSEPHINE MILNEuser@example.comKATRINA SYMEuser@example.com<p lang="en-GB" align="left"><span style="color: #000000;"><span style="font-family: Times New Roman, serif;"><span style="font-size: small;"><span lang="en-US"><em>Riccia anguillarum </em></span><span lang="en-US">Cargill, is described from Western Australia. This endemic species is distinguished by a fleshy, succulent thallus (similar to southern African species of </span><span lang="en-US"><em>Riccia </em></span><span lang="en-US">in section </span><span lang="en-US"><em>Spongodes, </em></span><span lang="en-US">group ‘Vesiculosa’). It is also unique within </span><span lang="en-US"><em>Riccia </em></span><span lang="en-US">and the Ricciaceae in having a thallus of multilayered air spaces and a bi-layered capsule wall. A description of the new species with images, illustrations and map of its locations is provided.</span></span></span></span></p> <p> </p>2024-05-22T00:00:00+12:00Copyright (c) 2024 https://mapress.com/bde/article/view/bde.47.1.5<strong><em>Fissidens bassilae</em> (Fissidentaceae, Musci), a new species from Africa</strong>2024-05-21T13:40:29+12:00BORIS MAHOUSSI HENORCK ALIAborisalia718@gmail.comCATHERINE REEBcatherine.reeb@mnhn.frMONIQUE G. TOSSOUuser@example.comMARIA ALIDA BRUGGEMAN-NANNENGAuser@example.com<p lang="en-GB" align="left"><span style="color: #000000;"><span style="font-family: Times New Roman, serif;"><span style="font-size: small;"><span lang="en-US"><em>Fissidens bassilae</em></span><span lang="en-US"> sp. nov. is described and illustrated from Benin. This terrestrial species is characterized by large cells, persistent protonemata and limbidia restricted to the vaginant laminae of some perichaetial leaves. The similar Asian-Australian</span><span lang="en-US"><em> F. flabellulus</em></span><span lang="en-US"> Thwaites & Mitt. var.</span><span lang="en-US"><em> flabellulus</em></span><span lang="en-US"> has smaller cells, all leaves elimbate and lacks persistent protonemata. The new species belongs to </span><span lang="en-US"><em>Fissidens</em></span><span lang="en-US"> subg. </span><span lang="en-US"><em>Polypodiopsis.</em></span></span></span></span></p> <p> </p>2024-05-22T00:00:00+12:00Copyright (c) 2024 https://mapress.com/bde/article/view/bde.47.1.6<strong><em>Lejeunea robbertiana</em> (Lejeuneaceae), a new liverwort species from New Caledonia</strong>2024-05-21T13:40:57+12:00GAIK EE LEEgaik.ee@umt.edu.myTAMÁS PÓCSuser@example.com<p lang="en-GB" align="left"><span style="color: #000000;"><span style="font-family: Times New Roman, serif;"><span style="font-size: small;"><span lang="en-US"><em>The new species, </em></span><span lang="en-US"><em>Lejeunea robbertiana</em></span><span lang="en-US"> G.E. Lee & Pócs, from New Caledonia is described and illustrated. It is characterized by the abundance of ribbon-like propagules, which are usually 4 cells wide and found on the leaf margins. The leaf cells have well-developed trigones and conspicuous intermediate thickenings, up to 3 per cell. The distantly arranged underleaves with deeply bifid lobes, the pyriform perianth with 5 keels, and autoicy are also the distinguishing characteristics of the new species. </span></span></span></span></p> <p> </p>2024-05-22T00:00:00+12:00Copyright (c) 2024 https://mapress.com/bde/article/view/bde.47.1.7<strong>Homoplasy rather than intergeneric hybridisation explains mammillose leaf cells in <em>Schistidium mammillosum</em> sp. nov. (Grimmiaceae)</strong>2024-05-21T13:41:19+12:00THOMAS KIEBACHERthomas.kiebacher@smns-bw.deNARJES YOUSEFInarjes.yousefi@systbot.uzh.chMARKUS MEIERmkmeier@gammarus.chANDREW HODGSONandrewjhodgson@hotmail.comHANS H. BLOMHans.Blom@nibio.no<p lang="en-GB" align="left"><span style="color: #000000;"><span style="font-family: Times New Roman, serif;"><span style="font-size: small;"><span lang="en-US"><em>We present a peculiar new species in the Grimmiaceae, </em></span><span lang="en-US"><em>Schistidium mammillosum,</em></span><span lang="en-US"> which is distinct in having mammillose leaf cells and pluristratose lamina. These features are rare in mosses but shared by a few </span><span lang="en-US"><em>Grimmia</em></span><span lang="en-US"> species including sympatric </span><span lang="en-US"><em>G. alpestris</em></span><span lang="en-US">. Sporophyte characteristics of the new taxon, in contrast, indicated a species of </span><span lang="en-US"><em>Schistidium</em></span><span lang="en-US"> and suggested a possible intergeneric hybrid origin. Nuclear ITS and plastid </span><span lang="en-US"><em>rps4‒trnF</em></span><span lang="en-US"> sequence data consistently resolved the new taxon within species of </span><span lang="en-US"><em>Schistidium,</em></span><span lang="en-US"> thus contradicting the hybridogenic hypothesis. We suggest that the shared feature of mammillose cells evolved independently in the two genera in adaptation to similar environmental conditions, possibly prolonged snow cover. Supported by morphological similarity, our phylogenetic analyses indicate a sister relationship of </span><span lang="en-US"><em>S. mammillosum</em></span><span lang="en-US"> and </span><span lang="en-US"><em>S. marginale</em></span><span lang="en-US"> in the Confertum clade. </span><span lang="en-US"><em>Schistidium mammillosum</em></span><span lang="en-US"> colonises siliceous rocks in the alpine and nival zone and is to date known from the French Alps and a single locality in Switzerland.</span></span></span></span></p> <p> </p>2024-05-22T00:00:00+12:00Copyright (c) 2024 https://mapress.com/bde/article/view/bde.47.1.8<strong>Another cup of Java—An updated checklist of hornworts and liverworts of Java</strong>2024-05-21T13:41:52+12:00LARS SÖDERSTRÖMlars.soderstrom@ntnu.noANDERS HAGBORGhagborg@pobox.comAINUN NADHIFAHainun.nadhifah@brin.go.idIDA HAERIDAihaerida@gmail.comEKA A. P. ISKANDARekaa001@brin.go.idMATT VON KONRATmkonrat@fieldmuseum.org<p lang="en-GB" align="left"><span style="color: #000000;"><span style="font-family: Times New Roman, serif;"><span style="font-size: small;"><span lang="en-US">This represents an update to the 2010 checklist of all hornworts and liverworts reported for Java. The checklist includes i) new information published since 2010, ii) previously overlooked historical literature as well as iii) corrected unintentional mistakes that were published in 2010. We now report that the hornwort and liverwort flora of Java consists of 608 known and accepted species as well as several invalid names that we can not place to any taxon. The updated checklist includes 35 recorded species that are considered dubious and another 157 species are excluded from the flora of Java.</span></span></span></span></p> <p> </p>2024-05-22T00:00:00+12:00Copyright (c) 2024 https://mapress.com/bde/article/view/bde.47.1.9<strong>Mosses of Coahuila, northern Mexico: The dryland species</strong>2024-05-21T13:42:23+12:00CLAUDIO DELGADILLO-MOYAmoya@unam.mxANA PAOLA PEÑA-RETESpaoretes@ib.unam.mx<p lang="en-GB" align="left"><span style="color: #000000;"><span style="font-family: Times New Roman, serif;"><span style="font-size: small;"><span lang="en-US">The moss flora of the state of Coahuila and that in northwestern Mexico is poorly known. Recent exploration in the drylands of Coahuila have yielded findings that bring the number to about 101 species in the state moss flora where the Pottiaceae, Bryaceae, and Grimmiaceae are the families best represented. The lowland moss flora is well represented in the Chihuahuan Desert area in northern Mexico, but also in the southern United States. Species of </span><span lang="en-US"><em>Crossidium, Pseudocrossidium</em></span><span lang="en-US">, and </span><span lang="en-US"><em>Syntrichia</em></span><span lang="en-US"> are known desiccation-tolerant mosses; </span><span lang="en-US"><em>Entodon concinnus</em></span><span lang="en-US"> and </span><span lang="en-US"><em>Ephemerum coherens</em></span><span lang="en-US"> are additions to the moss flora of Mexico.</span></span></span></span></p> <p> </p>2024-05-22T00:00:00+12:00Copyright (c) 2024 https://mapress.com/bde/article/view/bde.47.1.10<strong>Bryophyte flora of São Tomé and Príncipe: an update of the Lejeuneaceae family</strong>2024-05-21T13:42:45+12:00DENISE PINHEIRO COSTAdenisepinheirodacosta@gmail.comCÉSAR AUGUSTO GARCIAcgarcia@ciencias.ulisboa.ptCECÍLIA SÉRGIOclgomes@ciencias.ulisboa.pt<p lang="en-GB" align="left"><span style="color: #000000;"><span style="font-family: Times New Roman, serif;"><span style="font-size: small;"><span lang="en-US">A Lejeuneaceae updated checklist for S</span><span lang="en-US">ão Tomé and Príncipe is presented, including 69 species, being 32 taxa endemic, 23 new records to São Tomé and Príncipe, and 10 new records to Africa. This checklist has been carried out, based on the study of ca. 600 samples housed at LISU herbarium collected by the second author in his postdoctoral project, on two field works in 2007 and 2008, and later in 2016. Within the Lejeuneaceae family, 85 species were known from the country and the new reports increased the total number of species in 27% compared with the last publications. Thus the islands can be distinguished due to the high number of the species of the Lejeuneaceae family that represents about 50% of the country liverwort’s flora. These results corroborate that field work and study of herbarium collections bringing new data for the bryophyte diversity of the archipelago.</span></span></span></span></p> <p> </p>2024-05-22T00:00:00+12:00Copyright (c) 2024 https://mapress.com/bde/article/view/bde.47.1.11<strong>A morphological-taxonomic study of <em>Frullania calcarifera</em> Steph. (Frullaniaceae) in Portugal</strong>2024-05-21T13:43:10+12:00CECÍLIA SÉRGIOcsergio@fc.ul.ptMANUELA SIM-SIMmmsim-sim@fc.ul.ptCÉSAR AUGUSTO GARCIAcgarcia@fc.ul.ptRONALD PORLEYron.porley@sapo.ptRUI FIGUEIRAruifigueira@isa.ulisboa.pt<p lang="en-GB" align="left"><span style="color: #000000;"><span style="font-family: Times New Roman, serif;"><span style="font-size: small;"><span lang="en-US"><em>Frullania</em></span><span lang="en-US"> is one of the largest genera of liverworts in Europe with morphologically polymorphic species in the Holarctic region, giving rise to reservations regarding the delimitation of some taxa. Initially described by Stephani (1887) from Portugal, </span><span lang="en-US"><em>Frullania calcarifera</em></span><span lang="en-US"> is a neglected liverwort in the semi-cryptic </span><span lang="en-US"><em>F. tamarisci</em></span><span lang="en-US"> complex. Following years of obscurity, </span><span lang="en-US"><em>F. calcarifera</em></span><span lang="en-US"> was eventually resurrected as a good species and reported from the Pyrenees, Italy, Algeria and more recently the Ukraine (Crimean Peninsula). In the present study, based on Portuguese material, distinguishing characters and illustrations of the types and representative specimens of </span><span lang="en-US"><em>F. calcarifera</em></span><span lang="en-US"> are presented. An updated distribution of </span><span lang="en-US"><em>F. calcarifera</em></span><span lang="en-US"> in Portugal, and a predictive model of its known areas of occurrence in Portugal is presented and discussed in relation to the distribution of its congener </span><span lang="en-US"><em>F. tamarisci</em></span><span lang="en-US">. </span></span></span></span></p> <p> </p>2024-05-22T00:00:00+12:00Copyright (c) 2024 https://mapress.com/bde/article/view/bde.47.1.12<strong>Identification tools for <em>Bazzania</em> (Lepidoziaceae, Marchantiophyta) from Madagascar: the Xper3 interactive and static keys</strong>2024-05-21T13:43:39+12:00ANDREA SASS-GYARMATIsassgyarmati@gmail.comCATHERINE REEBcatherine.reeb@gmail.com<p lang="en-GB" align="left"><span style="color: #000000;"><span style="font-family: Times New Roman, serif;"><span style="font-size: small;"><span lang="en-US">A computer-assisted identification (CAI) key, created by the XPer3 software, is presented based on the description of the genus </span><span lang="en-US"><em>Bazzania</em></span><span lang="en-US"> (Lepidoziaceae) in Madagascar. The knowledge database is presented along with automatically generated keys and static keys, which are both produced by the software. Although these tools are powerful and user-friendly, expert competence is essential both for building the database and providing relevant keys.</span></span></span></span></p> <p> </p>2024-05-22T00:00:00+12:00Copyright (c) 2024 https://mapress.com/bde/article/view/bde.47.1.13<strong>The water absorption capacity of 21 <em>Sphagnum</em> species</strong>2024-05-21T13:44:03+12:00RAN-RAN YANG51251300002@stu.ecnu.edu.cnZHUO-JUN YANGzjyang1999@163.comXIAO-YING MAxyma_bio@163.comWEN-ZHUAN HUANG52201300006@stu.ecnu.edu.cnXIA-FANG CHENGxfcheng@bio.ecnu.edu.cnLEI SHUlshu@bio.ecnu.edu.cnRUI-LIANG ZHUrlzhu@bio.ecnu.edu.cn<p lang="en-GB" align="left"><span style="color: #000000;"><span style="font-family: Times New Roman, serif;"><span style="font-size: small;"><span lang="en-US"><em>Sphagnum</em></span><span lang="en-US"> moss (peat moss) is the dominant land plant in peatlands, and it plays an essential role in peatland ecosystems because its remarkable water-holding capacity helps to conserve water resources and maintain the anoxic environment of peatlands. </span><span lang="en-US"><em>Sphagnum</em></span><span lang="en-US"> moss exhibits a super ability to absorb water. However, the water absorption capacity of different species and different parts of the same species is not well understood. In this study, we measured the short-term and saturated water absorption of 21 </span><span lang="en-US"><em>Sphagnum</em></span><span lang="en-US"> species from China. The results showed that the water absorption capacity of the investigated peat mosses was much higher than that of other bryophytes. </span><span lang="en-US"><em>Sphagnum imbricatum</em></span><span lang="en-US"> had the highest saturated</span> <span lang="en-US">water absorption capacity (about 44 times its dry weight), while the peat moss with the lowest saturated</span> <span lang="en-US">water absorption was </span><span lang="en-US"><em>Sphagnum flexuosum</em></span><span lang="en-US"> (about 19 times its dry weight). In addition, we determined the relative volume of hyalocysts of the spreading and pendent branch leaves of 18 </span><span lang="en-US"><em>Sphagnum</em></span><span lang="en-US"> species and further measured the water absorption capacity of the pendent branch, spreading branch, and stem of six of them. The results revealed that both pendent and spreading branches had strong water absorption capacity and were the primary water-absorbing parts of peat mosses. The water-absorbing capacity of different </span><span lang="en-US"><em>Sphagnum</em></span><span lang="en-US"> species was linearly related to the volume of hyalocysts. The results provide an essential scientific basis for selecting high-quality germplasm resources of peat moss.</span></span></span></span></p> <p> </p>2024-05-22T00:00:00+12:00Copyright (c) 2024