整合生物学期刊网

2026年, 第48卷, 第01期 
刊出日期:2026-01-25
  

  • 全选
    |
    Review
  • Bishal Gurung, Yan Zeng, Jia Tang, Xing-Rong Peng, Yu-Lin Xu, Feng-Mao Yang, Xiang-Hai Cai, Jia Ge, Gao Chen
    Plant Diversity. 2026, 48(01): 1-15. https://doi.org/10.1016/j.pld.2025.10.005
    The global burden of cancer, with over 19 million new cases annually, underscores the urgent need for effective therapies. Among the most promising anticancer compounds is camptothecin (CPT), a monoterpene alkaloid predominantly derived from Nothapodytes species. Despite its significant pharmaceutical value, the exploitation of such Threatened Plant Species with Widespread Distribution (TPSWD), particularly driven by the global demand for natural compounds in anticancer therapies, presents a paradox in which their widespread distribution fails to ensure their secure conservation status. Furthermore, the lack of in-depth biogeographic and systematic studies complicates efforts to balance resource utilization with biodiversity preservation. The asymmetric distribution of CPT within plant taxa, along with limited knowledge of its biosynthetic pathways and the enzymes and genes involved, further hampers sustainable production. Here, we review the current knowledge on the production and protection of Nothapodytes, focusing on their plant resources, active ingredients, and natural drug derivatives. We also explore strategies for rescuing and sustainably utilizing Nothapodytes, including biotechnological advancements and integrated conservation practices. Finally, we propose future directions to address conservation challenges, ensuring a sustainable supply of CPT while safeguarding these TPSWD species.
  • Jia-Min Xiao, Ming-Yang Li, Jun Wen, Radosław Puchałka, Huan-Yu Wu, Wen-He Li, Zi-Yi Li, Bo-Wen Liu, Yue-Xin Luo, Ru-Dan Lyu, Le-Le Lin, Jian He, Jin Cheng, Lei Xie, Liang-Qian Li
    Plant Diversity. 2026, 48(01): 16-40. https://doi.org/10.1016/j.pld.2025.11.004
    The genus Clematis (Ranunculaceae) comprises over 300 species with remarkable morphological and ecological diversity worldwide. Despite its horticultural, medicinal, and ecological importance, a well-resolved phylogeny and coherent infrageneric classification are still lacking. Here, we reconstruct a robust phylogeny for Clematis using a phylogenomic approach and revise its infrageneric taxonomy. We incorporated 198 samples representing 151 species, two subspecies, and 12 varieties, covering all subgenera and most sections worldwide, obtained from both fresh and herbarium material. Nuclear single nucleotide polymorphisms (SNPs) and complete plastid genomes were assembled for phylogenetic analyses. We also prepared a nuclear ribosomal ITS (nrITS) dataset comprising 171 species, two subspecies, and 12 varieties (217 samples) to include as many species as possible for phylogenetic inference. Phylogenies based on plastid genomes and nrITS exhibited limited resolution and modest support, highlighting challenges in resolving certain relationships. Nuclear SNP analyses yielded a robust phylogenetic tree with 22 well-supported clades corresponding to 22 sections, with most previously recognized subgenera and sections not recovered as monophyletic. Ancestral state reconstruction of 12 key morphological characters revealed multiple independent origins of character states. This study presents the first comprehensive sectional classification for Clematis based on robust phylogenomic evidence, redefines morphological characteristics for each section, and resolves long-standing taxonomic ambiguities. Our results establish a framework for future studies on the evolution, ecology, and horticultural potential of this globally significant genus.
  • Liyun Nie, Jie Wang, Lei Huang, Jiali Kong, Bao Nie, Luke R. Tembrock, Shanshan Dong, Ravi Tiwari, Hui Wang, Shenglong Kan, Xinhui Zou, Zhiqiang Wu
    Plant Diversity. 2026, 48(01): 41-58. https://doi.org/10.1016/j.pld.2025.10.003
    Deep relationships in the angiosperm tree of life remain highly controversial. To address this, we first assembled the complete mitochondrial genomes for Ceratophyllum demersum and Chloranthus sessilifolius, confirming a well-supported sister relationship that starkly conflicts with nuclear and plastid data. To dissect this classic cyto-nuclear conflict, we developed the ‘PhyloForensics’ framework, a novel diagnostic approach to systematically identify sources of phylogenetic instability. This framework revealed that signal heterogeneity (topological entropy variance) and information content (the proportion of informative sites) are the primary drivers of gene-tree conflict. Empirically validating this, we show that removing a small subset of “loudly conflicted” genes resolves deep-level incongruence, yielding a single, highly-supported topology previously obscured by noise. Finally, complementing this sequence-based resolution, we demonstrate that mitogenome architecture provides powerful phylogenetic signals, revealing predictable, mitogenome-wide evolutionary patterns, such as a significant negative correlation between branch length and both GC content and RNA editing sites. By integrating a validated conflict-resolution framework with architectural genomics, our study provides a comprehensive strategy for navigating the complexities of deep evolutionary histories.
  • Hao Yan, Yihao Zhang, Hailun Shi, Xuande Xu, Shuangbing Yu, Lijun Yan, Yan Zhao, Dandan Wu, Yue Zhang, Yiran Cheng, Yi Wang, Houyang Kang, Xiao Ma, Haiqin Zhang, Yonghong Zhou, Wenjie Chen, Lina Sha, Xing Fan
    Plant Diversity. 2026, 48(01): 59-74. https://doi.org/10.1016/j.pld.2025.10.002
    Elucidating the origins and mechanisms of polyploidization requires tracing the evolutionary history of polyploid species, particularly those with complex origins. Agropyron cristatum, traditionally regarded as an autopolyploid, exhibits characteristics indicative of a segmental allopolyploid. Here, we used phylogenetic analysis based on a low-copy nuclear gene (i.e., Pgk1), SLAF-seq, and plastome data from 20 diploid and 120 tetraploid Agropyron individuals to determine whether tetraploid A. cristatum arose from an allopolyploid or autopolyploid event. Phylogenetic analyses based on Pgk1 and SLAF-seq data identified two distinct A. cristatum lineages that corresponded to the two main Agropyron habitats in Central Asia–Europe and East Asia–Qinghai-Tibet Plateau. These findings, taken together with molecular dating and gene flow analyses, suggest that the East Asian tetraploid A. cristatum originated via both autopolyploidy from A. cristatum and hybridization between diploid A. cristatum and A. mongolicum, with each diploid cytotype acting as a maternal donor. Furthermore, the Central Asia–Europe tetraploid A. cristatum originated solely via autopolyploidy of diploid A. cristatum. Our findings also indicate that rapid diversification of Agropyron was likely driven by climate oscillations, geographic isolation, introgressive hybridization, and chloroplast capture. These findings challenge simplistic views of autopolyploids and underscore substantial potential for achieving high levels of genetic and adaptive diversity through recurrent hybridization and reticulate evolution.
  • Zhiqiang Xiao, Hui Liu, Guiyun Huang, Di Wu, Liwen Qiu, Jinhua Wu, Xinzeng Wei, Mingxi Jiang
    Plant Diversity. 2026, 48(01): 75-83. https://doi.org/10.1016/j.pld.2025.09.001
    Successful ex situ conservation of plant populations requires a high degree of genetic representativeness. However, spatially biased sampling in ex situ conservation efforts may fail to capture all wild genetic clusters for species with range-wide genetic structure. To investigate the extent of spatially biased sampling in living collections and the coverage of wild genetic clusters in plant populations under ex situ conservation worldwide, we combined a global synthesis of ex situ conservation efforts with a case study of an endangered riparian plant species, Myricaria laxiflora. Our analysis of ex situ conservation worldwide revealed that the majority (82.6%) of ex situ populations fail to cover all wild genetic clusters, largely due to spatially biased sampling with low geographic coverage. Our case study of M. laxiflora showed that genetic diversity differed between the ex situ and upstream populations, while it was comparable between ex situ populations and other wild populations. However, current ex situ populations did not cover all wild genetic clusters, as the upstream genetic cluster was previously uncollected. Our study suggests that the failure to cover all wild genetic clusters in ex situ populations is a widespread issue, and ex situ populations with high genetic diversity can also fail to cover all wild genetic clusters. In future ex situ conservation programs, both the importance of high genetic diversity and the high coverage of wild genetic clusters should be prioritized.
  • Jia-Wei Yu, Yong-Zhi Yan, Qing Zhang
    Plant Diversity. 2026, 48(01): 84-91. https://doi.org/10.1016/j.pld.2025.10.006
    Conservationists have long debated whether fragmented habitats are best conserved by protecting a single large patch (SL) or several small patches (SS), i.e., the SLOSS debate. Although this SLOSS debate has provided important insights into biodiversity conservation, research has predominantly focused on only one dimension of diversity (i.e., taxonomic), failing to consider how phylogenetic and functional diversity might inform conservation strategies. In this study, we determined whether grasslands in the agro-pastoral ecotone of the Tabu River Basin, Inner Mongolia should be conserved by protecting a single large patch or several small patches. For this purpose, we quantified the relationships between three dimensions of biodiversity (taxonomic, phylogenetic, and functional diversity) and grassland patch area. We found species richness and the standardized effect size of phylogenetic diversity increased with patch area, whereas the standardized effect size of functional diversity decreased. Taxonomic measures of diversity indicated that the best strategy for conserving Tabu River Basin grasslands is to protect several small habitat patches; in contrast, phylogenetic and functional measures of diversity indicated that conserving a single large habitat patch was best. Our study emphasizes the necessity of considering multiple dimensions of diversity when designing conservation strategies for fragmented landscapes to achieve comprehensive biodiversity conservation.
  • Naveen Babu Kanda, Ashaq Ahmad Dar, Kurian Ayushi, Ayyappan Narayanan, Narayanaswamy Parthasarathy
    Plant Diversity. 2026, 48(01): 92-106. https://doi.org/10.1016/j.pld.2025.09.009
    Understanding spatial patterns of plant species diversity and the factors (e.g., climate and human) that drive these patterns is essential for biodiversity conservation. We used data from 170 0.1-ha forest plots in the Shettihalli tropical forest landscape of the Western Ghats biodiversity hotspot, India, to analyse tree community composition and the drivers of α-diversity (Shannon) and β-diversity (LCBD). Compositional patterns were visualized using Non-Metric Multidimensional Scaling (NMDS), and hybrid feature selection with structural equation modeling (SEM) was employed to evaluate the direct and indirect effects of environmental variables on diversity. NMDS identified four distinct forest types in the Shettihalli landscape: semi-evergreen, dry deciduous, moist deciduous, and plantation forests, each with distinct plant composition. Shannon diversity and ecological uniqueness was significantly higher in semi-evergreen forest than in deciduous forest plots. The SEMs explained about 79% and 39–45% of the variation in α-diversity and β-diversity. Our analysis indicated that current diversity patterns result from multiple processes, with structure, disturbance, and edaphic parameters exerting the strongest direct and indirect effects on α-diversity. β-diversity, in contrast, was largely influenced by climate, topography, stand structure, and edaphic factors. Overall, our findings indicate that various factors (e.g., climate, topography, and human disturbance) interact to shape tree diversity patterns in tropical forests. These findings will help develop unique conservation and management strategies for distinct forest types in tropical forest ecosystems.
  • Terezie Mandáková, Milan Pouch, Petra Hloušková, Dmitry A. German, Pavel Trávníček, Michael D. Windham, Martin A. Lysak
    Plant Diversity. 2026, 48(01): 107-116. https://doi.org/10.1016/j.pld.2025.06.009
    The genus Boechera (Brassicaceae) serves as a model system for studying apomictic reproduction and ecological adaptations, with most species occurring in North America. The rare occurrence of Boechera species outside their typical range provides unique opportunities to investigate genome evolution in extralimital environments. One such species, B. calcarea, has been described from the Chandalaz Mountains in northeastern Asia (Russia). This study aimed to investigate the genome structure and evolutionary history of B. calcarea. However, our analyses reveal that the species does not belong to Boechera. Instead, an integrative approach combining cytogenetic, phylogenetic and repeatome analysis identified the species as a member of one of more ancestral clades in the tribe Arabideae. The diploid Parryodes calcarea (2n = 16) exhibits Arabideae-specific chromosomal signatures, including multiple centromere repositionings. These findings clarify the misclassification of P. calcarea as Boechera, leaving Boechera falcata and Borodinia macrophylla as the only representatives of the Boechereae in the Old World. This study highlights the importance of an integrative approach in resolving taxonomic ambiguities and provides new insights into the diversification of the largest cruciferous tribe, the Arabideae.
  • Deyi Wang, Vincent S. F. T. Merckx, Hans Jacquemyn, Sofia I. F. Gomes
    Plant Diversity. 2026, 48(01): 117-127. https://doi.org/10.1016/j.pld.2025.08.002
    Mycorrhizal symbioses are prevalent in terrestrial ecosystems and play essential roles in plant nutrition and health. However, the relative importance of plant evolutionary history, physiology, and eco-geographical factors in shaping mycorrhizal fungal community assembly remains poorly understood. Here, we investigate how plant phylogeny, trophic mode, biogeographic distribution and environmental niche collectively influence the diversity and composition of mycorrhizal fungal communities across the Orchidaceae, spanning broad phylogenetic and ecological scales. By using family-wide orchid-fungal associations and global occurrence data, our analyses showed that the variation in fungal diversity and community structure can be partially explained by orchids’ trophic mode, biogeographic distribution and environmental niche, but not by their overall phylogenetic relatedness. Among trophic modes, partially mycoheterotrophic orchids exhibited the highest level of fungal diversity (the lowest level of fungal specificity) in association with a broad range of phylogenetically dispersed fungal partners. Between biogeographical regions, a significantly higher level of fungal specificity was found for orchid species distributed in Australia than those in Eurasia and Africa. Furthermore, multivariate analyses showed that a small portion of the variation in fungal community structure was significantly related to broad climate, soil and vegetation variables, indicating the existence of large-scale habitat filtering on orchid mycorrhizal communities. Altogether, our findings indicate that mycorrhizal communities in the orchid family are likely shaped by multiple, intertwined factors related to orchid ecophysiology and biogeography on a global scale.
  • Qinwen Han, Qingpei Yang, Binglin Guo, Tino Colombi, Junjian Wang, Huifang Wu, Zhipei Feng, Zhi Zheng, Zhenjiang Li, Yue Zhang, Meixu Han, Qiang Li, Junxiang Ding, Xitian Yang, Hannah M. Schneider, Ying Zhao, Deliang Kong
    Plant Diversity. 2026, 48(01): 128-139. https://doi.org/10.1016/j.pld.2025.12.008
    Soil compaction often imposes stress on root development and plant survival. However, root anatomical responses that enable persistent root growth and functioning under soil compaction remain unclear. We grew 10 herbaceous species differing substantially in lateral root diameter, in soils with low (1.0 g cm-3) and high (1.4 g cm-3) bulk density, and assessed root traits including root biomass, anatomical structures, and respiration rates. Greater root thickening upon soil compaction was found in species with thicker first-order lateral roots, mainly due to larger cortical cell size. Both xylem vessel diameter and wall thickness increased more in compacted soils in these species. Despite these anatomical shifts, root respiration rate responded little to soil compaction across most species, likely due to the opposite investment in cortical cells and xylem vessels. Notably, root biomass, independent of root respiration rate and anatomical structures, determined whole-plant growth under soil compaction. Our study reveals two independent strategies of root response to soil compaction: anatomical remodeling for mechanical and metabolic maintenance, and root biomass investment for resource acquisition. These findings offer new insights for breeding and selecting species tolerant to soil compaction and highlight multidimensional strategies of plant adaptation to physical stress.
  • Kainan Ma, Shuaixi Zhou, Ying Liu, Renchao Zhou
    Plant Diversity. 2026, 48(01): 140-150. https://doi.org/10.1016/j.pld.2025.09.003
    Plastome variation, including single spontaneous nucleotide substitutions and single insertions/deletions, is the major source of leaf variegation in plants. Additionally, one recent study has showed that a simple plastome structural variation, which is induced by one pair of small inverted repeats, can also result in leaf variegation. Here we show a complex plastome structural variation caused by intermolecular and intramolecular recombination across three pairs of small inverted repeats accounts for leaf variegation in a widely cultivated shrub Heptapleurum ellipticum (Araliaceae). This plastome structural variation contains two deletions and two duplications, resulting in dramatic expansion of IRs, substantial contraction of LSC and loss of 11 genes that essential for photosynthesis. Plastome heteroplasmy was detected in both green and albino sectors of variegated leaves. Relative to green sectors, albino sectors in the variegated leaves exhibit significantly reduced expression for the 11 genes lost in the mutated plastome as well as 26 other genes, but significantly increased expression for one gene related to translation apparatus. Optical and transmission electron microscopy observations showed that mesophyll cells of albino sectors possess plastids lacking grana lamellae, which likely carry the mutated plastome and contribute to albinism. In both sectors, the first layer of spongy mesophyll cells beneath the lower epidermis contains normal chloroplasts, suggesting periclinal division of the lower epidermis during development. Our study demonstrates that multiple small repeats can collectively mediate intra- and inter-molecular recombination in plastome and offers a new mechanism accounting for leaf variegation in plants.
  • Carlos Alberto Segura-Sanchez, Javier Hernández-Velasco, José Villanueva-Díaz, Víctor Chano, José Ciro Hernández-Díaz, Eduardo Mendoza-Maya, Artemio Carrillo-Parra, Christian Wehenkel
    Plant Diversity. 2026, 48(01): 151-159. https://doi.org/10.1016/j.pld.2025.05.011
    Forest ecosystems worldwide can be affected by extreme climatic events. Trees respond to these occurrences in multidimensional ways, involving various mechanisms, to deal with the effects and restore the forests to their optimal state. Such abilities are known as resilience. Tree ring analysis can be used to evaluate drought resilience. Analysis of dendrophenotypes, together with genetic studies, has become an essential tool for identifying drought resilient genotypes. This study aimed to determine the dendrogenomic resilience mechanisms in the fragmented, isolated, rare endemic Mexican species Picea martinezii and P. mexicana by analysis of annual rings and the associations with SNP markers identified by genotyping by sequencing (GBS). Increment cores and needles for GBS for resilience analysis were collected from P. martinezii trees in three populations, and from P. mexicana trees in two populations. The results show that fundamental dendrogenomic mechanisms were associated with drought resilience in P. martinezii and P. mexicana. PC1 in PCA for five outlier SNPs was linked to annual tracheid width variations in P. martinezii caused by severe drought events in 1962, 1989, 1998 and 2011. These five outlier SNPs were located in genes coding the proteins reticulon-like protein B22, pollen-specific leucine-rich repeat extension, ornithine decarboxylase like, LisH/CRA/RING-U-box domains-containing protein and proline transporter 2-like isoform X1, which are important in the dry stress tolerance metabolism involved in the resilience response in plants. The discovery of genetic markers associated with drought resilience highlights the importance of preserving genetic diversity.
  • Dong He, Lu Han, Chun-Hui Feng, En-Rong Yan
    Plant Diversity. 2026, 48(01): 160-168. https://doi.org/10.1016/j.pld.2025.08.001
    The trade-off between leaf size and leafing intensity (i.e., the number of leaves per unit stem size) is a key axis of trait covariation across the diversity of plant foliage deployment. However, the functional significance of leafing intensity and its possible combinations with leaf size in dealing with water limitation remains unclear. Using Populus euphratica as an illustrative tree species growing in hyper-arid climates, we investigated how leaf size and leafing intensity co-varied under varying water stresses. In the Ebinor lowlands and the upper reaches of the Tarim River (NW China), we sampled > 1800 current-year twigs from 505 trees across 14 sites along a climatic gradient characterized by precipitation, potential evapotranspiration and vapor pressure deficit. Leafing intensity based on stem mass (LIM) decreased with climatic aridity, primarily due to greater stem mass, but not fewer leaves. This indicates a higher investment in structural support for leaf attachment under water stress. Both leaf area and mass decreased with LIM at a lower-than-proportional rate, with the decrease in leaf size being more pronounced under drier climates. This suggests that higher LIM incurs a high cost of reducing leaf size in water-limited habitats. These findings challenge the assumption that higher leafing intensity always confers an advantage ready for environmental stresses due to higher developmental flexibility offered by more axillary buds. Rather, we propose that a strategy of lower leafing intensity, with greater structural support for leaf attachment and less compromise in leaf size, can be advantageous under water limitation.
  • Gui Zeng, Kai Zhang, Dianxiang Zhang, Shuai Yuan
    Plant Diversity. 2026, 48(01): 169-180. https://doi.org/10.1016/j.pld.2025.08.005
    Transitioning from outcrossing to self-fertilization is a widespread reproductive strategy in plants, especially in environments where pollination is limited. Despite its prevalence, this transition has rarely been examined using transplant experiments, and previous studies have overlooked the contribution of the male parent in elucidating mating diversity. In this study, six transplanted populations were generated to investigate the relationship of the pollination environment with plant mating patterns and fecundity in Primula oreodoxa, a species that exhibits both distyly (predominantly outcrossing) and homostyly (predominantly selfing), based on data from 3582 individuals and 11 SSR markers. Homostylous plants had fruit and seed sets comparable to those of distylous plants at lower elevations but exhibited a clear reproductive advantage at higher elevations, particularly compared with the S morph. As elevation increased, the populational selfing rates increased, and the genetic diversity among the progeny was reduced. Furthermore, the visitation frequency of long-tongued pollinators was negatively and positively correlated with the selfing rate and number of mates, respectively, in the L and S morphs. In contrast, short-tongued pollinator visitation showed opposite correlations with the selfing rate and number of mates in homostylous morphs. In most populations, individuals functioned consistently as both female and male, and mating occurred randomly, suggesting a breakdown of the distyly polymorphism. Overall, our results provide experimental validation of the reproductive advantages of homostyly at high elevations by revealing that pollinator visitation shapes the selfing rate and mating diversity within populations, potentially driving the divergence of mating systems along environmental gradients.
  • Lele Liu, Meiqi Yin, Yaolin Guo, Huijia Song, Xiao Guo, Weihua Guo
    Plant Diversity. 2026, 48(01): 181-191. https://doi.org/10.1016/j.pld.2025.06.001
    The competitor, stress tolerator, and ruderal strategy (CSR) framework has been widely applied to explain ecological processes across species. However, its utility in revealing intra-specific trade-offs and genetic adaptation to climate remains unclear. In this study, we examined whether the CSR strategy estimated by leaf traits can identify adaptations to climate in the common reed Phragmites australis. For this purpose, we integrated functional trait data from field surveys and a three-year common garden experiment to compare CSR scores between two typical populations of P. australis from western and eastern China. We further assessed the associations of CSR scores with latitude, bioclimatic factors, and phylogeographical sources using a global dataset including two invaded lineages in the North America. We found that competitor scores were positively correlated with latitude, whereas stress tolerator scores were negatively correlated. Competitor scores were positively correlated with bioclimatic factors, even when controlling for phylogeny. All CSR scores displayed significant phylogenetic signals, with the invasive lineage in the higher latitudes (haplotype M) exhibiting higher stress tolerator scores than the native lineage. Differences in competitor and stress tolerator scores between western and eastern Chinese populations of P. australis were consistent across field and common garden experiments. Although intra-species variation in CSR strategy may be influenced by phylogenetic history, our finding that CSR strategy in P. australis populations is correlated with latitude suggests these plants have adapted to local climates along a latitudinal gradient.
  • Yu Chen, Xingjiang Song, Gang Liu, Jia Wang, Chunling Zhang, Xiaojian Chang, Jiabin Zou, Zhihong Zhu
    Plant Diversity. 2026, 48(01): 192-203. https://doi.org/10.1016/j.pld.2025.05.012
    Prevention of biological invasion requires understanding how alien species invade native communities. Although studies have identified mechanisms that underlie plant invasion in some habitats, limited attention has focused on invasion patterns along elevational gradients. In this study, we asked which factors drive the global and regional distribution of the invasive plant Galinsoga quadriradiata along elevational gradients. To answer this question, we examined whether human activities (i.e., roads) promote G. quadriradiata invasion, how seed dispersal-related traits of G. quadriradiata change along elevation gradients, and whether G. quadriradiata has adapted to high-elevation environments through phenotypic plasticity or genetic variation. On the global scale, we found that human activities and road density positively contribute to the G. quadriradiata expansion in mountainous areas. Field surveys in China revealed significant elevational differences in the seed dispersal traits of G. quadriradiata, with higher-elevation populations exhibiting lower dispersal ability and generally lower genetic diversity. Under common conditions, high-elevation populations showed higher leaf mass ratio but lower root mass ratio and reproductive allocation. This suggests that high-elevation environments create a barrier to dispersal for G. quadriradiata, and that G. quadriradiata has adapted phenotypically to these conditions. Our study indicates that the elevational invasion pattern of G. quadriradiata is shaped by multiple factors, particularly human activities and phenotypic adaptability. In addition, our finding that G. quadriradiata invasion at high elevations is not constrained by low genetic diversity indicates that monitoring and management of G. quadriradiata in mountainous areas should be strengthened.
  • Yingsheng Liu, Yizhuo Du, Chuang Li, Yue Li, Congyan Wang, Daolin Du
    Plant Diversity. 2026, 48(01): 204-211. https://doi.org/10.1016/j.pld.2025.05.013
    Alien species from the Asteraceae family frequently invade native plant communities. This study aims to determine how the number of Asteraceae species (i.e., Erigeron canadensis, E. annuus, and Solidago canadensis) in a co-invasion affects plant taxonomic diversity and invasibility in plant communities in China. We found that co-invasions by one or two Asteraceae species decreased plant diversity and increased community invasibility. However, co-invasion by three Asteraceae species increased plant diversity and community invasibility. We also found that plant taxonomic diversity was negatively correlated with total coverage of invasive Asteraceae species. Conversely, community invasibility was positively correlated with total coverage of invasive Asteraceae species. These findings indicate that the number of Asteraceae invasive species positively correlates with total coverage, diversity, dominance, evenness, and invasibility. Our study shows that co-invasion by three IAS may increase plant taxonomic diversity but also community invasibility, which may further facilitate subsequent invasion.
  • Case Report
  • Xiaoling Tian, Ningning Zhang, Xiaohua Li, Zhong Zhang, Heng Shu, Chunying Zhang, Yongpeng Ma, Yupeng Geng
    Plant Diversity. 2026, 48(01): 212-215. https://doi.org/10.1016/j.pld.2025.12.001
  • Correspondences
  • Ke-Ping Ma
    Plant Diversity. 2026, 48(01): 216-218. https://doi.org/10.1016/j.pld.2025.11.002
  • Tuo He, Zhihua Zhou, Hui Dong, Liangchen Yuan, Lixin Guo, Yongteng Wang, Miaomiao Zheng, Yalong Qin, Yufeng Gu, Peter Wyse Jackson, Hai Ren
    Plant Diversity. 2026, 48(01): 219-224. https://doi.org/10.1016/j.pld.2025.11.005
  • News
  • Jithu K. Jose
    Plant Diversity. 2026, 48(01): 225-226. https://doi.org/10.1016/j.pld.2025.11.007