
应用生态学报 ›› 2026, Vol. 37 ›› Issue (8): 2833-2844.doi: 10.13287/j.1001-9332.202608.005
吴昊1,2,3*, 杨倩文1, 冯川川1, 曾青草1, 饶本强1
收稿日期:2026-03-26
修回日期:2026-06-01
出版日期:2026-08-18
发布日期:2027-02-18
通讯作者:
*E-mail: wuhao86868686@163.com
作者简介:吴 昊, 男, 1986年生, 博士, 副教授, 硕士生导师。主要从事生物入侵与群落生态学研究。E-mail: wuhao86868686@163.com
基金资助:WU Hao1,2,3*, YANG Qianwen1, FENG Chuanchuan1, ZENG Qingcao1, RAO Benqiang1
Received:2026-03-26
Revised:2026-06-01
Online:2026-08-18
Published:2027-02-18
摘要: 植物入侵对生物多样性和生态系统功能构成严重威胁,而生境异质性随纬度梯度的变化显著影响入侵态势。本文梳理了近十年关于植物入侵及其生物互作纬度格局的研究进展。诸多入侵植物的表型可塑性及生态适应力均随着纬度上升而增强,从而加剧高纬度区本土植物群落的同质化进程;入侵/本土植物的天敌昆虫发生量、昆虫取食率、土壤病原真菌侵染率及与土壤生物群的反馈效应沿纬度梯度呈现非对称性格局;气候变暖改变了入侵生境的多营养级互作关系,加剧高纬度区入侵植物的“天敌释放效应”及入侵防治的“非靶标效应”。 未来研究重点应聚焦于:探究入侵植物体内不同功能次生代谢产物沿纬度梯度的再分配过程;基于多因子多营养级互作网络,阐明入侵生态系统“地上-地下”互作的纬向格局及其协同效应;探究跨纬度的入侵植物功能性状演化及入侵地共存植物的谱系亲缘关系;综合利用新兴技术手段,揭示入侵植物生物互作的分子基础、协同进化机制及其纬向分异规律。本研究可为深入理解植物入侵机制及全球变化背景下生物入侵防治提供新视角。
吴昊, 杨倩文, 冯川川, 曾青草, 饶本强. 植物入侵及其生物互作的纬度格局研究进展[J]. 应用生态学报, 2026, 37(8): 2833-2844.
WU Hao, YANG Qianwen, FENG Chuanchuan, ZENG Qingcao, RAO Benqiang. Spatial correlation network characteristics and influencing factors of urban ecological vulnerability in the Yellow River Basin, China[J]. Chinese Journal of Applied Ecology, 2026, 37(8): 2833-2844.
| [1] Wang XX, Xiao XM, He Q, et al. Biological invasions in China’s coastal zone. Science, 2022, 378: 957 [2] Liu Z, Zhu B, Gao LL, et al. Native plant diversity provides resistance to invasion by an alien species in natural and experimental settings. Ecology Letters, 2025, 28: e70137 [3] Cheng C, Song W, Liu ZK, et al. Latitudinal variation in plant-soil feedbacks: Contrasting patterns between the global plant invader Spartina alterniflora and a native competitor in China. Oikos, 2025, 2025: e11328 [4] Zhang YZ, Pennings SC, Li B, et al. Biotic homogenization of wetland nematode communities by exotic Spartina alterniflora in China. Ecology, 2019, 100: e02596 [5] Liu M, Pan YF, Pan XY, et al. Plant invasion alters latitudinal pattern of plant-defense syndromes. Ecology, 2021, 102: e03511 [6] Comita LS. How latitude affects biotic interactions. Science, 2017, 356: 1328-1329 [7] Roslin T, Hardwick B, Novotny V, et al. Higher predation risk for insect prey at low latitudes and elevations. Science, 2017, 356: 742-744 [8] Lu XM, He MY, Ding JQ, et al. Latitudinal variation in soil biota: Testing the biotic interaction hypothesis with an invasive plant and a native congener. The ISME Journal, 2018, 12: 2811-2822 [9] Liu WW, Wang WW, Zhang YH. Differences in leaf traits of Spartina alterniflora between native and invaded habitats: Implication for evolution of alien species competitive ability increase. Ecological Indicators, 2022, 138: 108799 [10] Kimbro DL, Cheng BS, Grosholz ED. Biotic resistance in marine environments. Ecology Letters, 2013, 16: 821-833 [11] Schemske DW, Mittelbach GG, Cornell HV, et al. Is there a latitudinal gradient in the importance of biotic interactions. Annual Review of Ecology, Evolution, and Systematics, 2009, 40: 245-269 [12] Van der Putten WH. Climate change, aboveground-belowground interactions, and species’ range shifts. Annual Review of Ecology, Evolution, and Systematics, 2012, 43: 365-383 [13] Zvereva EL, Kozlov MV. Latitudinal gradient in the intensity of biotic interactions in terrestrial ecosystems: Sources of variation and differences from the diversity gradient revealed by meta-analysis. Ecology Letters, 2021, 24: 2506-2520 [14] Züst T, Agrawal AA. Trade-offs between plant growth and defense against insect herbivory: An emerging mechanistic synthesis. Annual Review of Plant Biology, 2017, 68: 513-534 [15] Freeman BG, Weeks T, Schluter D, et al. The latitudinal gradient in rates of evolution for bird beaks, a species interaction trait. Ecology Letters, 2022, 25: 635-646 [16] Lekberg Y, Callaway RM. New support for the enhanced mutualism hypothesis for invasion. New Phytologist, 2022, 236: 797-799 [17] Zhou JZ, Deng Y, Shen LN, et al. Temperature mediates continental-scale diversity of microbes in forest soils. Nature Communications, 2016, 7: 12083 [18] Tedersoo L, Bahram M, Põlme S, et al. Fungal biogeography. Response to comment on “Global diversity and geography of soil fungi”. Science, 2015, 349: 936 [19] Tian BL, Ding JQ, Huang W, et al. Escaping enemies enhances invader mutualisms: Role of metabolites. Trends in Ecology & Evolution, 2025, 40: 945-948 [20] Egan PA, Stevenson PC, Tiedeken EJ, et al. Plant toxin levels in nectar vary spatially across native and introduced populations. Journal of Ecology, 2016, 104: 1106-1115 [21] Irimia RE, Zhao WH, Cao PP, et al. Cross-continental shifts of ecological strategy in a global plant invader. Global Ecology and Biogeography, 2025, 34: e70001 [22] Ren LJ, Guo X, Sorrell BK, et al. Responses to cold temperature determine clinal patterns of photosynthetic acclimation of a cosmopolitan grass genus and challenge the concept of quantifying phenotypic plasticity. Functional Ecology, 2025, 39: 583-595 [23] Zhao YJ, Wang SY, Liao ZY, et al. Geographic variation in leaf traits and palatability of a native plant inva-der during domestic expansion. Ecology, 2024, 105: e4425 [24] Xiao L, Ding JQ, Zhang JL, et al. Chemical responses of an invasive plant to herbivory and abiotic environments reveal a novel invasion mechanism. Science of the Total Environment, 2020, 741: 140452 [25] Allen WJ, Meyerson LA, Cummings D, et al. Biogeography of a plant invasion: Drivers of latitudinal variation in enemy release. Global Ecology and Biogeography, 2017, 26: 435-446 [26] Yuan YG, Jin HF, Li JM. Effects of latitude and soil microbes on the resistance of invasive Solidago canadensis to its co-evolved insect herbivore Corythucha marmorata. Journal of Plant Ecology, 2022, 15: 549-560 [27] Grutters BMC, Roijendijk YOA, Verberk WCEP, et al. Plant traits and plant biogeography control the biotic resistance provided by generalist herbivores. Functional Ecology, 2017, 31: 1184-1192 [28] Sun KK, Yu WS, Jiang JJ, et al. Mismatches between the resources for adult herbivores and their offspring suggest invasive Spartina alterniflora is an ecological trap. Journal of Ecology, 2020, 108: 719-732 [29] Demko AM, Amsler CD, Hay ME, et al. Declines in plant palatability from polar to tropical latitudes depend on herbivore and plant identity. Ecology, 2017, 98: 2312-2321 [30] Ju RT, Ma D, Siemann E, et al. Invasive Spartina alterniflora exhibits increased resistance but decreased tolerance to a generalist insect in China. Journal of Pest Science, 2019, 92: 823-833 [31] Lembrechts JJ, Pauchard A, Lenoir J, et al. Distur-bance is the key to plant invasions in cold environments. Proceedings of the National Academy of Sciences of the United States of America, 2016, 113: 14061-14066 [32] Wilsey BJ, Martin LM, Kaul AD. Phenology differences between native and novel exotic-dominated grasslands rival the effects of climate change. Journal of Applied Ecology, 2018, 55: 863-873 [33] Colautti RI, Lau JA. Contemporary evolution during invasion: Evidence for differentiation, natural selection, and local adaptation. Molecular Ecology, 2015, 24: 1999-2017 [34] Mod HK, Rissanen T, Niittynen P, et al. The relationships of plant species occupancy to niches and traits vary with spatial scale. Journal of Biogeography, 2023, 50: 1013-1025 [35] Chen XC, Liu WW, Pennings SC, et al. Plasticity and selection drive hump-shaped latitudinal patterns of flo-wering phenology in an invasive intertidal plant. Ecology, 2021, 102: e03311 [36] Chen XC, Liu WW, Zhang YY, et al. Altered trait covariances between invasive and native ranges of a global plant invader. Functional Ecology, 2023, 37: 1280-1290 [37] Liu WW, Li L, Ye CT, et al. Temperature affects the relative importance of phenotypic plasticity and natural selection contributing to the niche breadth of invasive plants. Oikos, 2025, 2025: e11347 [38] Liu WW, Maung-Douglass K, Strong DR, et al. Geographical variation in vegetative growth and sexual reproduction of the invasive Spartina alterniflora in China. Journal of Ecology, 2016, 104: 173-181 [39] Liu WW, Strong DR, Pennings SC, et al. Provenance-by-environment interaction of reproductive traits in the invasion of Spartina alterniflora in China. Ecology, 2017, 98: 1591-1599 [40] Guo YL, Zhang YZ, Wu JH, et al. Geographic variation of litter chemistry and palatability in an invasive plant versus its native competitor. Journal of Biogeography, 2023, 50: 1139-1150 [41] Zhang YZ, Pennings SC, Liu ZX, et al. Consistent pattern of higher lability of leaves from high latitudes for both native Phragmites australis and exotic Spartina alterniflora. Functional Ecology, 2021, 35: 2084-2093 [42] Cheng C, Liu ZX, Zhang YZ, et al. Leaf litter decomposition and its drivers differ between an invasive and a native plant: Management implications. Ecological Applications, 2024, 34: e2739 [43] van Boheemen LA, Atwater DZ, Hodgins KA. Rapid and repeated local adaptation to climate in an invasive plant. New Phytologist, 2019, 222: 614-627 [44] Xiong YQ, Oduor AMO, Zhao CY. Population genetic differentiation and phenotypic plasticity of Ambrosia artemisiifolia under different nitrogen levels. Ecological Applications, 2024, 34: e2903 [45] Zhou LF, Yu HW, Yang KW, et al. Latitudinal and longitudinal trends of seed traits indicate adaptive strategies of an invasive plant. Frontiers in Plant Science, 2021, 12: 657813 [46] Ren LJ, Guo X, Liu SN, et al. Intraspecific variation in Phragmites australis: Clinal adaption of functional traits and phenotypic plasticity vary with latitude of origin. Journal of Ecology, 2020, 108: 2531-2543 [47] Guo WY, čuda J, Skálová H, et al. Climate and genome size shape the intraspecific variation in ecological adaptive strategies of a cosmopolitan grass species. Functional Ecology, 2024, 38: 2054-2066 [48] Hernández F, Poverene M, Garayalde A, et al. Re-establishment of latitudinal clines and local adaptation within the invaded area suggest rapid evolution of seed traits in Argentinean sunflower (Helianthus annuus L.). Biological Invasions, 2019, 21: 2599-2612 [49] Xiao L, Hervé MR, Carrillo J, et al. Latitudinal trends in growth, reproduction and defense of an invasive plant. Biological Invasions, 2019, 21: 189-201 [50] Helsen K, Acharya KP, Graae BJ, et al. Earlier onset of flowering and increased reproductive allocation of an annual invasive plant in the north of its novel range. Annals of Botany, 2020, 126: 1005-1016 [51] Wang SY, Liao ZY, Cao PP, et al. General-purpose genotypes and evolution of higher plasticity in clonality underlie knotweed invasion. New Phytologist, 2025, 246: 758-768 [52] Meyerson LA, Cronin JT, Bhattarai GP, et al. Do ploidy level and nuclear genome size and latitude of origin modify the expression of Phragmites australis traits and interactions with herbivores? Biological Invasions, 2016, 18: 2531-2549 [53] Kralemann LEM, Scalone R, Andersson L, et al. North European invasion by common ragweed is associated with early flowering and dominant changes in FT/TFL1 expression. Journal of Experimental Botany, 2018, 69: 2647-2658 [54] Qiu SY, Xu X, Liu SS, et al. Latitudinal pattern of flowering synchrony in an invasive wind-pollinated plant. Proceedings: Biological Sciences, 2018, 285: 1-8 [55] Helliwell EE, Faber-Hammond J, Lopez ZC, et al. Rapid establishment of a flowering cline in Medicago polymorpha after invasion of North America. Molecular Ecology, 2018, 27: 4758-4774 [56] Qiao HM, Liu WW, Zhang YH, et al. Genetic admixture accelerates invasion via provisioning rapid adaptive evolution. Molecular Ecology, 2019, 28: 4012-4027 [57] Xie HJ, Li H, Liu D, et al. ICE1 demethylation drives the range expansion of a plant invader through cold tolerance divergence. Molecular Ecology, 2015, 24: 835-850 [58] Xu XY, Wolfe L, Diez J, et al. Differential germination strategies of native and introduced populations of the invasive species Plantago virginica. NeoBiota, 2019, 43: 101-118 [59] Bernik BM, Li HS, Blum MJ. Genetic variation of Spartina alterniflora intentionally introduced to China. Biological Invasions, 2016, 18: 1485-1498 [60] Vilatersana R, Sanz M, Galian A, et al. The invasion of Senecio pterophorus across continents: Multiple, independent introductions, admixture and hybridization. Biological Invasions, 2016, 18: 2045-2065 [61] Li SL, Vasemägi A, Ramula S. Genetic variation facilitates seedling establishment but not population growth rate of a perennial invader. Annals of Botany, 2016, 117: 187-194 [62] Li FF, Gao KX, Oduor AMO, et al. High-throughput DNA sequencing identifies population genetic structure and signatures of local adaptation in invasive populations of Spartina alterniflora in China. Biological Invasions, 2024, 26: 1535-1559 [63] Wu H, Carrillo J, Ding JQ. Species diversity and environmental determinants of aquatic and terrestrial communities invaded by Alternanthera philoxeroides. Science of the Total Environment, 2017, 581: 666-675 [64] Wu H, Dong SJ, Rao BQ. Latitudinal trends in the structure, similarity and beta diversity of plant communities invaded by Alternanthera philoxeroides in heterogeneous habitats. Frontiers in Plant Science, 2022, 13: 1021337 [65] Gao LL, Fan FY, He YF, et al. Contrasting responses of plant, soil fungal and above-ground arthropod communities to plant invasion across latitudes. Journal of Eco-logy, 2024, 112: 2333-2343 [66] Gao LL, Wei CQ, Xu H, et al. Latitudinal variation in the diversity and composition of various organisms associated with an exotic plant: The role of climate and plant invasion. New Phytologist, 2021, 231: 1559-1569 [67] Lu XM, Siemann E, He MY, et al. Climate warming increases biological control agent impact on a non-target species. Ecology Letters, 2015, 18: 48-56 [68] Gao LL, Wei CQ, He YF, et al. Aboveground herbivory can promote exotic plant invasion through intra- and interspecific aboveground-belowground interactions. New Phytologist, 2023, 237: 2347-2359 [69] Wu H, Carrillo J, Ding JQ. Invasion by Alligator weed, Alternanthera philoxeroides, is associated with decreased species diversity across the latitudinal gradient in China. Journal of Plant Ecology, 2016, 9: 311-319 [70] Zhang GL, Bai JH, Wang W, et al. Plant invasion reshapes the latitudinal pattern of soil microbial necromass and its contribution to soil organic carbon in coastal wetlands. Catena, 2023, 222: 106859 [71] Zhang YZ, Li B, Wu JH, et al. Contrasting latitudinal clines of nematode diversity in Spartina alterniflora salt marshes between native and introduced ranges. Diversity and Distributions, 2020, 26: 623-631 [72] Oduor AMO, Yuan YG, Li JM. The composition and diversity of soil microbial communities associated with the invasive plant Solidago canadensis vary across locations and time since invasion. Journal of Biogeography, 2024, 51: 2566-2577 [73] Sakata Y, Craig TP, Itami JK, et al. Parallel environmental factors drive variation in insect density and plant resistance in the native and invaded ranges. Ecology, 2017, 98: 2873-2884 [74] Cronin JT, Bhattarai GP, Allen WJ, et al. Biogeography of a plant invasion: Plant-herbivore interactions. Eco-logy, 2015, 96: 1115-1127 [75] Bhattarai GP, Meyerson LA, Cronin JT. Geographic variation in apparent competition between native and invasive Phragmites australis. Ecology, 2017, 98: 349-358 [76] Guo QF, Cade BS, Dawson W, et al. Latitudinal patterns of alien plant invasions. Journal of Biogeography, 2021, 48: 253-262 [77] D’Antraccoli M, Roma-Marzio F, Carta A, et al. Dri-vers of floristic richness in the Mediterranean: A case study from Tuscany. Biodiversity and Conservation, 2019, 28: 1411-1429 [78] Inderjit, Pergl J, van Kleunen M, et al. Naturalized alien flora of the Indian states: Biogeographic patterns, taxonomic structure and drivers of species richness. Biological Invasions, 2018, 20: 1625-1638 [79] Sethi SA, Carey MP, Morton JM, et al. Rapid response for invasive waterweeds at the Arctic invasion front: Assessment of collateral impacts from herbicide treatments. Biological Conservation, 2017, 212: 300-309 [80] Hughes AR, Schenck FR, Bloomberg J, et al. Biogeographic gradients in ecosystem processes of the invasive ecosystem engineer Phragmites australis. Biological Invasions, 2016, 18: 2577-2595 [81] Wu H, Ismail M, Ding JQ. Global warming increases the interspecific competitiveness of the invasive plant Alligator weed, Alternanthera philoxeroides. Science of the Total Environment, 2017, 575: 1415-1422 [82] Kirk MA, Hays BR, Petranek CJ. The value of the species interaction-abiotic stress hypothesis (SIASH) for invasion biology: Using native latitude to explain non-native latitudinal range sizes. Biological Invasions, 2021, 23: 957-968 [83] Wiegand T, Wang XG, Fischer SM, et al. Latitudinal scaling of aggregation with abundance and coexistence in forests. Nature, 2025, 640: 967-973 [84] Carboni LJ, Biganzoli F, Cipriotti PA. Niche shifts drive the global distribution of a widespread plant invader of rangelands. Biological Invasions, 2024, 27: 25 [85] Delavaux CS, Weigelt P, Dawson W, et al. Mycorrhizal fungi influence global plant biogeography. Nature Eco-logy & Evolution, 2019, 3: 424-429 [86] Petruzzella A, van Leeuwen CHA, van Donk E, et al. Direct and indirect effects of native plants and herbivores on biotic resistance to alien aquatic plant invasions. Journal of Ecology, 2020, 108: 1487-1496 [87] Wu H, Ding JQ. Global change sharpens the double-edged sword effect of aquatic alien plants in China and beyond. Frontiers in Plant Science, 2019, 10: 787 [88] Pulzatto MM, dos Santos Ribas LG, de Assis Murillo R, et al. Biocontrol in a warmer world: Anticipating the climate suitability of an aggressive invasive plant and its specialist herbivore. Hydrobiologia, 2025, 852: 2537-2550 [89] Liu Z, Yu HW, Sun X, et al. Effects of elevated temperature on chemistry of an invasive plant, its native congener and their herbivores. Journal of Plant Ecology, 2022, 15: 450-460 [90] Lu XM, He MY, Tang SC, et al. Herbivory may promote a non-native plant invasion at low but not high latitudes. Annals of Botany, 2019, 124: 819-827 [91] Wang WB, Gao FF, Feng WW, et al. The native stem holoparasitic Cuscuta japonica suppresses the invasive plant Ambrosia trifida and related mechanisms in different light conditions in Northeast China. Frontiers in Plant Science, 2022, 13: 904326 [92] Ivison K, van Kleunen M, Speed JDM, et al. Non-native, non-naturalised plants suffer less herbivory than native plants across European botanical gardens. Diver-sity and Distributions, 2024, 30: e13938 [93] Wang LW, Li WR, Ding JQ. Dual drivers of plant invasions: Enemy release and enhanced mutualisms. Journal of Ecology, 2025, 113: 1997-2008 [94] Ma CS, Wang BX, Wang XJ, et al. Crop pest responses to global changes in climate and land management. Nature Reviews Earth & Environment, 2025, 6: 264-283 [95] Nunes KA, Fitzpatrick CR, Kotanen PM. Soil biota composition and the performance of a noxious weed across its invaded range. Ecography, 2019, 42: 1671-1681 [96] Wei CQ, Gao LL, Tang XF, et al. Plant evolution overwhelms geographical origin in shaping rhizosphere fungi across latitudes. Global Change Biology, 2021, 27: 3911-3922 [97] Pan YF, Liu M, Sosa A, et al. Hierarchical metacommunity structure of fungal endophytes. New Phytologist, 2023, 239: 1464-1474 [98] Bradley BA, Early R, Sorte CJB. Space to invade? Ccomparative range infilling and potential range of invasive and native plants. Global Ecology and Biogeography, 2015, 24: 348-359 [99] Kilkenny FF, Galloway LF. Evolution of marginal popu-lations of an invasive vine increases the likelihood of future spread. New Phytologist, 2016, 209: 1773-1780 [100] He P, Jiang RP, Liu WW, et al. From native habitats to invasion frontiers: Understanding spatial niches of invasive plants through functional traits. Journal of Bio-geography, 2025, 52: e15145 [101] Pfeifer-Meister L, Bridgham SD, Reynolds LL, et al. Climate change alters plant biogeography in Mediterranean prairies along the West Coast, USA. Global Change Biology, 2016, 22: 845-855 [102] Lu XM, Siemann E, He MY, et al. Warming benefits a native species competing with an invasive congener in the presence of a biocontrol beetle. New Phytologist, 2016, 211: 1371-1381 [103] Lu XM, Siemann E, Wei H, et al. Effects of warming and nitrogen on above- and below-ground herbivory of an exotic invasive plant and its native congener. Biologi-cal Invasions, 2015, 17: 2881-2892 [104] van Tiel N, Fopp F, Brun P, et al. Regional uniqueness of tree species composition and response to forest loss and climate change. Nature Communications, 2024, 15: 4375 [105] Waller LP, Allen WJ, Barratt BIP, et al. Biotic interactions drive ecosystem responses to exotic plant inva-ders. Science, 2020, 368: 967-972 [106] Thakur MP, Gu ZZ, van Kleunen M, et al. Invasion impacts in terrestrial ecosystems: Global patterns and predictors. Science, 2025, 390: 381-385 [107] Qian H, Sandel B. The role of phylogenetic relatedness on success of non-native plants crossing the naturalization-invasion transition in North America. Ecography, 2023, 2023: e06750 [108] Fan SY, Yang Q, Li SP, et al. A latitudinal gradient in Darwin’s naturalization conundrum at the global scale for flowering plants. Nature Communications, 2023, 14: 6244 [109] Sun CF, Cheng C, Zhang ZJ, et al. Phylogenetic rela-tedness drives litter-mediated diversity-invasibility relationships. New Phytologist, 2026, 249: 1026-1035 |
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