
生物多样性 ›› 2026, Vol. 34 ›› Issue (7): 26016. DOI: 10.17520/biods.2026016 cstr: 32101.14.biods.2026016
收稿日期:2026-01-19
接受日期:2026-04-24
出版日期:2026-07-20
发布日期:2026-09-21
通讯作者:
陆梅
基金资助:
Mingliu Wang1,2(
), Yulian Ren1, Mei Lu1,2,*(
)
Received:2026-01-19
Accepted:2026-04-24
Online:2026-07-20
Published:2026-09-21
Contact:
Mei Lu
Supported by:摘要:
大气CO2、CH4、N2O等温室气体排放剧增所导致的全球变暖已成为国际社会和科学界共同关注的焦点。土壤动物如何介导碳氮循环过程进而驱动温室气体排放, 是全球气候变化研究的前沿科学问题。马陆作为全球物种多样性最丰富(> 12,000种)的关键节肢动物类群, 能够扮演消费者、分解者、捕食者及土壤工程师等多重角色, 可直接或间接调控土壤碳氮循环过程及相关温室气体(CO2、CH4、N2O)的排放。目前, 关于土壤动物对温室气体排放影响机制的研究主要集中于蚯蚓、白蚁等类群, 而有关马陆调控土壤温室气体排放的研究则十分缺乏, 大多为近20年来针对5目25科34属共几十个模式物种所开展的微观或控制实验。本文系统梳理了国内外关于马陆对土壤碳氮循环及CO2、CH4、N2O等排放影响的研究成果, 初步总结了其影响过程及机制: (1)马陆取食分解凋落物时, 肠道过程刺激自身呼吸、肠道酶活性及功能微生物活动, 直接促进CO2、CH4、N2O的排放; 同时通过凋落物破碎和粪球效应介导微生物及土壤动物活动, 间接影响温室气体排放。(2)马陆通过分泌、消化和排泄等作用调控土壤碳氮矿化及微生物呼吸过程, 从而影响土壤温室气体的产生。(3)马陆通过介导土壤功能微生物、功能酶、需氧-厌氧环境等变化影响土壤硝化、反硝化、氧化和还原过程, 从而调控CO2、CH4和N2O的排放。(4)马陆通过与根系、土壤、微生物及其他节肢动物的相互作用介导植物和土壤环境变化, 进而影响碳氮矿化、硝化、反硝化、甲烷生成与氧化等关键过程, 间接驱动土壤温室气体排放。未来的研究应重视“基于野外原位控制及微宇宙实验”的机理解析, 探索不同食性马陆对土壤碳氮关键过程、碳氮固定及温室气体排放的影响机制, 科学评估马陆活动对CO2、CH4、N2O排放的促进或抑制效应。
王明柳, 任玉连, 陆梅 (2026) 马陆对土壤温室气体排放影响机制的研究进展与展望. 生物多样性, 34, 26016. DOI: 10.17520/biods.2026016.
Mingliu Wang, Yulian Ren, Mei Lu (2026) Research progress and prospects of mechanisms by which millipedes influence soil greenhouse gas emissions. Biodiversity Science, 34, 26016. DOI: 10.17520/biods.2026016.
图1 马陆对温室气体排放影响的过程及机制。该图基于现有研究案例归纳总结, 实线和虚线分别表示直接和间接调控。
Fig. 1 Process and mechanism of millipede affecting greenhouse gas emissions. This diagram presents a synthesis of mechanisms derived from available case studies. Solid and dashed lines denote direct and indirect regulation of millipedes, respectively.
| 分类阶元(目) Taxonomic category (Order) | 代表性种类Representative species | 生态系统类型Ecosystem type | 关键过程 Key process | 方向和大小 Direction and magnitude | 参考文献 References | ||||||
|---|---|---|---|---|---|---|---|---|---|---|---|
| 山蛩目、异蛩目、带马陆目 Spirobolida, Spirostreptida, Polydesmida | Rhapidostreptus virgator, Pycnotropis acuticollis, etc. | 热带森林 Tropical forest | 促进肠道共生微生物的呼吸和CH4排放 Promoting respiration and CH4 emissions of gut symbiotic microorganisms | 促进CH4排放(0.15-0.61 Tg/yr) Promoting CH4 emissions (0.15-0.61 Tg/yr) | Hackstein & Stumm, | ||||||
| 异蛩目、山蛩目 Spirostreptida, Spirobolida | Archispirostreptus gigas, Epibolus pulchripes | 热带森林 Tropical forest | 促进肠道CH4排放 Promoting CH4 emissions in gut | 促进CH4排放(分别为6.5和17.4 nmol·g-1·h-1) Promoting CH4 emissions (6.5 and 17.4 nmol·g-1·h-1, respectively) | Horváthová et al., | ||||||
| 山蛩目 Spirobolida | Epibolus pulchripes | 热带森林 Tropical forest | 促进凋落物分解及相关微生物的CH4排放 Promoting litter decomposition and microbial CH4 releases | 促进CH4排放(284.1 nmol·mg-1·d-1) Promoting CH4 emissions (284.1 nmol·mg-1·d-1) | Nweze et al., | ||||||
| 姬马陆目、异蛩目、山蛩目、带马陆目、球马陆目 Julida, Spirostreptida, Spirobolida, Polydesmida, Glomerida | 非洲巨人马陆、Julus scandinavius、粗直形马陆等 Archispirostreptus gigas, Julus scandinavius, Orthomorpha coarctata, etc. | 热带森林、温带森林 Tropical forest, temperate forest | 促进肠道和粪球的CH4产生 Promoting CH4 production of gut and fecal pellets | 促进CH4排放(23.86-501.95 nmol·mg-1·day-1) Promoting CH4 emissions (23.86-501.95 nmol·mg-1·day-1) | Šustr et al., | ||||||
| 山蛩目、异蛩目、球马陆目 Spirobolida, Spirostreptida, Glomerida | Epibolus pulchripes, Telodeinopus aoutii, Archispirostreptus gigas, Glomeris marginata, etc. | 热带森林、温带森林 Tropical forest, temperate forest | 促进微生物呼吸、CH4产生和反硝化过程 Promoting microbial respiration, CH4 emissions, denitrification processes | 促进CO2、CH4排放, 偶见促进N2O排放 Promoting CO2 and CH4 emissions, and occasionally promoting N2O emissions | Šustr et al., | ||||||
| 山蛩目 Spirobolida | 福尔摩沙山蛩Spirobolus formosae | 亚热带森林 Subtropical forest | 通过影响土壤环境而促进CH4排放, 抑制氮沉降下的CO2和N2O排放 Promoting CH4 emissions via influencing soil environment and suppressing CO2 and N2O emissions under nitrogen deposition | 增加CH4排放, 但减弱氮沉降导致的CO2和N2O排放 Increasing CH4 emissions but reducing CO2 and N2O emissions under nitrogen deposition | 李媛媛等, | ||||||
| 山蛩目 Spirobolida | 福尔摩沙山蛩Spirobolus formosae | 亚热带森林 Subtropical forest | 肠道产生CH4, 取食、排泄及改变微生物群落促进CO2和N2O排放 Promoting gut CH4 emissions, and stimulating CO2 and N2O emissions via feeding, defecation, and changing microbial community | 增加CO2、N2O和CH4排放 Increasing CO2, N2O and CH4 emissions | Li et al., | ||||||
| 带马陆目 Polydesmida | Harpaphe haydeniana | 温带森林 Temperate forest | 取食凋落物, 抑制微生物呼吸并促进氮矿化 Feeding litter decomposition, inhibiting microbial respiration, and promoting nitrogen mineralization | 降低CO2排放(4.99 µL CO2/h) Reducing CO2 emissions (4.99 µL CO2/h) | Cárcamo et al., | ||||||
| 带马陆目 Polydesmida | Parafontaria laminata | 温带森林 Temperate forest | 促进团聚体固碳减少CO2排放, 刺激微生物的氮矿化和硝化作用 Promoting aggregate carbon sequestration to reduce CO2 emissions and stimulating microbial nitrogen mineralization and nitrification | 抑制CO2排放, 促进N2O的排放 Inhibiting CO2 emissions and promoting N2O emissions | Toyota et al., | ||||||
| 带马陆目 Polydesmida | Parafontaria laminata, P. tonominea | 温带森林 Temperate forest | 取食改变粪便C/N比, 进而影响土壤呼吸 Changing fecal C/N ratio via feeding, thus affecting soil respiration | 促进CO2排放 Promoting CO2 emissions | Iwashima et al., | ||||||
| 球马陆目、 姬马陆目、带马陆目 Glomerida, Julida, Polydesmida | Glomeris marginata, Pachyiulus flavipes, Cylindroiulus nitidus, Polydesmus angustus, etc. | 温带森林 Temperate forest | 通过取食、排泄而影响微生物呼吸 Influencing microbial respiration via feeding and excreting | 因粪便排出时间及凋落物初始质量而异 The effects depend on fecal age and initial litter quality | David, | ||||||
| 球马陆目 Glomerida | Glomeris marginata | 温带森林 Temperate forest | 取食凋落物影响微生物呼吸 Feeding litter to affect microbial respiration | 凋落物分解早期促进微生物呼吸, 后期抑制呼吸 Stimulating microbial respiration at early stages of litter decomposition and suppressing respiration at later stages | Maraun & Schcu, | ||||||
| 姬马陆目 Julida | Leptoiulus trilobatus, Megaphyllum projectum, M. unilineatum, Unciger transsilvanicus, etc. | 温带森林 Temperate forest | 肠道内共生的产甲烷菌促进CH4生成 Promoting CH4 production of symbiotic methanogenic archaea in gut | 促进CH4排放(0.4-3.2 nmol·g-1·h-1) Promoting CH4 emissions (0.4-3.2 nmol·g-1·h-1) | Šustr & Šimek, | ||||||
| 带马陆目 Polydesmida | Pseudopolydesmus erasus | 温带森林 Temperate forest | 单独作用增加土壤有机碳的物理保护抑制CO2排放; 与蚯蚓竞争则减少碳的保护, 促进CO2排放 Inhibiting CO2 emissions via increasing physical protection of organic carbon alone, promoting CO2 emissions via competition with earthworms to reduce carbon protection | 单独作用抑制CO2排放, 但与蚯蚓共同作用则促进碳排放 Inhibiting CO2 emissions alone, but promoting carbon emissions via interacting with earthworms | Snyder et al., | ||||||
| 姬马陆目 Julida | Enantiulus nanus, Cylindroiulus fulviceps | 高山草甸 Alpine meadow | 促进凋落物分解, 但降低土壤呼吸 Promoting the litter decomposition but reducing soil respiration | 降低呼吸速率(分别为0.57和0.83 μg C·g-1·h-1) Decreasing respiration rates (0.57 μg C·g-1·h-1, 0.83 μg C·g-1·h-1, respectively) | Seeber et al., | ||||||
| 姬马陆目 Julida | 未表明 Unspecified | 湿地 Wetland | 通常促进凋落物分解、土壤呼吸、还原、反硝化等过程 Generally promoting processes such as litter decomposition, soil respiration, and denitrification | 通常促进CO2、CH4、N2O排放 Generally promoting CO2, CH4 and N2O emissions | Merritt & Lawson, | ||||||
表1 马陆对土壤温室气体(CO2、CH4、N2O)排放影响的研究案例
Table 1 Case studies about impact of millipedes on soil greenhouse gas (CO2, CH4, N2O) emissions
| 分类阶元(目) Taxonomic category (Order) | 代表性种类Representative species | 生态系统类型Ecosystem type | 关键过程 Key process | 方向和大小 Direction and magnitude | 参考文献 References | ||||||
|---|---|---|---|---|---|---|---|---|---|---|---|
| 山蛩目、异蛩目、带马陆目 Spirobolida, Spirostreptida, Polydesmida | Rhapidostreptus virgator, Pycnotropis acuticollis, etc. | 热带森林 Tropical forest | 促进肠道共生微生物的呼吸和CH4排放 Promoting respiration and CH4 emissions of gut symbiotic microorganisms | 促进CH4排放(0.15-0.61 Tg/yr) Promoting CH4 emissions (0.15-0.61 Tg/yr) | Hackstein & Stumm, | ||||||
| 异蛩目、山蛩目 Spirostreptida, Spirobolida | Archispirostreptus gigas, Epibolus pulchripes | 热带森林 Tropical forest | 促进肠道CH4排放 Promoting CH4 emissions in gut | 促进CH4排放(分别为6.5和17.4 nmol·g-1·h-1) Promoting CH4 emissions (6.5 and 17.4 nmol·g-1·h-1, respectively) | Horváthová et al., | ||||||
| 山蛩目 Spirobolida | Epibolus pulchripes | 热带森林 Tropical forest | 促进凋落物分解及相关微生物的CH4排放 Promoting litter decomposition and microbial CH4 releases | 促进CH4排放(284.1 nmol·mg-1·d-1) Promoting CH4 emissions (284.1 nmol·mg-1·d-1) | Nweze et al., | ||||||
| 姬马陆目、异蛩目、山蛩目、带马陆目、球马陆目 Julida, Spirostreptida, Spirobolida, Polydesmida, Glomerida | 非洲巨人马陆、Julus scandinavius、粗直形马陆等 Archispirostreptus gigas, Julus scandinavius, Orthomorpha coarctata, etc. | 热带森林、温带森林 Tropical forest, temperate forest | 促进肠道和粪球的CH4产生 Promoting CH4 production of gut and fecal pellets | 促进CH4排放(23.86-501.95 nmol·mg-1·day-1) Promoting CH4 emissions (23.86-501.95 nmol·mg-1·day-1) | Šustr et al., | ||||||
| 山蛩目、异蛩目、球马陆目 Spirobolida, Spirostreptida, Glomerida | Epibolus pulchripes, Telodeinopus aoutii, Archispirostreptus gigas, Glomeris marginata, etc. | 热带森林、温带森林 Tropical forest, temperate forest | 促进微生物呼吸、CH4产生和反硝化过程 Promoting microbial respiration, CH4 emissions, denitrification processes | 促进CO2、CH4排放, 偶见促进N2O排放 Promoting CO2 and CH4 emissions, and occasionally promoting N2O emissions | Šustr et al., | ||||||
| 山蛩目 Spirobolida | 福尔摩沙山蛩Spirobolus formosae | 亚热带森林 Subtropical forest | 通过影响土壤环境而促进CH4排放, 抑制氮沉降下的CO2和N2O排放 Promoting CH4 emissions via influencing soil environment and suppressing CO2 and N2O emissions under nitrogen deposition | 增加CH4排放, 但减弱氮沉降导致的CO2和N2O排放 Increasing CH4 emissions but reducing CO2 and N2O emissions under nitrogen deposition | 李媛媛等, | ||||||
| 山蛩目 Spirobolida | 福尔摩沙山蛩Spirobolus formosae | 亚热带森林 Subtropical forest | 肠道产生CH4, 取食、排泄及改变微生物群落促进CO2和N2O排放 Promoting gut CH4 emissions, and stimulating CO2 and N2O emissions via feeding, defecation, and changing microbial community | 增加CO2、N2O和CH4排放 Increasing CO2, N2O and CH4 emissions | Li et al., | ||||||
| 带马陆目 Polydesmida | Harpaphe haydeniana | 温带森林 Temperate forest | 取食凋落物, 抑制微生物呼吸并促进氮矿化 Feeding litter decomposition, inhibiting microbial respiration, and promoting nitrogen mineralization | 降低CO2排放(4.99 µL CO2/h) Reducing CO2 emissions (4.99 µL CO2/h) | Cárcamo et al., | ||||||
| 带马陆目 Polydesmida | Parafontaria laminata | 温带森林 Temperate forest | 促进团聚体固碳减少CO2排放, 刺激微生物的氮矿化和硝化作用 Promoting aggregate carbon sequestration to reduce CO2 emissions and stimulating microbial nitrogen mineralization and nitrification | 抑制CO2排放, 促进N2O的排放 Inhibiting CO2 emissions and promoting N2O emissions | Toyota et al., | ||||||
| 带马陆目 Polydesmida | Parafontaria laminata, P. tonominea | 温带森林 Temperate forest | 取食改变粪便C/N比, 进而影响土壤呼吸 Changing fecal C/N ratio via feeding, thus affecting soil respiration | 促进CO2排放 Promoting CO2 emissions | Iwashima et al., | ||||||
| 球马陆目、 姬马陆目、带马陆目 Glomerida, Julida, Polydesmida | Glomeris marginata, Pachyiulus flavipes, Cylindroiulus nitidus, Polydesmus angustus, etc. | 温带森林 Temperate forest | 通过取食、排泄而影响微生物呼吸 Influencing microbial respiration via feeding and excreting | 因粪便排出时间及凋落物初始质量而异 The effects depend on fecal age and initial litter quality | David, | ||||||
| 球马陆目 Glomerida | Glomeris marginata | 温带森林 Temperate forest | 取食凋落物影响微生物呼吸 Feeding litter to affect microbial respiration | 凋落物分解早期促进微生物呼吸, 后期抑制呼吸 Stimulating microbial respiration at early stages of litter decomposition and suppressing respiration at later stages | Maraun & Schcu, | ||||||
| 姬马陆目 Julida | Leptoiulus trilobatus, Megaphyllum projectum, M. unilineatum, Unciger transsilvanicus, etc. | 温带森林 Temperate forest | 肠道内共生的产甲烷菌促进CH4生成 Promoting CH4 production of symbiotic methanogenic archaea in gut | 促进CH4排放(0.4-3.2 nmol·g-1·h-1) Promoting CH4 emissions (0.4-3.2 nmol·g-1·h-1) | Šustr & Šimek, | ||||||
| 带马陆目 Polydesmida | Pseudopolydesmus erasus | 温带森林 Temperate forest | 单独作用增加土壤有机碳的物理保护抑制CO2排放; 与蚯蚓竞争则减少碳的保护, 促进CO2排放 Inhibiting CO2 emissions via increasing physical protection of organic carbon alone, promoting CO2 emissions via competition with earthworms to reduce carbon protection | 单独作用抑制CO2排放, 但与蚯蚓共同作用则促进碳排放 Inhibiting CO2 emissions alone, but promoting carbon emissions via interacting with earthworms | Snyder et al., | ||||||
| 姬马陆目 Julida | Enantiulus nanus, Cylindroiulus fulviceps | 高山草甸 Alpine meadow | 促进凋落物分解, 但降低土壤呼吸 Promoting the litter decomposition but reducing soil respiration | 降低呼吸速率(分别为0.57和0.83 μg C·g-1·h-1) Decreasing respiration rates (0.57 μg C·g-1·h-1, 0.83 μg C·g-1·h-1, respectively) | Seeber et al., | ||||||
| 姬马陆目 Julida | 未表明 Unspecified | 湿地 Wetland | 通常促进凋落物分解、土壤呼吸、还原、反硝化等过程 Generally promoting processes such as litter decomposition, soil respiration, and denitrification | 通常促进CO2、CH4、N2O排放 Generally promoting CO2, CH4 and N2O emissions | Merritt & Lawson, | ||||||
| [1] |
Ambarish CN, Sridhar KR (2016) Chemical and microbial characterization of feed and faeces of two giant pill-millipedes from forests in the Western Ghats of India. Pedosphere, 26, 861-871.
DOI URL |
| [2] | Anderson JM, Bignell DE (1980) Bacteria in the food, gut contents and faeces of the litter-feeding millipede Glomeris marginata (Villers). Soil Biology and Biochemistry, 12, 251-254. |
| [3] | Bano K (1992) The role of the millipede Jonespeltis splendidus Verhoeff in an ecosystem (Diplopoda, Polydesmida, Paradoxosomatidae). Berichte des Naturwissenschaftlich-medizinischen Verein in Innsbruck, S10, 327-331. |
| [4] | Bano K, Bagyaraj DJ, Krishnamoorthy RV (1976) Feeding activity of the millipede, Jonespeltis splendidus Verhoeff and soil humification. Proceedings of the Indian Academy of Sciences, 83, 1-11. |
| [5] | Brandt JF (1833) Tentaminum quorundam monographicorum: Insecta Myriapoda Chilognathi Latreillii spectantium prodromus. Bulletin de la Societé Impériale des Naturalistes de Moscou, 6, 194-209. (in French) |
| [6] |
Brewer MS, Bond JE (2013) Ordinal-level phylogenomics of the arthropod class Diplopoda (millipedes) based on an analysis of 221 nuclear protein-coding loci generated using next-generation sequence analyses. PLoS ONE, 8, e79935.
DOI URL |
| [7] | Brewer MS, Sierwald P, Bond JE, Kolokotronis SO (2012) Millipede taxonomy after 250 years: Classification and taxonomic practices in a mega-diverse yet understudied arthropod group. PLoS ONE, 7, e37240. |
| [8] | Bridgham SD, Lamberti GA (2009) Ecological dynamics III: Decomposition in wetlands. In: The Wetlands Handbook (eds Maltby E, Barker T), pp. 326-345. Wiley-Blackwell, Oxford. |
| [9] |
Brown SP Brogden, M, Cortes C, Tucker AE, Snyder BA (2021) Investigating the effects of nitrogen deposition and substrates on the microbiome and mycobiome of the millipede Cherokia georgiana georgiana (Diplopoda: Polydesmida). Soil Biology and Biochemistry, 159, 108285.
DOI URL |
| [10] |
Cao QB, Wang SJ, Ren YL, Zuo QQ, Wang P, Zhao S, Yang B (2022) Differentiated impacts of the feeding-habits of three ant species on carbon mineralization in tropical forest soils. European Journal of Soil Biology, 110, 103403.
DOI URL |
| [11] |
Cárcamo HA, Abe TA, Prescott CE, Holl FB, Chanway CP (2000) Influence of millipedes on litter decomposition, N mineralization, and microbial communities in a coastal forest in British Columbia, Canada. Canadian Journal of Forest Research, 30, 817-826.
DOI URL |
| [12] |
Chang WJ, Zhang P, Li JW, Aspe NM, Hao JH, Lu SY, Wan ZM, Wu DH (2024) Impacts of millipedes on acari and collembola communities-A microcosm experiment. Insects, 15, 456.
DOI URL |
| [13] |
da Silva VM, Antoniolli ZI, Seminoti Jacques RJ, Ott R, da Silva Rodrigues PE, Vaz Andrade F, Ribeiro Passos R, de Sá Mendonça E (2017) Influence of the tropical millipede, Glyphiulus granulatus (Gervais, 1847), on aggregation, enzymatic activity, and phosphorus fractions in the soil. Geoderma, 289, 135-141.
DOI URL |
| [14] |
Dangerfield JM, Telford SR (1991) Seasonal activity patterns of julid millipedes in Zimbabwe. Journal of Tropical Ecology, 7, 281-285.
DOI URL |
| [15] | David JF (2009) Ecology of millipedes (Diplopoda) in the context of global change. Soil Organisms, 81, 719-73. |
| [16] |
David JF (2014) The role of litter-feeding macroarthropods in decomposition processes: A reappraisal of common views. Soil Biology and Biochemistry, 76, 109-118.
DOI URL |
| [17] |
David JF, Coulis M (2015) Millipedes faced with drought: The life cycle of a Mediterranean population of Ommatoiulus sabulosus (Linnaeus) (Diplopoda, Julida, Julidae). Zookeys, 510, 115-124.
DOI URL |
| [18] |
Efimenko TA, Yakushev AV, Karabanova AA, Glukhova AA, Demiankova MV, Vasilieva BF, Boykova YV, Malkina ND, Terekhova LP, Efremenkova OV (2022) Antimicrobial activity of bacteria isolated from the millipedes Nedyopus dawydoffiae and Orthomorpha sp. Microbiology, 91, 770-782.
DOI |
| [19] | Fontanetti CS, Moreira-de-Sousa C, Pinheiro TG, de Souza RB, Francisco A (2015) Diplopoda-Digestive system. In: Treatise on Zoology-Anatomy, Taxonomy, Biology. The Myriapoda, Vol. 2 (ed. Minelli A), pp. 109-127. Brill, Leiden. |
| [20] |
Fujimaki R, Sato Y, Okai N, Kaneko N (2010) The train millipede (Parafontaria laminata) mediates soil aggregation and N dynamics in a Japanese larch forest. Geoderma, 159, 216-220.
DOI URL |
| [21] | Golovatch SI, Kime RD (2009) Millipede (Diplopoda) distributions: A review. Soil Organisms, 81, 565-597. |
| [22] | Hackstein JHP, Stumm CK (1994) Methane production in terrestrial arthropods. Proceedings of the National Academy of Sciences, USA, 91, 5441-5445. |
| [23] |
Han XG, Wang ZP (2003) Soil biodiversity and trace gases (CO2, CH4, N2O) metabolism: A review. Biodiversity Science, 11, 322-332. (in Chinese with English abstract)
DOI URL |
|
[韩兴国, 王智平 (2003) 土壤生物多样性与微量气体(CO2, CH4, N2O)代谢. 生物多样性, 11, 322-332.]
DOI |
|
| [24] | Hopkin SP, Read HJ (1992) The Biology of Millipedes. Oxford University Press, Oxford. |
| [25] |
Horváthová T, Šustr V, Chroňáková A, Semanová S, Lang K, Dietrich C, Hubáček T, Ardestani MM, Lara AC, Brune A, Šimek M (2021) Methanogenesis in the digestive tracts of the tropical millipedes Archispirostreptus gigas (Diplopoda, Spirostreptidae) and Epibolus pulchripes (Diplopoda, Pachybolidae). Applied and Environmental Microbiology, 87, e0061421.
DOI URL |
| [26] |
Iniesta LFM, Bouzan RS, Brescovit AD (2023) Spatial distribution and faunal composition of millipedes of the family Spirostreptidae Brandt, 1833 in the Brazilian Atlantic forest (Diplopoda, Juliformia, Spirostreptida). Anais da Academia Brasileira de Ciências, 95, e20201937.
DOI URL |
| [27] | IPCC (2023) Climate Change 2023: Synthesis Report. In: Contribution of Working Groups I, II and III to the Sixth Assessment Report of the Intergovernmental Panel on Climate Change (eds Lee H, Romero J). IPCC, Geneva. |
| [28] | Iwashima N, Kaneko N, Sato K, Wakatsuki T, Masunaga T (2011) Comparison of the faecal chemical properties of two geophagous millipede species Parafontaria laminata and Parafontaria tonominea (Xystodesmidae) considering effects of habitat density and type of food. Edaphologia, 88, 43-53. |
| [29] |
Joly FX, Coulis M, Gérard A, Fromin N, Hättenschwiler S (2015) Litter-type specific microbial responses to the transformation of leaf litter into millipede feces. Soil Biology and Biochemistry, 86, 17-23.
DOI URL |
| [30] |
Kernecker M, Whalen JK, Bradley RL (2015) Endogeic earthworms lower net methane production in saturated riparian soils. Biology and Fertility of Soils, 51, 271-275.
DOI URL |
| [31] |
Kheirallah AM (1990) Fragmentation of leaf litter by a natural population of the millipede Julus scandinavius (Latzel 1884). Biology and Fertility of Soils, 10, 202-206.
DOI |
| [32] |
Kim DD, Han H, Yun T, Song MJ, Terada A, Laureni M, Yoon S (2022) Identification of nosZ-expressing microorganisms consuming trace N2O in microaerobic chemostat consortia dominated by an uncultured Burkholderiales. The ISME Journal, 16, 2087-2098.
DOI URL |
| [33] | Kime RD, Enghoff H (2017) Atlas of European millipedes 2: Order Julida (Class Diplopoda). European Journal of Taxonomy, 346, 1-299. |
| [34] |
Kobayashi M, Miwa A, Nobuhiro K (2014) Change the menu? Species-dependent feeding responses of millipedes to climate warming and the consequences for plant-soil nitrogen dynamics. Soil Biology and Biochemistry, 72, 19-25.
DOI URL |
| [35] |
Koubová A, Lorenc F, Horváthová T, Chroňáková A, Šustrb V (2023) Millipede gut-derived microbes as a potential source of cellulolytic enzymes. World Journal of Microbiology and Biotechnology, 39, 169.
DOI |
| [36] | Kuiper I, de Deyn GB, Thakur MP, van Groenigen JW (2013) Soil invertebrate fauna affect N2O emissions from soil. Global Change Biology, 19, 2814-2825. |
| [37] |
Lam WN, Slade EM, Wardle DA (2024) Effects of leaf litter traits on terrestrial isopod and millipede consumption, assimilation and growth. Functional Ecology, 38, 1018-1031.
DOI URL |
| [38] | Li SQ, Zang KP, Song L (2020) Review on methanogens and methanotrophs metabolised by methane in wetland. Marine Environmental Science, 39, 488-496. (in Chinese with English abstract) |
| [李思琦, 臧昆鹏, 宋伦 (2020) 湿地甲烷代谢微生物产甲烷菌和甲烷氧化菌的研究进展. 海洋环境科学, 39, 488-496.] | |
| [39] |
Li YY, Liao JH, Chen HYH, Zou XM, Delgado-Baquerizo M, Ni JP, Ren TT, Xu HM, Ruan HH (2023) Soil fauna alter the responses of greenhouse gas emissions to changes in water and nitrogen availability. Soil Biology and Biochemistry, 179, 108990.
DOI URL |
| [40] | Li YY, Liu XJ, Chen YQ, Zhang N, Ren YH, Ruan HH (2025) The regulating effect of millipedes on soil greenhouse gas emissions under the background of nitrogen deposition. Chinese Journal of Ecology, 44, 962-967. (in Chinese with English abstract) |
| [李媛媛, 刘兴婕, 陈月琴, 张娜, 任源浩, 阮宏华 (2025) 氮沉降背景下土壤动物马陆对温室气体排放的调节作用. 生态学杂志, 44, 962-967.] | |
| [41] |
Maraun M, Scheu S (1996) Changes in microbial biomass, respiration and nutrient status of beech (Fagus sylvatica) leaf litter processed by millipedes (Glomeris marginata). Oecologia, 107, 131-140.
DOI PMID |
| [42] | McMonigle OA (2023) Milliped Zoology: Husbandry and Diversity of the Class Diplopoda. Coachwhip Publications, Landisville. |
| [43] |
Merritt RW, Lawson DL (1992) The role leaf litter macroinvertebrates in stream-floodplain dynamics. Hydrobiologia, 248, 65-77.
DOI URL |
| [44] | Mesibov R (2005) Native species dominate the millipede fauna in a second-rotation Pinus radiata plantation in Tasmania, Australia. Pacific Conservation Biology, 11, 17-22. |
| [45] | Minelli A (2015) Treatise on Zoology-Anatomy, Taxonomy, Biology. The Myriapoda, Vol. 2. Brill, Leiden |
| [46] |
Moritz L, Blanke A, Hammel JU, Wesener T (2021) First steps toward suctorial feeding in millipedes: Comparative morphology of the head of the Platydesmida (Diplopoda: Colobognatha). Invertebrate Biology, 140, e12312.
DOI URL |
| [47] |
Nganhane ID, Naskrecki P, Farooq H, Daniel GM (2023) Millipede consumption and interaction between food preferences and sex in dung beetle Chalconotus convexus (Coleoptera: Scarabaeinae). Austral Ecology, 48, 1815-1827.
DOI URL |
| [48] |
Nweze JE, Gupta S, Salcher MM, Šustr V, Horváthová T, Angel R (2024a) Disruption of millipede-gut microbiota in E. pulchripes and G. connexa highlights the limited role of litter fermentation and the importance of litter-associated microbes for nutrition. Communications Biology, 7, 1204.
DOI |
| [49] |
Nweze JE, Šustr V, Brune A, Angel R (2024b) Functional similarity, despite taxonomical divergence in the millipede gut microbiota, points to a common trophic strategy. Microbiome, 12, 16.
DOI |
| [50] | Nzoko-Fiemapong AR, Yetchom-Fondjo JA, Tamesse JL, Mwabvu T, Vandenspiegel D, Golovatch SI (2023) Diversity, distribution, and conservation of millipedes (Myriapoda: Diplopoda) in the Douala-Edéa National Park, Littoral Region of Cameroon. Soil Organisms, 95, 155-172. |
| [51] | Ramanathan B, Alagesan P (2012) Isolation, characterization and the role of gut bacteria of three different millipede species. Indian Journal of Scientific Research 3, 55-61. |
| [52] |
Rawlins AJ, Bull ID, Poirier N, Ineson P, Evershed RP (2006) The biochemical transformation of oak (Quercus robur) leaf litter consumed by the pill millipede (Glomeris marginata). Soil Biology and Biochemistry, 38, 1063-1076.
DOI URL |
| [53] | Rost-Roszkowska MM, Chajec Ł, Stojanović D, Antić D (2025) The ground pattern of midgut structure in Julidae (Julida: Juloidea): A study on selected species. Arthropod Systematics & Phylogeny, 83, 287-302. |
| [54] |
Rost-Roszkowska MM, Kszuk-Jendrysik M, Marchewka A, Poprawa I (2018) Fine structure of the midgut epithelium in the millipede Telodeinopus aoutii (Myriapoda, Diplopoda) with special emphasis on epithelial regeneration. Protoplasma, 255, 43-55.
DOI PMID |
| [55] |
Roy SN, Joy VC (2009) Dietary effects of non-nutrients in the leaf litter of forest trees on assimilation, growth and tissue composition of the detritivorous soil arthropod Anoplodesmus saussurei (Humb.) (Polydesmida: Diplopoda). Applied Soil Ecology, 43, 53-60.
DOI URL |
| [56] |
Scheu S, Wolters V (1991) Influence of fragmentation and bioturbation on the decomposition of 14C-labelled beech leaf litter. Soil Biology and Biochemistry, 23, 1029-1034.
DOI URL |
| [57] |
Schreiner A, Decker P, Hannig K (2012) Millipede and centipede (Myriapoda: Diplopoda, Chilopoda) assemblages in secondary succession: Variance and abundance in Western German beech and coniferous forests as compared to fallow ground. Web Ecology, 12, 9-17.
DOI URL |
| [58] |
Seeber J, Scheu S, Meyer E (2006) Effects of macro-decomposers on litter decomposition and soil properties in alpine pastureland: A mesocosm experiment. Applied Soil Ecology, 34, 168-175.
DOI URL |
| [59] | Shelley RM (2007) Taxonomy of extant Diplopoda (Millipeds) in the modern era: Perspectives for future advancements and observations on the global Diplopod community (Arthropoda: Diplopoda). Zootaxa, 1668, 343-362. |
| [60] |
Sierwald P, Bond JE (2007) Current status of the Myriapod class Diplopoda (Millipedes): Taxonomic diversity and phylogeny. Annual Review of Entomology, 52, 401-420.
PMID |
| [61] | Snyder BA, Boots B, Hendrix PF (2009) Competition between invasive earthworms (Amynthas corticis, Megascolecidae) and native North American millipedes (Pseudopolydesmus erasus, Polydesmidae): Effects on carbon cycling and soil structure. Soil Biology and Biochemistry, 71, 1442-1449. |
| [62] |
Šustr V, Chroňáková A, Semanová S, Tajovský K, Šimek M (2014) Methane production and methanogenic Archaea in the digestive tracts of millipedes (Diplopoda). PLoS ONE, 9, e102659.
DOI URL |
| [63] |
Šustr V, Šimek M, Faktorová L, Macková J, Tajovský K (2020) Release of greenhouse gases from millipedes as related to food, body size, and other factors. Soil Biology and Biochemistry, 144, 107765.
DOI URL |
| [64] |
Šustr V, Šimek M (2009) Methane release from millipedes and other soil invertebrates in Central Europe. Soil Biology and Biochemistry, 41, 1684-1688.
DOI URL |
| [65] |
Suzuki Y Grayston, SJ, Prescott CE (2013) Effects of leaf litter consumption by millipedes (Harpaphe haydeniana) on subsequent decomposition depends on litter type. Soil Biology and Biochemistry, 57, 116-123.
DOI URL |
| [66] |
Toyota A, Kaneko N, Ito MT (2006) Soil ecosystem engineering by the train millipede Parafontaria laminata in a Japanese larch forest. Soil Biology and Biochemistry, 38, 1840-1850.
DOI URL |
| [67] |
Wang M, Zhang WX, Xia H, Huang JH, Wu ZF, Xu GL (2017) Effect of collembola on mineralization of litter and soil organic matter. Biology and Fertility of Soils, 53, 563-571.
DOI URL |
| [68] |
Wang MR, Fu SL, Xu HX, Wang MN, Shi LL (2018) Ecological functions of millipedes in the terrestrial ecosystem. Biodiversity Science, 26, 1051-1059. (in Chinese with English abstract)
DOI |
|
[王梦茹, 傅声雷, 徐海翔, 王美娜, 时雷雷 (2018) 陆地生态系统中马陆的生态功能. 生物多样性, 26, 1051-1059.]
DOI |
|
| [69] |
Wang MR, Fu SL, Zhang HZ, Wang MN, Xu HX, Shi LL (2019) Nitrogen deposition suppresses fungal biomass and oxidase activity in faeces of the millipede Spirobolus formosae in a temperate forest. Soil Ecology Letters, 1, 42-49.
DOI |
| [70] |
Wang SJ, Wang H, Li JH, Zhang Z (2017) Ants can exert a diverse effect on soil carbon and nitrogen pools in a Xishuangbanna tropical forest. Soil Biology and Biochemistry, 113, 45-52.
DOI URL |
| [71] |
Wang SJ, Li JH, Zhang Z, Cao R, Chen MK, Li SH (2018) The contributions of underground-nesting ants to CO2 emission from tropical forest soils vary with species. Science of the Total Environment, 630, 1095-1102.
DOI URL |
| [72] |
Wesener T, Raupach MJ, Sierwald P (2010) The origins of the giant pill-millipedes from Madagascar (Diplopoda: Sphaerotheriida: Arthrosphaeridae). Molecular Phylogenetics and Evolution, 57, 1184-1193.
DOI PMID |
| [73] |
Wu HT, Lu XG, Tong SZ, Batzer DP (2015) Soil engineering ants increase CO2 and N2O emissions by affecting mound soil physicochemical characteristics from a marsh soil: A laboratory study. Applied Soil Ecology, 87, 19-26.
DOI URL |
| [74] |
Xie LL, Wang SJ, Lu M, Xiao B, Wang ZJ, Guo ZP, Guo XF, Luo S, Li R, Xia JH, Yang SQ, Lan MJ (2025) How do different ant species mediate CH4 fluxes in slash-burn tropical forest soils? Soil and Tillage Research, 248, 106432.
DOI URL |
| [75] | Zhang H, Guo ZT, Zhao Y (2023) Peatland carbon cycling and its contribution to carbon peak and carbon neutrality. Quaternary Sciences, 43, 324-335. (in Chinese with English abstract) |
| [张卉, 郭正堂, 赵艳 (2023) 泥炭地碳源汇功能与“双碳”目标. 第四纪研究, 43, 324-335.] | |
| [76] | Zhang XP, Li CY, Zhang SC (2001) Study of the function of millipedes in substance decomposition. Acta Ecologica Sinica, 21, 75-79. (in Chinese with English abstract) |
| [张雪萍, 李春艳, 张思冲 (2001) 马陆在森林生态系统物质转化中的功能研究. 生态学报, 21, 75-79.] | |
| [77] |
Zuo QQ, Wang SJ, Wang P, Cao QB, Zhao S, Yang B (2021) Ant-mediated effects on soil nitrogen mineralization vary with species in a tropical forest. Catena, 203, 105352.
DOI URL |
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