A review on autotrophic microorganisms research in dryland soils

doi:10.7522/j.issn.1000-694X.2022.00033

Journal of Desert Research ›› 2022, Vol. 42 ›› Issue (5): 177-186.DOI: 10.7522/j.issn.1000-694X.2022.00033

Previous Articles Next Articles

A review on autotrophic microorganisms research in dryland soils

Kang Zhao¹(), Lei Zhang¹, Kaikai Li², Fei Wang³, Bingchang Zhang²()

^1.School of Life Science /, Shanxi Normal University，Taiyuan 030000，China
^2.School of Geographical Sciences, Shanxi Normal University，Taiyuan 030000，China
^3.College of Resource and Environment，Shanxi Agricultural University，Taiyuan 030000，China

Received:2021-12-07 Revised:2022-03-02 Online:2022-09-20 Published:2022-09-22
Contact: Bingchang Zhang

Abstract

Abstract:

Microbial CO₂ fixation is an important autotrophic process for maintaining soil microbial community structure and heterotrophic processes in arid areas， which affects the succession and ecological function of biological soil crusts. In recent years， the extensive application of soil microbial genomics has expanded the community of autotrophs， which used to be dominated by cyanobacteria and algae. These results supported the possibility of non-cyanobacteria prokaryotes to import organic matter into soils. In this text， the distribution characteristics of cyanobacteria and algae and the regulation mechanism of environmental factors in dryland soil were reviewed. Moreover， the exploration of non-cyanobacterial autotrophs and their ecological functions in dryland soil in recent years were summarized characterizing by the coupled microbial energy metabolism pathways and biological carbon sequestration cycles. Finally， soil microbial autotrophs in dryland soils were summarized and prospected in order to provide a theoretical basis for understanding the formation and development mechanism of soil microbial community， and to provide a scientific basis for the construction of biological soil crusts.

Key words: autotrophic microorganisms, biological carbon sequestration pathway, biological soil crust, chemolithotrophy, dryland soils

CLC Number:

S154.36

Kang Zhao, Lei Zhang, Kaikai Li, Fei Wang, Bingchang Zhang. A review on autotrophic microorganisms research in dryland soils[J]. Journal of Desert Research, 2022, 42(5): 177-186.

Figures/Tables 1

References 111

1	Guan P T， Zhang X K， Yu J，et al.Soil microbial food web channels associated with biological soil crusts in desertification restoration：the carbon flow from microbes to nematodes［J］.Soil Biology & Biochemistry，2018，116：82-90.
2	Zhou H， Gao Y， Jia X H，et al.Network analysis reveals the strengthening of microbial interaction in biological soil crust development in the Mu Us Sandy Land，northwestern China［J］.Soil Biology & Biochemistry，2020，144：107782.
3	Maier S， Tamm A， Wu D，et al.Photoautotrophic organisms control microbial abundance，diversity，and physiology in different types of biological soil crusts［J］.ISME Journal，2018，12（4）：1032-1046.
4	Couradeau E， Karaoz U， Lim H C，et al.Bacteria increase arid-land soil surface temperature through the production of sunscreens［J］.Nature Communications，2016，7：10373.
5	Leung P M， Bay S K， Meier D V， al et，Energetic basis of microbial growth and persistence in desert ecosystems［J］.mSystems，2020，5（2）：e00495-19.
6	Ji M， Greening C， Vanwonterghem I，et al.Atmospheric trace gases support primary production in Antarctic desert surface soil［J］.Nature，2017，552：400-403.
7	Hugler M， Sievert S M.Beyond the calvin cycle：Autotrophic carbon fixation in the ocean［J］.Annual Review of Marine Science，2011，3：261-289.
8	Berg I A.Ecological aspects of the distribution of different autotrophic CO₂ fixation pathways［J］.Applied and Environmental Microbiology，2011，77（6）：1925-1936.
9	Pointing S B， Belnap J.Microbial colonization and controls in dryland systems［J］.Nature Reviews Microbiology，2012，10（8）：551-562.
10	李新荣，张元明，赵允格.生物土壤结皮研究：进展、前沿与展望［J］.地球科学进展，2009，24（1）：11-24.
11	周晓兵，张丙昌，张元明.生物土壤结皮固沙理论与实践［J］.中国沙漠，2021，41（1）：164-173.
12	李茜倩，张元明.荒漠藓类结皮边缘效应下土壤肥力的灰色关联度分析［J］.中国沙漠，2019，39（3）：17-24.
13	Dojani S， Budel B， Deutschewitz B，et al.Rapid succession of biological soil crusts after experimental disturbance in the Succulent Karoo，South Africa［J］.Applied Soil Ecology，2011，48（3）：263-269.
14	Budel B， Darienko T， Deutschewitz K，et al.Southern African biological soil crusts are ubiquitous and highly diverse in drylands，being restricted by rainfall frequency［J］.Microbial Ecology，2009，57（2）：229-247.
15	张元明，王雪芹.荒漠地表生物土壤结皮形成与演替特征概述［J］.生态学报，2010，30（16）：4484-4492.
16	Eldridge D J， Reed S， Travers S K，et al.The pervasive and multifaceted influence of biocrusts on water in the world's drylands［J］.Global Change Biology，2020，26：6003-6014.
17	肖波，赵允格，邵明安.陕北水蚀风蚀交错区两种生物结皮对土壤饱和导水率的影响［J］.农业工程学报，2007，23（12）：35-40.
18	李亚红，卜崇峰，郭琦，等.毛乌素沙地藓、藻结皮生态功能对比［J］.中国沙漠，2021，41（2）：138-144.
19	Angeles Munoz-Martin M， Becerra-Absalon I， Perona E，et al.Cyanobacterial biocrust diversity in Mediterranean ecosystems along a latitudinal and climatic gradient［J］.New Phytologist，2019，221（1）：123-141.
20	Garcia-Pichel F， Lopez-Cortes A， Nubel U.Phylogenetic and morphological diversity of cyanobacteria in soil desert crusts from the Colorado Plateau［J］.Applied and Environmental Microbiology，2001，67（4）：1902-1910.
21	Munoz-Rojas M， Roman J R， Roncero-Ramos B，et al.Cyanobacteria inoculation enhances carbon sequestration in soil substrates used in dryland restoration［J］.The Science of the Total Environment，2018，636：1149-1154.
22	Wang W B， Liu Y D， Li D H，et al.Feasibility of cyanobacterial inoculation for biological soil crusts formation in desert area［J］.Soil Biology & Biochemistry，2009，41（5）：926-929.
23	Zhao Y， Jia R L， Wang J.Towards stopping land degradation in drylands：water-saving techniques for cultivating biocrusts in situ［J］.Land Degradation & Development，2019，30（18）：2336-2346.
24	饶本强，王伟波，兰书斌，等.库布齐沙地三年生人工藻结皮发育特征及微生物分布［J］.水生生物学报，2009，33（5）：937-944.
25	Housman D C， Powers H H， Collins A D，et al.Carbon and nitrogen fixation differ between successional stages of biological soil crusts in the Colorado Plateau and Chihuahuan Desert［J］.Journal of Arid Environments，2006，66（4）：620-634.
26	Zaady E， Kuhn U， Wilske B，et al.Patterns of CO₂ exchange in biological soil crusts of successional age［J］.Soil Biology & Biochemistry，2000，32（7）：959-966.
27	Buedel B， Williams W J， Reichenberger H.Annual net primary productivity of a cyanobacteria-dominated biological soil crust in the Gulf Savannah，Queensland，Australia［J］.Biogeosciences，2018，15（2）：491-505.
28	Weber B， Büdel B， Belnap J.Biological soil crusts：an organizing principle in drylands［M］.Switzerland：Springer International Publishing，2016：56-73.
29	Garcia-Pichel F， Wojciechowski M F.The evolution of a capacity to build supra-cellular ropes enabled filamentous cyanobacteria to colonize highly erodible substrates［J］.Plos One，2009，4（11）：e7801.
30	Tang K， Jia L J， Yuan B，et al.Aerobic anoxygenic phototrophic bacteria promote the development of biological soil crusts［J］.Frontiers in Microbiology，2018，9：2715.
31	Xu L， Zhu B J， Li C N，et al.Development of biological soil crust prompts convergent succession of prokaryotic communities［J］.Catena，2020，187：104360.
32	Gao Q J， Garcia-Pichel F.Microbial ultraviolet sunscreens［J］.Nature Reviews Microbiology，2011，9（11）：791-802.
33	Hoffmann L.Algae of terrestrial habitats［J］.Botanical Review，1989，55（2）：77-105.
34	Pushkareva E， Johansen J R， Elster J.A review of the ecology，ecophysiology and biodiversity of microalgae in Arctic soil crusts［J］.Polar Biology，2016，39（12）：2227-2240.
35	Zhang B C， Zhang Y M， Zhao J C，et al.Microalgal species variation at different successional stages in biological soil crusts of the Gurbantunggut Desert，Northwestern China［J］.Biology and Fertility of Soils，2009，45（5）：539-547.
36	Zhang B C， Li R H， Xiao P，et al.Cyanobacterial composition and spatial distribution based on pyrosequencing data in the Gurbantunggut Desert，Northwestern China［J］.Journal of Basic Microbiology，2016，56（3）：308-320.
37	Giraldo-Silva A， Fernandes V M C， Bethany J，et al.Niche partitioning with temperature among heterocystous cyanobacteria （Scytonema spp.，Nostoc spp.，and Tolypothrix spp.） from biological soil crusts［J］.Microorganisms，2020，8（3）：396.
38	Zhao K， Kong W D， Wang F，et al.Desert and steppe soils exhibit lower autotrophic microbial abundance but higher atmospheric CO₂ fixation capacity than meadow soils［J］.Soil Biology & Biochemistry，2018，127：230-238.
39	Yeager C M， Kornosky J L， Morgan R E，et al.Three distinct clades of cultured heterocystous cyanobacteria constitute the dominant N-2-fixing members of biological soil crusts of the Colorado Plateau，USA［J］.Fems Microbiology Ecology，2007，60（1）：85-97.
40	Garcia-Pichel F， Loza V， Marusenko Y，et al.Temperature drives the continental-scale distribution of key microbes in topsoil communities［J］.Science，2013，340（6140）：1574-1577.
41	Fernandes V M C， Lima N M， Roush D，et al.Exposure to predicted precipitation patterns decreases population size and alters community structure of cyanobacteria in biological soil crusts from the Chihuahuan Desert［J］.Environmental Microbiology，2018，20（1）：259-269.
42	Steven B， Gallegos-Graves L V， Yeager C M，et al.Dryland biological soil crust cyanobacteria show unexpected decreases in abundance under long-term elevated CO₂ ［J］.Environmental Microbiology，2012，14（12）：3247-3258.
43	Steven B， Kuske C R， Gallegos-Graves L V，et al.Climate change and physical disturbance manipulations result in distinct biological soil crust communities［J］.Applied and Environmental Microbiology，2015，81（21）：7448-7459.
44	Samolov E， Baumann K， Budel B，et al.Biodiversity of algae and cyanobacteria in biological soil crusts collected along a climatic gradient in Chile using an integrative approach［J］.Microorganisms，2020，8（7）：1-28.
45	Rippin M， Borchhardt N， Williams L，et al.Genus richness of microalgae and Cyanobacteria in biological soil crusts from Svalbard and Livingston Island：morphological versus molecular approaches［J］.Polar Biology，2018，41（5）：909-923.
46	Ferrenberg S， Reed S C， Belnap J.Climate change and physical disturbance cause similar community shifts in biological soil crusts［J］.Proceedings of the National Academy of Sciences of the United States of America，2015，112（39）：12116-12121.
47	Rodriguez-Caballero E， Belnap J， Buedel B，et al.Dryland photoautotrophic soil surface communities endangered by global change［J］.Nature Geoscience，2018，11（3）：185-189.
48	Cable J M， Huxman T E.Precipitation pulse size effects on Sonoran Desert soil microbial crusts［J］.Oecologia，2004，141（2）：317-324.
49	Reed S C， Coe K K， Sparks J P，et al.Changes to dryland rainfall result in rapid moss mortality and altered soil fertility［J］.Nature Climate Change，2012，2（10）：752-755.
50	Cary S C， McDonald I R， Barrett J E，et al.On the rocks：the microbiology of Antarctic dry valley soils［J］.Nature Reviews Microbiology，2010，8（2）：129-138.
51	Makhalanyane T P， Valverde A， Gunnigle E，et al.Microbial ecology of hot desert edaphic systems［J］.Fems Microbiology Reviews，2015，39（2）：203-221.
52	Angel R， Soares M I M， Ungar E D，et al.Biogeography of soil archaea and bacteria along a steep precipitation gradient［J］.Isme Journal，2010，4（4）：553-563.
53	Bay S K， Waite D W， Dong X Y，et al.Chemosynthetic and photosynthetic bacteria contribute differentially to primary production across a steep desert aridity gradient［J］.Isme Journal，2021，15：3339-3356.
54	Lynch R C， Darcy J L， Kane N C，et al.Metagenomic evidence for metabolism of trace atmospheric gases by high-elevation desert Actinobacteria［J］.Frontiers in Microbiology，2014，5：698.
55	Zhao K， Zhang B C， Li J N，et al.The autotrophic community across developmental stages of biocrusts in the Gurbantunggut Desert［J］.Geoderma，2021，388：114927.
56	Figueroa I A， Barnum T P， Somasekhar P Y，et al.Metagenomics-guided analysis of microbial chemolithoautotrophic phosphite oxidation yields evidence of a seventh natural CO₂ fixation pathway［J］.Proceedings of the National Academy of Sciences of the United States of America，2018，115（1）：92-101.
57	Tabita F R， Hanson T E， Li H Y，et al.Function，structure，and evolution of the RubisCO-like proteins and their RubisCO homologs［J］.Microbiology and Molecular Biology Reviews，2007，71（4）：576-600.
58	Codd G A， Marsden W J N.The carboxysomes （polyhedral bodies） of autotrophic prokaryotes［J］.Biological Reviews of the Cambridge Philosophical Society，1984，59（3）：389-422.
59	Cannon G C， Bradburne C E， Aldrich H C，et al.Microcompartments in prokaryotes：carboxysomes and related polyhedra［J］.Applied and Environmental Microbiology，2001，67（12）：5351-5361.
60	Tabita F R， Satagopan S， Hanson T E，et al.Distinct form I，II，III，and IV RubisCO proteins from the three kingdoms of life provide clues about RubisCO evolution and structure/function relationships［J］.Journal of Experimental Botany，2008，59（7）：1515-1524.
61	Berg I A， Keppen O I， Krasil'nikova E N，et al.Carbon metabolism of filamentous anoxygenic phototrophic bacteria of the family Oscillochloridaceae［J］.Microbiology，2005，74（3）：258-264.
62	Caldwell P E， MacLean M R， Norris P R.Ribulose bisphosphate carboxylase activity and a Calvin cycle gene cluster in Sulfobacillus species［J］.Microbiology-SGM，2007，153：2231-2240.
63	Lee J H， Park D O， Park S W，et al.Expression and regulation of ribulose 1，5-bisphosphate carboxylase/oxygenase genes in Mycobacterium sp strain JC1 DSM 3803［J］.Journal of Microbiology，2009，47（3）：297-307.
64	Greening C， Berney M， Hards K，et al.A soil actinobacterium scavenges atmospheric H₂ using two membrane-associated，oxygen-dependent NiFe hydrogenases［J］.Proceedings of the National Academy of Sciences of the United States of America，2014，111（11）：4257-4261.
65	Li J Y， Jin X Y， Zhang X Y，et al.Comparative metagenomics of two distinct biological soil crusts in the Tengger Desert，China［J］.Soil Biology & Biochemistry，2020，140：107637.
66	刘洋荧，王尚，厉舒祯，等.基于功能基因的微生物碳循环分子生态学研究进展［J］.微生物学通报，2017，44（7）：1676-1689.
67	Campbell B J， Cary S C.Abundance of reverse tricarboxylic acid cycle genes in free-living microorganisms at deep-sea hydrothermal vents［J］.Applied and Environmental Microbiology，2004，70（10）：6282-6289.
68	Gagen E J， Denman S E， Padmanabha J，et al.Functional gene analysis suggests different acetogen populations in the Bovine Rumen and Tammar Wallaby forestomach［J］.Applied and Environmental Microbiology，2010，76（23）：7785-7795.
69	King G A.Molecular and culture-based analyses of aerobic carbon monoxide oxidizer diversity［J］.Applied and Environmental Microbiology，2003，69（12）：7257-7265.
70	Yakimov M M， La Cono V， Denaro R.A first insight into the occurrence and expression of functional amoA and accA genes of autotrophic and ammonia-oxidizing bathypelagic Crenarchaeota of Tyrrhenian Sea［J］.Deep-Sea Research Part II，2009，56（11）：748-754.
71	Offre P， Nicol G W， Prosser J I.Community profiling and quantification of putative autotrophic thaumarchaeal communities in environmental samples［J］.Environmental Microbiology Reports，2011，3（2）：245-253.
72	Diaz M R， Van Norstrand G D， Eberli G P，et al.Functional gene diversity of oolitic sands from Great Bahama Bank［J］.Geobiology，2014，12（3）：231-249.
73	Islam Z F， Welsh C， Bayly K，et al.A widely distributed hydrogenase oxidises atmospheric H₂ during bacterial growth［J］.ISME Journal，2020，14：2649-2658.
74	Liot Q， Constant P.Breathing air to save energy-new insights into the ecophysiological role of high-affinity NiFe-hydrogenase in Streptomyces avermitilis ［J］.Microbiologyopen，2016，5（1）：47-59.
75	Gadkari D， Schricker K， Acker G，et al. Streptomyces-thermoautotrophicus sp-nov，a thermophilic CO-oxidizing and H₂-oxidizing obligate chemolithoautotroph［J］.Applied and Environmental Microbiology，1990，56（12）：3727-3734.
76	Weber C F， King G M.Volcanic soils as sources of novel CO-oxidizing Paraburkholderia and Burkholderia：Paraburkholderia hiiakae sp nov.，Paraburkholderia metrosideri sp nov.，Paraburkholderia paradisi sp nov.，Paraburkholderia peleae sp nov.，and Burkholderia alpina sp nov a member of the Burkholderia cepacia complex［J］.Frontiers in Microbiology，2017，8：207.
77	King G M， Weber C F.Distribution，diversity and ecology of aerobic CO-oxidizing bacteria［J］.Nature Reviews Microbiology，2007，5（2）：107-118.
78	Greening C， Biswas A， Carere C R，et al.Genomic and metagenomic surveys of hydrogenase distribution indicate H₂ is a widely utilised energy source for microbial growth and survival［J］.Isme Journal，2016，10（3）：761-777.
79	Khdhiri M， Hesse L， Popa M E，et al.Soil carbon content and relative abundance of high affinity H₂-oxidizing bacteria predict atmospheric H₂ soil uptake activity better than soil microbial community composition［J］.Soil Biology & Biochemistry，2015，85：1-9.
80	Cordero P R F， Bayly K， Leung P M，et al.Atmospheric carbon monoxide oxidation is a widespread mechanism supporting microbial survival［J］.Isme Journal，2019，13（11）：2868-2881.
81	Delgado-Baquerizo M， Maestre F， Eldridge D J，et al.Microsite differentiation drives the abundance of soil ammonia oxidizing bacteria along aridity gradients［J］.Frontiers in Microbiology，2016，7：505.
82	Abed R M M， Lam P， Beer D D，et al.High rates of denitrification and nitrous oxide emission in arid biological soil crusts from the Sultanate of Oman［J］.Isme Journal，2013，7（9）：1862-1875.
83	Francis C A， Roberts K J， Beman J M，et al.Ubiquity and diversity of ammonia-oxidizing archaea in water columns and sediments of the ocean［J］.Proceedings of the National Academy of Sciences of the United States of America，2005，102（41）：14683-14688.
84	Verhamme D T， Prosser J I， Nicol G W.Ammonia concentration determines differential growth of ammonia-oxidising archaea and bacteria in soil microcosms［J］.Isme Journal，2011，5（6）：1067-1071.
85	Zhang L M， Hu H W， Shen J P，et al.Ammonia-oxidizing archaea have more important role than ammonia-oxidizing bacteria in ammonia oxidation of strongly acidic soils［J］.The ISME Journal，2012，6：1032-1045.
86	Zhao L N， Liu Y B， Yuan S W，et al.Development of archaeal communities in biological soil crusts along a revegetation chronosequence in the Tengger Desert，north central China［J］.Soil & Tillage Research，2020，196：104443.
87	刘鑫，荣晓莹，张元明.古尔班通古特沙漠生物土壤结皮对氨氧化微生物生态位的影响［J］.生物多样性，2021，29（1）：43-52.
88	Strong C L， Bullard J E， Burford M A，et al.Response of cyanobacterial soil crusts to moisture and nutrient availability［J］.Catena，2013，109：195-202.
89	Pepe-Ranney C， Koechli C， Potrafka R，et al.Non-cyanobacterial diazotrophs mediate dinitrogen fixation in biological soil crusts during early crust formation［J］.ISME Journal，2016，10（2）：287-298.
90	Salka I， Cuperova Z， Masin M，et al.Rhodoferax-related pufM gene cluster dominates the aerobic anoxygenic phototrophic communities in German freshwater lakes［J］.Environmental Microbiology，2011，13（11）：2865-2875.
91	Achenbach L A， Carey J， Madigan M T.Photosynthetic and phylogenetic primers for detection of anoxygenic phototrophs in natural environments［J］.Applied and Environmental Microbiology，2001，67（7）：2922-2926.
92	杨素萍，林志华，崔小华，等.不产氧光合细菌的分类学进展［J］.微生物学报，2008，48（11）：1562-1566.
93	Csotonyi J T， Swiderski J， Stackebrandt E，et al.A new environment for aerobic anoxygenic phototrophic bacteria：biological soil crusts［J］.Environmental Microbiology Reports，2010，2（5）：651-656.
94	Zarzycki J， Brecht V， Muller M，et al.Identifying the missing steps of the autotrophic 3-hydroxypropionate CO₂ fixation cycle in Chloroflexus aurantiacus ［J］.Proceedings of the National Academy of Sciences of the United States of America，2009，106（50）：21317-21322.
95	Bryant D A， Costas A M G， Maresca J A，et al.Candidatus Chloracidobacterium thermophilum：an aerobic phototrophic acidobacterium［J］.Science，2007，317（5837）：523-526.
96	Csotonyi J T， Swiderski J， Stackebrandt E，et al.Novel halophilic aerobic anoxygenic phototrophs from a Canadian hypersaline spring system［J］.Extremophiles，2008，12（4）：529-539.
97	Johnson S L， Budinoff C R， Belnap J，et al.Relevance of ammonium oxidation within biological soil crust communities［J］.Environmental Microbiology，2005，7（1）：1-12.
98	Lee K C， Archer S D J， Boyle R H，et al.Niche filtering of bacteria in soil and rock habitats of the Colorado plateau desert，Utah，USA［J］.Frontiers in Microbiology，2016，7：1489.
99	Chauhan H， Bagyaraj D J， Selvakumar G，et al.Novel plant growth promoting rhizobacteria-prospects and potential［J］.Applied Soil Ecology，2015，95：38-53.
100	Hallenbeck P.Modern topics in the phototrophic prokaryotes：environmental and applied aspects［M］//Yurkov V，Hughes E.Aerobic Anoxygenic Phototrophs：Four Decades of Mystery.Switzerland：Springer International Publishing，2017：193-214.
101	Lan S， Ouyang H， Wu L，et al.Biological soil crust community types differ in photosynthetic pigment composition，fluorescence and carbon fixation in Shapotou region of China［J］.Applied Soil Ecology，2017，111：9-16.
102	Gourion B， Delmotte N， Bonaldi K，et al.Bacterial RubisCO is required for efficient bradyrhizobium/aeschynomene symbiosis［J］.PloS One，2011.6（7）：e21900.
103	Grostern A， Alvarez-Cohen L. RubisCO-based CO₂ fixation and C-1 metabolism in the actinobacterium Pseudonocardia dioxanivorans CB1190［J］.Environmental Microbiology，2013，15（11）：3040-3053.
104	Guo G X， Kong W D， Liu J B，et al.Diversity and distribution of autotrophic microbial community along environmental gradients in grassland soils on the Tibetan Plateau［J］.Applied Microbiology and Biotechnology，2015，99（20）：8765-8776.
105	Miralles I， Ladron de Guevara M， Chamizo S，et al.Soil CO₂ exchange controlled by the interaction of biocrust successional stage and environmental variables in two semiarid ecosystems［J］.Soil Biology & Biochemistry，2018，124：11-23.
106	Leon-Sobrino C， Ramond J B， Maggs-Kolling G，et al.Nutrient acquisition，rather than stress response over diel cycles，drives microbial transcription in a hyper-arid Namib Desert soil［J］.Frontiers in Microbiology，2019，10：1054.
107	Zhang B C， Zhang Y Q， Li X Z，et al.Successional changes of fungal communities along the biocrust development stages［J］.Biology and Fertility of Soils，2018，54（2）：285-294.
108	Liu L C， Liu Y B， Zhang P，et al.Development of bacterial communities in biological soil crusts along a revegetation chronosequence in the Tengger Desert，northwest China［J］.Biogeosciences，2017，14（16）：3801-3814.
109	Xu L， Zhu B J， Li C N，et al.Increasing relative abundance of non-cyanobacterial photosynthetic organisms drives ecosystem multifunctionality during the succession of biological soil crusts［J］.Geoderma，2021，395：115052.
110	Su Y G， Chen Y W， Padilla F M，et al.The influence of biocrusts on the spatial pattern of soil bacterial communities：a case study at landscape and slope scales［J］.Soil Biology & Biochemistry，2020，142：107721.
111	Deng Y， Zhang P， Qin Y J，et al.Network succession reveals the importance of competition in response to emulsified vegetable oil amendment for uranium bioremediation［J］.Environmental Microbiology，2016，18（1）：205-218.

[1]	Jingting Bao, Jingyao Sun, Jin Wang. A review on microbial community assembly in biological soil crusts [J]. Journal of Desert Research, 2022, 42(6): 33-43.
[2]	Wenwen Xu, Yanqiao Zhao, Nan Wang, Yang Zhao. Effects of artificial biological soil crusts on the composition and diversity of herbaceous plant communities [J]. Journal of Desert Research, 2022, 42(5): 204-211.
[3]	Nan Wang, Wenwen Xu, Yanqiao Zhao, Yang Zhao. Large-scale culture experiment of desert cyanobacteria [J]. Journal of Desert Research, 2022, 42(4): 181-189.
[4]	Peiying Yan, Jianjun Qu, Zihui Yang, Jianhua Xiao, Jinnian Tang. Cyanobacterial diversity of biological soil crusts in different bioclimatic regions in China [J]. Journal of Desert Research, 2022, 42(2): 85-94.
[5]	Yahong Li, Chongfeng Bu, Qi Guo, Yingxin Wei. Ecological functions comparison of moss crust and algae crust in the Mu Us Sand Land [J]. Journal of Desert Research, 2021, 41(2): 138-144.
[6]	Xiaobing Zhou, Bingchang Zhang, Yuanming Zhang. The theory and practices of biological soil crust rehabilitation [J]. Journal of Desert Research, 2021, 41(1): 164-173.
[7]	Yang Zhao, Yanxia Pan, Jieqiong Su, Zhishan Zhang. Research status and development trend of green and environmental protection technologies on desertification land prevention in arid region of China [J]. Journal of Desert Research, 2021, 41(1): 195-202.
[8]	Hong Zhou, Bo Wu, Ying Gao, Long Cheng, Xiaohong Jia, Yingjun Pang, Heju Zhao. Composition and influencing factors of the biological soil crust bacterial communities in the Sabina vulgaris community in Mu Us Sandy Land [J]. Journal of Desert Research, 2020, 40(5): 130-141.
[9]	Zhou Lifeng, Yang Rong, Zhao Wenzhi. Temporal evolution of soil water repellency in stabilized sand dunes in artificial sand fixation vegetation area on fringe of a desert [J]. Journal of Desert Research, 2020, 40(3): 185-192.
[10]	Wang Yansong, Liu Yubing, Wang Zengru, Zhao Lina, Qi Jinghua, Zhang Wenli. Iron metabolism microbial composition and functional genes response to succession of biological soil crust [J]. Journal of Desert Research, 2020, 40(3): 193-200.
[11]	Zhang Rui, Zhou Xiaobing, Zhang Yuanming. Affects of Biological Soil Crusts on Litter Decomposition in the Gurbantunggut Desert [J]. Journal of Desert Research, 2019, 39(6): 151-158.
[12]	Si Shouxia, Li Yixuan, Hui Rong, Liu Lichao, Xie Min, Wang Yanli. Effects of Snow on the Photosynthetic Physiological Characteristics of Biological Soil Crusts in A Desert Region [J]. Journal of Desert Research, 2018, 38(3): 560-567.
[13]	Du Jun, Li Yixuan, Yang Xiaoxia, Li Yunfei, Ma Xiaojun. Effects of Biological Soil Crusts Types on Soil Physicochemical Properties in the Southeast Fringe of the Tengger Desert [J]. JOURNAL OF DESERT RESEARCH, 2018, 38(1): 111-116.
[14]	Yang Hangyu, Liu Yanmei, Wang Tingpu, Hui Rong. Effects of Biological Soil Crusts on the Amount and Activities of Soil Microbes in Desert Areas [J]. JOURNAL OF DESERT RESEARCH, 2017, 37(5): 950-960.
[15]	Xiao Weiqiang, Dong Zhibao, Chen Hao, Shao Tianjie, Cui Xujia, Li Chao, Song Shaopeng, Xiao Nan, Li Lulu. Effect of Biological Soil Crusts on Features of Grain Size in the Northern Margin of Hobq Desert [J]. JOURNAL OF DESERT RESEARCH, 2017, 37(5): 970-977.

A review on autotrophic microorganisms research in dryland soils

RichHTML

PDF

Knowledge

Abstract

Cite this article

share this article

Figures/Tables 1

References 111

Related Articles 15

Recommended Articles

Metrics

Comments