Larva fish assemblage structure in three-dimensional floating wetlands and non-floating wetlands in the Changjiang River estuary

Xiaofeng HUANG; Feng ZHAO; Chao SONG; Yi CHAI; Qian WANG; Ping ZHUANG

doi:10.1007/s00343-020-0078-6

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Larva fish assemblage structure in three-dimensional floating wetlands and non-floating wetlands in the Changjiang River estuary

Aquaculture and Fisheries | Updated：2023-06-06

- Larva fish assemblage structure in three-dimensional floating wetlands and non-floating wetlands in the Changjiang River estuary
- Larva fish assemblage structure in three-dimensional floating wetlands and non-floating wetlands in the Changjiang River estuary
- 海洋湖沼学报（英文） 2021年39卷第2期页码：721-731
- Affiliations：
  
  1.College of Animal Science, Yangtze University, Jingzhou 434025, China
  2.Engineering Research Center of Ecology and Agricultural Use of Wetland, Ministry of Education, Yangtze University, Jingzhou 434020, China
  3.Chinese Academy of Fishery Sciences, East China Sea Fisheries Research Institute, Shanghai 200090, China
- Author bio：
  
  Xiaofeng HUANG, E-mail: xfhuang2020@163.com
  Ping ZHUANG, E-mail: pzhuang@ecsf.ac.cn
- Funds：
  
  the National Key R&D Program of China(2019YFD0901202);the National Key Research and Development Program of China(2018YFD0900905);the China Postdoctoral Science Foundation(2018M632887);© Chinese Society for Oceanology and Limnology, Science Press and Springer-Verlag GmbH Germany, part of Springer Nature 2021
- DOI：10.1007/s00343-020-0078-6
  中图分类号：
- 收稿：2020-02-19，
  
  录用：2020-3-21，
  
  网络首发：2020-04-11，
  
  纸质出版：2021-03
- Accepted：
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Larva fish assemblage structure in three-dimensional floating wetlands and non-floating wetlands in the Changjiang River estuary[J]. 海洋湖沼学报（英文）, 2021,39(2):721-731.

Xiaofeng HUANG, Feng ZHAO, Chao SONG, et al. Larva fish assemblage structure in three-dimensional floating wetlands and non-floating wetlands in the Changjiang River estuary[J]. Journal of Oceanology and Limnology, 2021, 39(2): 721-731.
Larva fish assemblage structure in three-dimensional floating wetlands and non-floating wetlands in the Changjiang River estuary[J]. 海洋湖沼学报（英文）, 2021,39(2):721-731. DOI： 10.1007/s00343-020-0078-6.

Xiaofeng HUANG, Feng ZHAO, Chao SONG, et al. Larva fish assemblage structure in three-dimensional floating wetlands and non-floating wetlands in the Changjiang River estuary[J]. Journal of Oceanology and Limnology, 2021, 39(2): 721-731. DOI： 10.1007/s00343-020-0078-6.

摘要

Abstract

Fish populations have declined in many estuarine and freshwater ecosystems in part due to the loss of habitat in recent decades. Reconstructing lost habitat for larvae fish is a potential method for recovering larvae fish populations. Three-dimensional artificial floating wetlands (AFWs) on which

Phragmites australis

was planted were experimentally deployed to recover the lost habitat in the Changjiang (Yangtze) River estuary from May to July 2018. The AFW area was characterized by slow velocity

high transparency

low dissolved oxygen

and relatively constant water temperature. The total individuals of larvae fish in the AFW area (12 122 in total) was higher than that in the non-AFW area (1 250 in total)

and the densities of most larvae fish species were higher in the AFW habitat than in the non-AFW area. The distributions of larvae fish species were positively influenced by habitat type because they were strongly related to the negative part of the first axis of the redundancy analysis

and

Cyprinus carpio

and

Cyprinus auratus

were inclined to habitat in the slow velocity and high transparency AFW habitat area. These results indicate that larvae fish species are inclined to inhabit the AFW habitat. The use of three-dimensional

P. australis

AFWs would be a potential method for enhancing the habitat of larvae fish in the degraded habitats along the estuary.

关键词

Keywords

references

AhmedMB,ZhouJL,NgoHH,GuoWS.2015.Adsorptiveremovalofantibioticsfromwaterandwastewater:progressandchallenges. Science of the Total Environment , 532 :112-126..

BarlettaM,JaureguizarAJ,BaigunC,FontouraNF,AgostinhoAA,Almeida-ValVMF,ValAL,TorresRA,Jimenes-SeguraLF,GiarrizzoT,FabréNN,BatistaVS,LassoC,TaphornDC,CostaMF,ChavesPT,VieiraJP,CorrêaMFM.2010.FishandaquatichabitatconservationinSouthAmerica:acontinentaloverviewwithemphasisonneotropicalsystems. Journal of Fish Biology , 76 (9):2118-2176..

BoldingB,BonarS,DivensM.2004.Useofartificialstructuretoenhanceanglerbenefitsinlakes,ponds,andreservoirs:aliteraturereview. Reviews in Fisheries Science , 12 (1):75-96..

CaoWX,ChangJB,QiaoY,DuanZH.2007.FishResourcesofEarlyLifeHistoryStagesinYangtzeRiver.ChinaWaterPowerPress,Beijing.(inChinese)

CazzanelliM,WarmingTP,ChristoffersenKS.2008.Emergentandfloating-leavedmacrophytesasrefugeforzooplanktoninaeutrophictemperatelakewithoutsubmergedvegetation. Hydrobiologia , 605 (1):113-122..

CheminéeA,RiderM,LenfantP,ZawadzkiA,MercièreA,Crec'hriouR,MercaderM,SaragoniG,NeveuR,TernonQ,PastorJ.2017.Shallowrockynurseryhabitatforfish:spatialvariabilityofjuvenilefishesamongthispoorlyprotectedessentialhabitat. Marine Pollution Bulletin , 119 (1):245-254..

ClarkeKR.1993.Non-parametricmultivariateanalysesofchangesincommunitystructure. Australian Journal of Ecology , 18 (1):117-143..

ClaveroM,HermosoV.2011.Reservoirspromotethetaxonomichomogenizationoffishcommunitieswithinriverbasins. Biodiversity and Conservation , 20 (1):41-57..

CristoforS,VadineanuA,SarbuA,PostolacheC,DobreR,AdamescuM.2003.Long-termchangesofsubmergedmacrophytesinthelowerDanubeWetlandsystem. Hydrobiologia , 506 - 509 :625-634..

DagornL,HollandKN,FilmalterJ.2010.Aredriftingfadsessentialfortestingtheecologicaltraphypothesis? Fisheries Research , 106 (1):60-63..

EstlanderS,NurminenL,OlinM,VinniM,HorppilaJ.2009.Seasonalfluctuationsinmacrophytecoverandwatertransparencyoffourbrown-waterlakes:implicationsforcrustaceanzooplanktoninlittoralandpelagichabitats. Hydrobiologia , 620 (1):109-120..

FicetolaGF,SiesaME,DeBernardiF,Padoa-SchioppaE.2012.Compleximpactofaninvasivecrayfishonfreshwaterfoodwebs. Biodiversity and Conservation , 21 (10):2641-2651..

FigarskiT,KajtochL.2015.Alterationsofriverineecosystemsadverselyaffectbirdassemblages. Hydrobiologia , 744 (1):287-296..

GiblinSM,HouserJN,SullivanJF,LangrehrHA,RogalaJT,CampbellBD.2014.Thresholdsintheresponseoffree-floatingplantabundancetovariationinhydraulicconnectivity,nutrients,andmacrophyteabundanceinalargefloodplainriver. Wetlands , 34 (3):413-425..

GodwinBL,AlbekeSE,BergmanHL,WaltersA,Ben-DavidM.2015.Densityofriverotters( Lontra canadensis )inrelationtoenergydevelopmentinthegreenriverbasin,Wyoming. Science of the Total Environment , 532 :780-790..

GoisKS,AntonioRR,GomesLC,PeliciceFM,AgostinhoAA.2012.Theroleofsubmergedtreesinstructuringfishassemblagesinreservoirs:twocasestudiesinSouthAmerica. Hydrobiologia , 685 (1):109-119..

GutzlerBC,ButlerIVMJ,BehringerDC.2015.Casitas:alocation-dependentecologicaltrapforjuvenilecaribbeanspinylobsters, Panulirus argus . ICES Journal of Marine Science , 72 (S1):i177-i184..

HaaseP,HeringD,JähnigSC,LorenzAW,SundermannA.2013.Theimpactofhydromorphologicalrestorationonriverecologicalstatus:acomparisonoffish,benthicinvertebrates,andmacrophytes. Hydrobiologia , 704 (1):475-488..

HoweJC,WallaceRK,RikardFS.1999.HabitatutilizationbypostlarvalandjuvenilepenaeidshrimpsinMobileBay,Alabama. Estuaries , 22 (4):971-979..

HuangXF,ZhaoF,SongC,GaoY,GengZ,ZhuangP.2017.EffectsofstereoscopicartificialfloatingwetlandsonnektonabundanceandbiomassintheYangtzeestuary. Chemosphere , 183 :510-518..

JacobsAE,HarrisonJA.2014.Effectsoffloatingvegetationondenitrification,nitrogenretention,andgreenhousegasproductioninwetlandmicrocosms. Biogeochemistry , 119 (1-3):51-66..

JohnsonE,AustinBJ,InlanderE,GallipeauC,Evans-WhiteMA,EntrekinS.2015.StreammacroinvertebratecommunitiesacrossagradientofnaturalgasdevelopmentintheFayettevilleshale. Science of the Total Environment , 530 - 531 :323-332..

KnaepkensG,BruyndoncxL,CoeckJ,EensM.2004.SpawninghabitatenhancementintheEuropeanbullhead( Cottus gobio ),anendangeredfreshwaterfishindegradedlowlandrivers. Biodiversity and Conservation , 13 (13):2443-2452..

MathesonFE,SukiasJP.2010.Nitrateremovalprocessesinaconstructedwetlandtreatingdrainagefromdairypasture. Ecological Engineering , 36 (10):1260-1265..

NicolleA,HanssonLA,BronmarkC.2010.Habitatstructureandjuvenilefishontogenyshapezooplanktonspringdynamics. Hydrobiologia , 652 (1):119-125..

PenhaJ,FernandesIM,SúarezYR,LimaSilveiraRM,FlorentinoAC,MateusL.2014.Assessingthepotentialofaprotectedareaforfishconservationinaneotropicalwetland. Biodiversity and Conservation , 23 (13):3185-3198..

PontD,LogezM,CarrelG,RogersC,HaidvoglG.2015.Historicalchangeinfishspeciesdistribution:shiftingreferenceconditionsandglobalwarmingeffects. Aquatic Sciences , 77 (3):441-453..

PutnamLA,GambrellRP,RuschKA.2010.Cbod 5 treatmentusingthemarshlandupwellingsystem. Ecological Engineering , 36 (4):548-559..

RenP,HeH,SongYQ,ChengF,XieSG.2016.ThespatialpatternoflarvalfishassemblagesinthelowerreachoftheYangtzeRiver:potentialinfluencesofriver-lakeconnectivityandtidalintrusion. Hydrobiologia , 766 (1):365-379..

SalmonC,CrabosJL,SambucoJP,BessiereJM,BasseresA,CaumetteP,BaccouJC.1998.Artificialwetlandperformancesinthepurificationefficiencyofhydrocarbonwastewater. Water , Air , and Soil Pollution , 104 (3-4):313-329..

SeoEY,KwonOB,ChoiSI,KimJH,AhnTS.2013.InstallationofanartificialvegetatingislandinoligomesotrophicLakeParo,Korea. The Scientific World Journal , 2013 :1-6..

SmokorowskiKE,PrattTC.2007.Effectofachangeinphysicalstructureandcoveronfishandfishhabitatinfreshwaterecosystems-areviewandmeta-analysis. Environmental Reviews , 15 (NA):15-41..

ThomCSB,LaPeyreMKG,NymanJA.2004.EvaluationofnektonuseandhabitatcharacteristicsofrestoredLouisianamarsh. Ecological Engineering , 23 (2):63-75..

WeinsteinMP,LitvinSY,GuidaVG.2009.Essentialfishhabitatandwetlandrestorationsuccess:atierⅢapproachtothebiochemicalconditionofcommonmummichog Fundulus heteroclitus incommonreed Phragmites australis -andsmoothcordgrass Spartina alterniflora -dominatedsaltmarshes. Estuaries and Coasts , 32 (5):1011-1022..

ZhouY,ShiC,FanX,ShaoW.2015.TheinfluenceofclimatechangeandanthropogenicactivitiesonannualrunoffofHuangfuchuanbasininnorthwestChina. Theoretical and Applied Climatology , 120 (1-2):137-146..

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