Access the full text.
Sign up today, get DeepDyve free for 14 days.
AL Cavenaghi, ED Velini, E Negrisoli, FT Carvalho, MLBT Galo, MLB Trindade, MR Corrêa, SCA Santo (2005)
Monitoring problems with aquatic plants and characterization of water and sediment quality at UHE Mogi-GuaçuPlanta Daninha, 23
DP Vuuren, J Edmonds, M Kainuma, K Riahi, A Thomson, K Hibbard, GC Hurtt, T Kram, V Krey, J-F Lamarque, T Masui, M Meinshausen, N Nakicenovic, SJ Smith, SK Rose (2011)
The representative concentration pathways: an overviewClim Change, 109
DS Viana (2017)
Can aquatic plants keep pace with climate change?Front Plant Sci, 8
M Gillard, G Thiébaut, C Deleu, B Leroy (2017)
Present and future distribution of three aquatic plants taxa across the world: decrease in native and increase in invasive rangesBiol Invasions, 19
HJ Baek, J Lee, HS Lee, YK Hyun, C Cho, WT Kwon, C Marzin, S-Y Gan, M-J Kim, D-H Choi, J Lee, J Lee, K-O Boo, H-S Kang, YH Byun (2013)
Climate change in the 21st century simulated by HadGEM2-AO under representative concentration pathwaysAsia Pac J Atmos Sci, 49
R Heikkinen, N Leikola, S Fronzek, R Lampinen, H Toivonen (2009)
Predicting distribution patterns and recent northward range shift of an invasive aquatic plant: Elodea canadensis in EuropeBioRisk, 2
CD Jones, JK Hughes, N Bellouin, SC Hardiman, GS Jones, J Knight, S Liddicoat, FM O’Connor, RJ Andres, C Bell, K-O Boo, A Bozzo, N Butchart, P Cadule, KD Corbin, M Doutriaux-Boucher, P Friedlingstein, J Gornall, L Gray, PR Halloran (2011)
The HadGEM2-ES implementation of CMIP5 centennial simulationsGeosci Model Dev, 4
I Bianchini, MB Cunha-Santino (2014)
Dynamics of colonization and the collapse of a macrophyte community during the formation of a tropical reservoirFundam Appl Limnol, 184
FE Dierberg, TA Debus, NA Goulet (1987)
Aquatic plants for water treatment and resource recovery
S Kramer-Schadt, J Niedballa, JD Pilgrim, B Schröder, J Lindenborn, V Reinfelder, M Stillfried, I Heckmann, AK Scharf, DM Augeri, SM Cheyne, AJ Hearn (2013)
The importance of correcting for sampling bias in MaxEnt species distribution modelsDivers Distrib, 19
M Cueto, CJM Fuentes-Carretero (2015)
About Marsilea strigosa Willd. and Salvinia natans (L.) All. in Andalusia (Spain). (Sobre Marsilea strigosa Willd. y Salvinia natans (L.) All. en Andalucía (España))Acta Bot Malacit, 40
L Thouvenot, J Haury, G Thiebaut (2013)
A success story: water primroses, aquatic plant pestsAquat Conserv Mar Freshw Ecosyst, 23
DS Mitchell, NM Tur (1975)
The rate of growth of Salvinia molesta (S. auriculata Auct) in laboratory and natural conditionsJ Appl Ecol, 12
A Hussner (2012)
Alien aquatic plant species in European countriesWeed Res, 52
SM Thomaz, LM Bini, MC Souza, KK Kita, AFM Camargo (1999)
Aquatic macrophytes of Itaipu Reservoir, Brazil: survey of species and ecological considerationsBraz Arch Biol Technol, 42
KH Bowmer, SWL Jacobs, GR Sainty (1995)
Identification, biology and management of Elodea canadensis, HydrocharitaceaeJ Aquat Plant Manag, 33
GM Martin, RC Levine (2012)
The influence of dynamic vegetation on the present-day simulation and future projections of the South Asian summer monsoon in the HadGEM2 familyEarth Syst Dyn, 3
GE Crow, DI Rivera, C Charpentier (1987)
Aquatic vascular plants of two Costa Rican pondsSelbyana, 10
O Broennimann, A Guisan (2008)
Predicting current and future biological invasions: both native and invaded ranges matterBiol Lett, 4
NP Hume, MS Fleming, AJ Horne (2002)
Plant carbohydrate limitation on nitrate reduction in wetland microcosmsWater Res, 36
AJ Manzaneda, PJ Rey, JM Bastida, C Weiss-Lehman, E Raskin, T Mitchell-Olds (2012)
Environmental aridity is associated with cytotype segregation and polyploidy occurrence in Brachypodium distachyon (Poaceae)New Phytol, 193
J Yongpisanphop, M Kruatrachue, P Pokethitlyook (2005)
Toxicity and accumulation of lead and chromium in Hydrocotyle umbellataJ Environ Biol, 26
SM Boschilia, SM Thomaz, PA Piana (2006)
Plasticidade morfológica de Salvinia herzogii de La Sota em resposta à densidade populacionalActa Scientiarum Biological Sciences, 28
RG Pearson, TP Dawson (2003)
Predicting the impacts of climate change on the distribution of species: are bioclimate envelope models usefulGlob Ecol Biogeogr, 12
AFM Camargo, FA Esteves (1995)
Influence of water level variation on fertilization oxbow lake of Rio Mogi-Guaçu, State of São Paulo, BrazilHydrobiologia, 299
JD Toft, CA Simenstad, JR Cordell, LF Grimaldo (2003)
The effects of introduced water hyacinth on habitat structure, invertebrate assemblages, and fish dietsEstuaries, 26
J Raizer, MEC Amaral (2001)
Does the structural complexity of aquatic macrophytes explain the diversity of associated spider assemblages?J Arachnol, 29
GM Martin, N Bellouin, WJ Collins, ID Culverwell, PR Halloran, SC Hardiman, TJ Hinton, CD Jones, RE McDonald, AJ McLaren, FM O’Connor, MJ Roberts, JM Rodriguez, S Woodward, MJ Best, ME Brooks, AR Brown, N Butchart, C Dearden, SH Derbyshire, I Dharssi, M Doutriaux-Boucher, JM Edwards, PD Falloon, N Gedney, LJ Gray, HT Hewitt, M Hobson, MR Huddleston, J Hughes, S Ineson, WJ Ingram, PM James, TC Johns, CE Johnson, A Jones, CP Jones, MM Joshi, AB Keen, S Liddicoat, AP Lock, AV Maidens, JC Manners, SF Milton, JGL Rae, JK Ridley, A Sellar, CA Senior, IJ Totterdell, A Verhoef, PL Vidale, A Wiltshire (2011)
The HadGEM2 family of Met Office Unified Model climate configurationsGeosci Model Dev, 4
RD Sooknah, AC Wilkie (2004)
Nutrient removal by floating aquatic macrophytes cultured in anaerobically digested flushed dairy manure wastewaterEcol Eng, 22
C Bellard, B Leroy, W Thuiller, J-F Rysman, F Courchamp (2016)
Major drivers of invasion risks throughout the worldEcosphere, 7
C Liu, PM Berry, TP Dawson, RG Pearson (2005)
Selecting thresholds of occurrence in the prediction of species distributionsEcography, 28
M Agami, KR Reddy (1991)
Interrelationships between Eichhornia crassipes (Mart) Solms and Hydrocotyle umbellata LAquat Bot, 39
B Gopal (1990)
Ecology and management of aquatic vegetation in the Indian subcontinent
RE Drenovsky, BJ Grewell, CM D’antonio, JL Funk, JJ James, N Molinari, IM Parker, CL Richards (2012)
A functional trait perspective on plant invasionAnn Bot, 110
MP Carey, SA Sethi, SJ Larsen, CF Rich (2016)
A primer on potential impacts, management priorities, and future directions for Elodea spp. in high latitude systems: learning from the Alaskan experienceHydrobiologia, 777
S Hadiuzzaman, M Khondker (1993)
Salvinia auriculata Aublet-a new record of aquatic Pteridophyte from BangladeshBangladesh J Bot, 22
JA Swets (1988)
Measuring the accuracy of diagnostic systemsScience, 240
J Alahuhta, J Heino, M Luoto (2011)
Climate change and the future distributions of aquatic macrophytes across boreal catchmentsJ Biogeogr, 38
RJ Hijmans, SE Cameron, JL Parra, PG Jones, A Jarvis (2005)
Very high resolution interpolated climate surfaces for global land areasInt J Climatol, 25
LM Bini, SM Thomaz, KJ Murphy, AFM Camargo (1999)
Aquatic macrophyte distribution in relation to water and sediment conditions in the Itaipu Reservoir, BrazilHydrobiologia, 415
MH Julien, Center TD Tipping (2002)
Reardon Biological control of invasive plants in the eastern United States
GR Walther, E Post, P Convey, A Menzel, C Parmesan, TJC Beebee, JM Fromentin, O Hoegh-Guldberg, F Bairlein (2002)
Ecological responses to recent climate changeNature, 416
J Caesar, E Palin, S Liddicoat, J Lowe, E Burke, A Pardaens, M Sanderson, R Kahana (2013)
Response of the HadGEM2 earth system model to future greenhouse gas emissions pathways to the year 2300J Clim, 26
LH Ziska, K George, DA Frenz (2007)
Establishment and persistence of common ragweed (Amb artemisiifolia L.) in disturbed soil as a function of an urban n-rural macro-environmentGlob Change Biol, 13
DA Simpson (1984)
A short history of the introduction and spread of Elodea Michx in the British IslesWatsonia, 15
AJ Turbelin, BD Malamud, RA Francis (2017)
Mapping the global state of invasive alien species: patterns of invasion and policy responsesGlob Ecol Biogeogr, 26
CC Jacono, TR Davern, TD Center (2001)
The adventive status of Salvinia minima and S molesta in the Southern United States and the related distribution of the weevil Cyrtobagous salviniaeCastanea, 66
J Elith, CH Graham, RP Anderson, M Dudík, S Ferrier, A Guisan (2006)
Novel methods improve prediction of species’ distributions from occurrence dataEcography, 29
ML Henery, G Bowman, P Mráz, UA Treier, E Gex-Fabry, U Schaffner, H Müller-Schärer (2010)
Evidence for a combination of preadapted traits and rapid adaptive change in the invasive plant Centaurea stoebeJ Ecol, 98
OA Fernández, DL Sutton, VH Lallana, MR Sabbatini, FH Irigoyen (1990)
Aquatic weeds The ecology and management of nuisance aquatic vegetation
M Okada, BJ Grewell, M Jasieniuk (2009)
Clonal spread of invasive Ludwigia hexapetala and L. grandiflora in freshwater wetlands of CaliforniaAquat Bot, 91
CJ Cilliers, MP Hill, JA Ogwang, O Ajuonu (2003)
Biological control in IPM systems in Africa
M Meinshausen, SJ Smith, K Calvin, JS Daniel, MLT Kainuma, J-F Lamarque, K Matsumoto, SA Montzka, SCB Raper, K Riahi, A Thomson, GJM Velders, DPP Vuuren (2011)
The RCP greenhouse gas concentrations and their extensions from 1765 to 2300Clim Change, 109
B Leroy, M Paschetta, A Canard, M Bakkenes, M Isaia, F Ysnel (2013)
First assessment of effects of global change on threatened spiders: potential impacts on Dolomedes plantarius (Clerck) and its conservation plansBiol Conserv, 161
R Riefner, A Smith (2009)
Salvinia minima and S. oblongifolia (Salviniaoeae) new to California, with notes on the S. auriculata complexJ Bot Res Inst Tex, 3
FF Coelho, FS Lopes, CF Sperber (2000)
Density-dependent morphological plasticity in Salvinia auriculata aubletAquat Bot, 66
C Bellard, W Thuiller, B Leroy, P Genovesi, M Bakkenes, F Courchamp (2013)
Will climate change promote future invasions?Glob Change Biol, 19
R Kelly, K Leach, A Cameron, AM Christine, N Reid (2014)
Combining global climate and regional landscape models to improve prediction of invasion riskDivers Distrib, 20
A Hussner, I Stiers, MJJM Verhofstad, ES Bakker, BMC Grutters, J Haury, JLCH Valkenburg, G Brundu, J Newman, JS Clayton, LWJ Anderson, D Hofstra (2017)
Management and control methods of invasive alien freshwater aquatic plants: a reviewAquat Bot, 136
M Vila, C Basnou, P Pysek (2009)
How well do we understood the impacts of alien species on ecosystem services? A pan-European, cross-taxa assessmentFront Ecol Environ, 8
A Afrous, S Goudarzi, A Liaghat (2010)
Phytoremediation by some species of aquatic plants for as and Hg removalAzad Univ Dezful Iran J Adv Environ Biol, 5
O Alloche, A Tsoar, R Kadmon (2006)
Assessing the accuracy of species distribution models: prevalence, kappa and the true skill statistic (TSS)J Appl Ecol, 43
A Hussner, PD Champion (2012)
A Handbook of global freshwater invasive species
FJ Rahel, JD Olden (2008)
Assessing the effects of climate change on aquatic invasive speciesConserv Biol, 22
S Bhambie, KR Bhardwaj (1979)
Studies in pteridophytes XVIII use of Salvinia auriculata aublet: an obnoxious weed-in paper industryHydrobiologia, 65
CM Mitas, A Clement (2006)
Recent behavior of the Hadley cell and tropical thermodynamics in climate models and re-analysesGeophys Res Lett, 33
B Lehner, P Döll (2004)
Development and validation of a global database of lakes, reservoirs and wetlandsJ Hydrol, 296
HA Cordo, CJ DeLoach, R Ferrer (1982)
The weevils Lixellus, Tanysphiroideus and Cyrtobagous that feed on Hydrocotyle and Salvinia in ArgentinaColeopterist’s Bull, 36
J Lu, GA Vecchi, T Reichler (2007)
Expansion of the Hadley cell under global warmingGeophys Res Lett, 34
SZ Heneidy, RI Marzouk (2010)
Plant Atlas: the botanic garden (ALEX)
B Gallardo, DC Aldridge (2013)
The ‘dirty dozen’: socio-economic factors amplify the invasion potential of 12 high-risk aquatic invasive species in Great Britain and IrelandJ Appl Ecol, 50
I Bianchini, MB Cunha-Santino (2016)
CH4 and CO2 from decomposition of Salvinia auriculata aublet, a macrophyte with high invasive potentialWetlands, 36
T Escalante, G Rodríguez-Tapia, M Linaje, P Illoldi-Rangel, R González-López (2013)
Identification of areas of endemism from species distribution models: threshold selection and Nearctic mammalsTIP, 16
T Schwoerer, J Morton (2018)
Alaska economic, environmental, and social issues
RS Chen, CC Huang, JC Li, JG Tsay (2008)
First report of Simplicillium lanosoniveum causing brown spot on Salvinia auriculata and S. molesta in TaiwanPlant Dis, 92
PE Hulme (2009)
Trade, transport and trouble: managing invasive species pathways in an era of globalizationJ Appl Ecol, 46
MA Hahn, M Kluenen, H Müller-Schärer (2012)
Increased phenotypic plasticity to climate may have boosted the invasion success of polyploid Centaurea stoebePLoS ONE, 7
SA Hamdy, HM Hefnawy, SM Azzam, EA Aboutabl (2018)
Botanical and genetic characterization of Hydrocotyle umbellata L. cultivated in EgyptBull Fac Pharm Cairo Univ, 56
SJ Phillips, RP Anderson, RE Schapire (2006)
Maximum entropy modeling of species geographic distributionsEcol Model, 190
MP Austin (2002)
Spatial prediction of species distribution: an interface between ecological theory and statistical modellingEcol Model, 157
(2012)
Managing the risks of extreme events and disasters to advance climate change adaptation
JCC Medeiros, FF Coelho, E Teixeira (2016)
Biomass allocation and nutrients balance related to the concentration of nitrogen and phosphorus in Salvinia auriculata (Salviniaceae)Braz J Biol, 76
BJ Grewell, MJS Thomason, CJ Futrell, M Iannucci, RE Drenovsky (2016)
Trait responses of invasive aquatic macrophyte congeners: colonizing diploid outperforms polyploidyAoB PLANTS, 8
LN Hoveka, BS Bezeng, K Yessoufou, JS Boatwright, M Bank (2006)
Effects of climate change on the future distributions of the top five freshwater invasive plants in South Africa South AfricanJ Bot, 102
Aquatic ecosystems are susceptible to human-induced disturbance, including climate changes and biological invasions. The aim of this study was to assess the current and future potential distribution of two introduced aquatic species that have become invasive in some places where they were introduced. Hydrocotyle umbellata L. and Salvinia auriculata Aubl. are free-floating macrophytes native to North, Central, and South America. Both can quickly colonize aquatic environments because of their high growth rate and reproductive capacity similar to water hyacinth. Both species were introduced to Egypt for ornamental purposes. We have applied species distribution models using the Maxent approach and bioclimatic variables. Occurrence records from the entire range of the two species were obtained from the Global Biodiversity Information Facility and used for modelling their habitat suitability and assessing the potentiality of their spread in other new habitats. To project future changes in the two macrophytes’ distributions with respect to climate change, we used four representative concentration pathway scenarios (RCP 2.6, 4.5, 6.0 and 8.5) of the IPCC 5th assessment, based on different assumptions of greenhouse gas emissions for the future period of 2050s. The results showed that Maxent approach has successfully predicted the distribution of the two species with test AUC > 0.92. Bioclimatic variables that contributed the most to the prediction of the two species distribution included isothermality, temperature seasonality, mean temperature of the coldest quarter, and minimum temperature of the coldest month. Results showed that the range of S. auriculata is predicted to increase by 2050 under all climatic scenarios. A decline in the current climatically suitable habitats of H. umbellata is projected to occur in its native range, especially in South America, while it is predicted to gain more suitable habitats out of its native range in Europe and Africa. Both species are predicted to gain habitats outside their native range, while their ranges are expected to face a decline in their native region. The study can help in the identification of areas with high potential vulnerability to future invasions by the two studied aquatic macrophytes and thus can assist in prioritization of monitoring actions and management plans. This can reduce any ecological and socio-economic consequences due to invasion by these two aquatic plants.
Aquatic Ecology – Springer Journals
Published: Jun 26, 2019
Read and print from thousands of top scholarly journals.
Already have an account? Log in
Bookmark this article. You can see your Bookmarks on your DeepDyve Library.
To save an article, log in first, or sign up for a DeepDyve account if you don’t already have one.
Copy and paste the desired citation format or use the link below to download a file formatted for EndNote
Access the full text.
Sign up today, get DeepDyve free for 14 days.
All DeepDyve websites use cookies to improve your online experience. They were placed on your computer when you launched this website. You can change your cookie settings through your browser.