The mutual ecogeographical range and paleoclimatic reconstruction during the Late Pleistocene-Holocene in the Pampas (Argentina) using meso and microvertebrate fossils
Restricted accessResearch articleFirst published online June, 2021
The mutual ecogeographical range and paleoclimatic reconstruction during the Late Pleistocene-Holocene in the Pampas (Argentina) using meso and microvertebrate fossils
The Pampas of Argentina is a large grassland ecosystem located in the oriental region southern of South America. As a study case, we present the results of the paleoclimatic analysis of the Tixi Cave site. This is a paleontological and archeological locality that shows a long chronologic sequence, with radiocarbon dates ranging from the Late Pleistocene to historical times, and one of the best records of meso and microvertebrate fossils in South America. Paleoclimatic reconstruction was assayed using the Mutual Ecogeographic Range method. Ecological niche models were made for each of the living representatives of the fossil taxa reported at the site. Potential distribution areas were superimposed to perform the paleoclimatic inference and to infer the annual average temperature and the annual average precipitation. During the Pleistocene-Holocene transition (12,287 ± 212–11,609 ± 218 ca BP) and in the Middle-Holocene (5592 ± 79 ca BP), colder and drier climates appear in comparison to the present climate, the remaining of the Holocene (3496 ± 81–160 ± 120 ca BP) shows warmer and humid climates as compared to today’s climate conditions. Our results are in agreement with the paleoenvironmental inferences obtained by other proxies, such as deposition, paleosols, phytoliths, diatoms, ostracods, and pollen for Late Pleistocene -Holocene of the region, showing that the abundance of small mammals can accurately record the climatic fluctuations of the Late Pleistocene-Holocene in the Pampas of Argentina.
AlbinoAM (1999) Serpientes del sitio arqueológico Cueva Tixi (Pleistoceno tardío-Holoceno), provincia de Buenos Aires, Argentina. Ameghiniana36: 269–273.
2.
AliagaVSFerrelliFAlberdi-AlgañarazED, et al. (2016) Distribución y variabilidad de la precipitación en la Región Pampeana, Argentina. Cuadernos de Investigación Geográfica42: 261–280.
3.
BlainH-ABailosSCuenca-BescósG, et al. (2009) Long-term climate record inferred from early-middle Pleistocene amphibian and squamate reptile assemblages at the Gran Dolina Cave, Atapuerca, Spain. Journal of Human Evolution56: 55–65.
4.
BlainH-ACruz-SilvaJAJiménez-ArenasJM, et al. (2018) Towards a Middle Pleistocene terrestrial climate reconstruction based on herpetofaunal assemblages from the Iberian Peninsula: State of the art and perspectives. Quaternary Science Reviews191: 167–188.
5.
BlainH-AFagoagaARuíz-SánchezFJ, et al. (2019) Latest Villafranchian climate and landscape reconstructions at Pirro Nord (southern Italy). Geology47: 829–832.
6.
BlainH-ALozano-FernándezIAgustíJ, et al. (2016) Refining upon the climatic background of the Early Pleistocene hominid settlement in western Europe: Barranco León and Fuente Nueva-3 (Guadix-Baza basin, SE Spain). Quaternary Science Reviews144: 132–144.
7.
BlasiAPolitisGBayónC (2013) Palaeoenvironmental reconstruction of La Olla, a Holocene archaeological site in the Pampean coast (Argentina). Journal of Archaeological Science40: 1554–1567.
8.
BornholdtRHelgenKKoepfliK-P, et al. (2013) Taxonomic revision of the genus Galictis (Carnivora: Mustelidae): Species delimitation, morphological diagnosis, and refined mapping of geographical distribution. Zoological Journal of the Linnean Society167: 449–472.
9.
BreaMMazzantiDMartínezGA (2020) Xerophytic forest record of the Plesitocene/Holocene transition and use of wood resources by early human groups in the Eastern Tandilia Range, Argentina. PaleoAmerica6: 234–249.
10.
CavallottoJLViolanteRAColomboF (2005) Evolución y cambios ambientales de la llanura costera de la cabecera del río de la Plata. Revista de la Asociación Geológica Argentina60: 353–367.
11.
ColobigMM (2014) Contexto paleoambiental durante el Pleistoceno tardío/Holoceno tardío de la Localidad Arqueológica Loberia I (borde oriental de las sierras de Tandilia, Buenos Aires, Argentina): el aporte de los indicadores biosilíceos. Intersecciones en Antropología15: 293–305.
12.
ColobigMMZucolAFMazzantiDL, et al. (2016) Registros biosilíceos en sitios arqueológicos de las sierras de Tandilia Oriental, Argentina (Pleistoceno tardío-Holoceno tardío): Consideraciones paleoambientales. Revista del Museo Argentino de Ciencias Naturales, n.s. 18: 39–52.
13.
CrisciJFreireBSSnachoG, et al. (2001) Historical biogeography of the Asteraceae from Tandilia and Ventania mountain ranges (Buenos Aires, Argentina). Caldasia23: 21–41.
14.
CruzJAArroyo-CabralesJReynosoVH (2016) Reconstructing the paleoenvironment of Loltún Cave, Yucatán, México, with Pleistocene amphibians and reptiles and their paleobiogeographic implications. Revista Mexicana de Ciencias Geológicas33: 342–354.
15.
CruzJAAlarcón-DIFigueroa-CastroDM, et al. (2021) Fossil pigmy rattlesnake inside the mandible of an American mastodon and use of fossil reptiles for the paleoclimatic reconstruction of a Pleistocene locality in Puebla, Mexico. Quaternary International574: 116–126.
16.
da SilvaVXRodriguesMT (2008) Taxonomic revisión of the Bothrops neuwiedi complex (Serpentes, Viperidae) with description of a new species. Phyllomedusa7: 45–90.
17.
DanzeglockeUJörisOWeningerB (2007) Cologne radiocarbon calibration & paleoclimatic research package, CalPal. Available at: www.calpal-online.de (accessed 21 January 2020).
18.
D’EliaGPardiñasUFJ (2004) Systematics of Argentinean, Paraguayan and Uruguayan swamp rats of the genus Scapteromys (Rodentia, Cricetidae, Sigmodontinae). Journal of Mammalogy85: 897–910.
19.
DíazRAMormeneoI (2016) Zonificación del clima de la Región Pampeana mediante análisis de conglomerados por consenso. Revista Argentina de Agrometereología2: 125–131.
20.
DunnumJLSalazar-BravoJ (2009) Molecular systematics, taxonomy and biogeography of the genus Cavia (Rodentia: Caviidae). Journal of Zoological Systematics and Evolutionary Research48: 376–388.
21.
EronenJTPollyPDFredM, et al (2010) Ecometrics: The traits that bind the past and present together. Integrative Zoology5: 88–101.
22.
FagoagaABlainH-AMaquina-BlascoR, et al. (2019) Improving the accuracy of small vertebrate-based palaeoclimatic reconstructions derived from the Mutual Ecogeographic Range. A case study using geographic information systems and UDA-ODA discrimination methodology. Quaternary Science Reviews223: 105969.
23.
FaithJTLymanRL (2019) Paleozoology and Paleoenvironments: Fundamentals, Assumptions, Techniques. Cambridge: Cambridge University Press. DOI: 10.1017/9781108648608.
24.
FarjonAHorneDJParfittSA, et al. (2020) Early Pleistocene conifer macrofossils from Happisburgh, Norfolk, UK, and their environmental implications for early hominin occupation. Quaternary Science Reviews232: 106115.
25.
Fernández-GarcíaMLópez-GarcíaJMLorenzoC (2016) Palaeoecological implications of rodents as proxies for the Late Pleistocene-Holocene environmental and climatic changes in northeastern Iberia. Comptes Rendus Palevol15: 707–719.
26.
Fernández-GarcíaMLópez-GarcíaJMRoyerA, et al. (2020) Combined palaeoecological methods using small-mammal assemblages to decipher environmental context of a long-term Neanderthal settlement in northeastern Iberia. Quaternary Science Review228: 106072.
27.
FitzgeraldLACookJAAquinoAL (1999) Molecular phylogenetics and conservation of Tupinambis (Sauria: Teiidae). Copeia1999: 894–905.
28.
FormosoAEMartinGMTetaP, et al. (2015) Regional extinctions and quaternary shifts in the geographic range of Lestodelphys halli, the southernmost living marsupial: Clues for its conservation. PloS One10: e0132130.
Hernándcz-HernándezMJCruzJACastañeda-PosadasC (2020) Paleoclimatic and vegetation reconstruction of the miocene southern Mexico using fossil flowers. Journal of South American Earth Sciences104: 102827.
32.
IriondoMHGarcíaNO (1993) Climatic varitation in the Argentine plains during the last 18,000 years. Palaeogeography, Palaeoclimatology, Palaeoecology101: 209–220.
33.
LanariLCRossetSGonzálezME, et al. (2010) A study of the venom of Bothrops alternatus Duméril, Bibron and Duméril, from different regions of Argentina. Toxicon55: 1415–1424.
34.
LoboJMMartínez-SolanoISanchizB (2016) A review of the paleoclimatic inference potential of Iberian Quaternary fossil batrachians. Palaeodiversity and Palaeoenvironments96: 125–148.
35.
López-GarcíaJMBlainH-ACuenca-BescósG, et al. (2010) Palaeoenvironmental and palaeoclimatic reconstruction of the Latest Pleistocene of El Portalón Site, Sierra de Atapuerca, northwestern Spain. Palaeogeography, Palaeoclimatology, Palaeoecology292: 453–464.
36.
LunaLArandaCQuintanaC (2017) Middle and late-holocene micromammal pathologies from Cueva Tixi (Tandilia Range, Buenos Aires Province, Argentina). International Journal of Paleopathology18: 82–91.
37.
LymanRL (2017) Paleoenvironmental reconstruction from faunal remains: Ecological basics and analytical assumptions. Journal of Archaeological Research25: 315–371.
38.
MartínezGAMazzantiDLQuintanaC, et al. (2013) Geoarchaeological and paleoenvironmental context of the human settlement in the Eastern Tandilia Range, Argentina. Quaternary International299: 23–37.
39.
MartínezGAOsterriethM (2001) Estratigrafía, procesos formadores y paleoambientes. In: MazzantiDLQuintanaC (eds) Cueva Tixi: Cazadores y recolectores de las Sierras de Tandilia Oriental. 1. Geología, Paleontología y Zooarqueología. Deán Funes: Laboratorio de Arqueología, Facultad de Humanidades, Universidad Nacional de Mar del Plata, pp.19–34.
40.
MazzantiDL (1997) Excavaciones arqueológicas en el sitio Cueva Tixi, Buenos Aires, Argentina. Latin American Antiquity8: 55–62.
41.
MazzantiDLQuintanaC (1997) Asociación cultural con fauna extinguida en el sitio arqueológico Cueva Tixi, provincia de Buenos Aires, Argentina. Revista Española de Antropología Americana27: 11–21.
42.
MazzantiDLQuintanaC (2001) Cueva Tixi: Cazadores y recolectores de las Sierras de Tandilia Oriental. 1. Geología, Paleontología y Zooarqueología. Mar del Plata: Laboratorio de Arqueología, Facultad de Humanidades, Universidad Nacional de Mar del Plata.
43.
MazzantiDLQuintanaCA (2002) Replica a: “micromamíferos y paleoambientes del holoceno en el sudeste de la provincia de Buenos Aires (Argentina): el caso de Cueva Tixi”. Laboratorio de Arqueología – UNMDP Publicación Especial2: 1–10.
44.
PardiñasUFJ (2000) Micromamíferos y paleoambientes del Holoceno en el sudeste de la provincia de Buenos Aires (Argentina): el caso de Cueva Tixi. Revista Cuaternario y Ciencias Ambientales1: 31–36.
45.
PardiñasUFJ (2009) El género Akodon (Rodentia: Cricetidae) en Patagonia: Estado actual de su conocimiento. Mastozoología Neotropical16: 135–152.
46.
PardiñasUFJAbbaAMMerinoML (2004) Micromamíferos (Didelphimorphia y Rodentia) del sudoeste de la Provincia de Buenos Aires (Argentina): Taxonomía y distribución. Mastozoología Neotropical11: 211–232.
PardiñasUFJTetaP (2007) Micromamíferos del sector oriental de la Altiplanicie del Somuncurá (Río Negro, Argentina). Mastozoología Neotropical14: 271–278.
49.
PhillipsSJAndersonRPDudikM, et al. (2017) Opening the black box: An open-source release of Maxent. Ecography40: 887–893.
50.
PhillipsSJAndersonRPSchapireRE (2006) Maximum entropy modelling of species geographic distributions. Ecological Modelling190: 231–259.
51.
PisanoMFFucksEE (2016) Quaternary mollusc assemblages from the lower basin of Salado River, Buenos Aires Province: Their use as paleoenvironmental indicators. Quaternary International391: 100–111.
52.
PolitisGGMessineoPGStaffordTWJr, et al. (2019) Campo Laborde: A Late Pleistocene giant ground sloth kill and butchering site in the Pampas. Science Advances5: eaau4546.
53.
PollyPDEronenJT (2011) Mammal associations in the Pleistocene of Britain: Implication of Ecological Niche Modelling and a method for reconstructing palaeoclimate. In: AshtonNLewisSStringerC (eds) The Ancient Human Occupation of Britain. London: Elsevier Science, pp.279–304.
54.
PollyDAEronenJTFredM, et al. (2011) History matters: Ecometrics and integrative climate change biology. Proceedings of the Royal Society B: Biological Sciences278: 1131–1140.
55.
Poo-MuñozDAEscobarLEPetersonAT, et al. (2014) Galictis cuja (Mammalia): An update of current knowledge and geographic distribution. Iheringia, Série Zoologia104: 341–346.
56.
PradoJLMartinez-MazaCAlberdiMT (2015) Megafauna extinction in South America: A new chronology for the Argentine Pampas. Palaeogeography, Palaeoclimatology, Palaeoecology425: 41–49.
57.
PrietoAR (2000) Vegetational history of the Late Glacial-Holocene transition in the grasslands of eastern Argentina. Palaeogeography, Palaeoclimatology, Palaeoecology157: 167–188.
58.
QuattrocchioMEBorromeiAM (1998) Paleovegetational and paleoclimatic changes during the Late Quaternary in southwestern Buenos Aires Province and Southern Tierra del Fuego (Argentina). Palynology22: 67–82.
59.
QuattrocchioMEBorromeiAMDeschampsCM, et al. (2008) Landscape evolution and climate changes in the Late Pleistocene-Holocene, southern Pampa (Argentina): Evidence from palynology, mammals and sedimentology. Quaternary International181: 123–138.
60.
QuintanaC (2001) Galea (Rodentia, Caviidae) del Pleistoceno Superior y Holoceno de las sierras de Tandilia oriental, provincia de Buenos Aires, Argentina. Ameghiniana38: 399–407.
61.
QuintanaC (2004) Acumulaciones de restos óseos en reparos rocosos de las sierras de Tandilia Oriental, Argentina. Estudios Geológicos60: 37–47.
62.
QuintanaC (2016) Tafonomía de los microvertebrados del sitio arqueológico Cueva Tixi (Pleistoceno tardío-Holoceno tardío), Tandilia Oriental (Provincia de Buenos Aires, Argentina). Publicación Electrónica de la Asociación Paleontológica Argentina16: 14–51.
63.
QuintanaCMazzantiD (2011) Las vizcachas pampeanas (Lagostomus maximus, Rodentia) en la subsistencia indígena del Holoceno tardío de las sierras de Tandilia Oriental (Argentina). Latin American Antiquity22: 253–270.
64.
QuintanaCValverdeFMazzantiD (2002) Roedores y lagartos como emergentes de la diversificación de la subsistencia durante el Holoceno tardío en sierras de la región Pampeana Argentina. Latin American Antiquity13: 455–473.
65.
SmithRMPollyPD (2013) A reevaluation of the Harrodsburg Crevice fauna (Late Pleistocene of Indiana, U.S.A.) and the climatic implications of its mammals. Journal of Vertebrate Paleontology33: 410–420.
66.
SteffanPGAguirreMLMiquelSE (2014) Malacofauna continental Holocena (Región Pampeana, Argentina). Revista Brasileira de Paleontologia17: 225–248.
67.
StoesselLBoganSMartínezG, et al. (2008) Implicaciones paleoambientales de la presencia del género Ceratophrys (Anura, Ceratophryinae) en contextos arqueológicos de la transición Pampeano-Patagónica en el Holoceno tardío (Curso inferior del Río Colorado, Argentina). Magallania36: 195–203.
68.
StutzSBorelCMFontanaSL, et al. (2010) Late-Holocene climate and environment of the SE Pampa grasslands, Argentina, inferred from biological indicators in shallow, freshwater Lake Nahuel Rucá. Journal of Paleolimnology44: 761–775.
69.
TetaPCampoDH (2017) Is Galea tixiensis Quintana, 2001 a synonym of G. leucoblephara Burmeister, 1861?Therya8: 209–216.
70.
TonelloMSPrietoAR (2010) Tendencias climáticas de los pastizales pampeanos durante el Pleistoceno tardío-Holoceno: Estimaciones cuantitativas basadas en secuencias polínicas fósiles. Ameghiniana47: 501–514.
71.
TonniEP (1985) Mamíferos del Holoceno del Partido de Lobería, provincia de Buenos Aires. Aspectos paleoambientales y bioestratigráficos del Holoceno del sector oriental de Tandilia y área Interserrana. Ameghiniana22: 283–288.
72.
TonniEPBargoMSPradoJL (1988) Los cambios ambientales en el Pleistoceno tardío y Holoceno del sureste de la Provincia de Buenos Aires a través de una secuencia de mamíferos. Ameghiniana25: 99–110.
73.
VilanovaIPrietoARStutzS, et al. (2010) Holocene vegetation changes along the southeastern coast of the Argentinean Pampa grasslands in relation to sea-level fluctuations and climatic variability: Palynological analysis of alluvial sequences from Arroyo Claromecó. Palaeogeography, Palaeoclimatology, Palaeoecology298: 210–223.
74.
VillaABlainH-Avan den Hoek OstendeLW, et al. (2018) Fossil amphibians and reptiles from Tegelen (Province of Limburg) and the early Pleistocene palaeoclimate of The Netherlands. Quaternary Science Reviews187: 203–219.
75.
ZamoranoMScillato-YanéGJ (2008) Registro de Dasypus (Dasypus) novemcinctus (Mammalia, Dasypodidae) en el sudoeste de la Provincia de Buenos Aires, Argentina. BioScriba1: 17–26.
