Ágata Dias has a PhD in Geology (specialisation in Mineralogy, Crystallography and Metallogeny) and a MSc in Dynamic Geology. Her scientific interests are mineralogy, petrology, geochemistry and marine geology (deep-sea hydrothermal systems and ore deposits). Since 1996 has been involved in scientific projects related with the deep-sea exploration and with mineralogy, geochemistry and ore-forming minerals. Since she integrated the ISE has been also working in environmental projects.Along her research activities, she has been collaborating with different universities and research institutions around the world, such as IFREMER, Brest, France; ETH, Zurich, Switzerland; NOC, Southampton, UK; University of Bergen, Norway; FCUL, Lisbon, Portugal; GIGCAS, Guangzhou, SIO and SIO of the State Oceanic Administration (SOA), China and participated in several scientific cruises. She has more than20 years of academic experience. Until join ISE-USJ, in 2011, was assistant and auxiliar professor at ULHT and invited auxiliar professor at FCUL, both in Portugal.
2012 Post-doc on the seafloor hydrothermal systems and associated ore deposits in the Portuguese EEZ and adjacent areas. CREMINER/LARSyS Laboratory of Robotics and Systems in Science and Engineering. FCT: SFRH/BPD/68648/2010
2010 Post-doc on the geochemistry and mineralogy of new Arctic deep sea Hydrothermal system. - Ultra-slow spreading and hydrogen-based deep biosphere Jan Myen and Loky’s Castle hydrothermal fields. H2deep project/ EUROCORES Program – EuroMARC - European Science Foundation (ESF) No. ERAS-CT-2003-980409 of the European Commission: EUROMARC/0001/2007/ H2DEEP
More info here: http://ise.usj.edu.mo/people/agata-alveirinho-dias
RECENT RESEARCH PROJECTS:
SeaMin – InSituMin projectIn-situ trace elemental and isotopic constraints on modern seafloor massive sulfide mineralization – 现代海底块状硫化物成矿作用的原位微量元素和同位素限制 FDCT File No.: 0041/2021/A1, 2021-2024 (Principal Investigator)
SWIMAR – The role of ultramafic-hosted hydrothermal systems in the formation of seafloor deposits: comparison between SWIR and MAR fields/超基性岩系海底熱泉系統於海床熱液礦床扮演之角色:以 SWIR 及 MAR 熱泉系統相互比較為例. FDCT File No.: 002/2018/A1, 2018-2021 (Principal Investigator)
SMSMOR – Seafloor Massive Sulfides Resource along Mid-Ocean Ridges. InterRidge Working Group. (team member)
Mag.I.C. – Petrology and Geochemistry of Igneous Rocks from Macao: Implications for the Crustal Evolution of Southern China. FDCT File No.: 043/2014/A1, 2015-2018.
BLUE MINING – Breakthrough Solutions for the Sustainable Exploration and Extraction of Deep Sea Mineral Resources. FP7 (7th research framework programme), EU Research Projects. Proj. ref.: 604500, 2014-2018
Ding T, Wang J, Tao C, Dias Á A, Liang J, Wang Y, Chen J, Wu B, Huang H. (2021) Trace-element compositions of sulfides from inactive Tianzuo hydrothermal field, Southwest Indian Ridge: implications for ultramafic rocks hosting mineralization. Ore Geology Reviews, 104421: https://www.sciencedirect.com/science/article/pii/S0169136821004479
Yu J,Tao C, Liaob S, Dias Á A, Liang J,Yangb W, Zhud C (2021) Resource estimation of the sulfide-rich deposits of the Yuhuang-1 hydrothermal field on the ultraslow-spreading Southwest Indian Ridge. Ore Geology Reviews, 104169 : https://doi.org/10.1016/j.oregeorev.2021.104169
Quelhas, P, Borgens. R, Dias, A. Á, Ribeiro, L, Costa, P Mata, J. (2021) Geological Map of the Macao Special Administrative Region (China). (2021) Journal of Maps, 17 (2)257-267. https://doi.org/10.1080/17445647.2021.1906340
Quelhas, P, Mata J and Dias, A Á (2021) Magmatic evolution of garnet-bearing highly fractionated granitic rocks from Macao, Southeast China: Implications for granite-related mineralization processes. Journal of Earth Sciences. JES-07-2020-0330. https://doi.org/10.1007/s12583-020-1389-4
Quelhas P, Mata J, Dias Á A (2021) Evidences for mixed contribution of mantle, lower and upper crust to the genesis of Jurassic I~type granites from Macao, SE China. GSA Bulletin. 133 (1-2): 37–56.. https://doi.org/10.1130/B35552.1
Ding T, Tao C, Dias Á A. et al. (2020) Sulfur isotopic compositions of sulfides along the Southwest Indian Ridge: implications for sulfide mineralization in ultramafic rocks. Mineralium Deposita. https://doi.org/10.1007/s00126-020-01025-0
Milinovic J, Dias Á A, Janeiro A. Pereira M. Martins S, Petersen, SIM and Barriga F J A SIM (2020) XRD identification of ore minerals during cruises: Refinement of extraction procedure with sodium acetate buffer. Minerals. 10(2), 160. 1-19 https://doi.org/10.3390/min10020160
Quelhas, P., Dias, A. Á, Mata, J., Don, D., Ribeiro, L. (2020) High-precision geochronology of Mesozoic magmatism in Macao, Southeast China: evidence for multistage granite emplacement. Geoscience Frontiers. 11, 1. 243-263 https://doi.org/10.1016/j.gsf.2019.04.011
Dias Á A, Qiu W, Barriga FJAS & Tao C (2020) Sub-Seafloor Sulfide Mineralization in the Saldanha Hydrothermal Field, Mid-Atlantic Ridge (MAR). Goldschmidt2020
Qiu W, Dias ÁA, Costa IMA & Barriga F (2020) Ore-Forming Process of the Menez Gwen Hydrothermal Field: In situ S Isotopes and Trace Metals Constraints Goldschmidt2020
Costa P & Dias Á A (2020) Oxyhydroxide Hydrothermal Crusts from Saldanha Hydrothermal Field Goldschmidt2020
Liao S, Tao C, Dias Á A, Su X, Yang Z, Ni, Liang J, Yang W, Liu J, Li W, Dong C (2019) Surface sediment composition and distribution of hydrothermal derived elements at the Duanqiao-1 hydrothermal field, Southwest Indian Ridge. Marine Geology. https://doi.org/10.1016/j.margeo.2019.105975
Quelhas, P., Dias, A. Á, Mata, J., Don, D., Ribeiro, L. (2019) High-precision geochronology of Mesozoic magmatism in Macao, Southeast China: evidence for multistage granite emplacement. Geoscience Frontiers. https://doi.org/10.1016/j.gsf.2019.04.011
Costa P and Dias Á A. (2019) Hydrothermal Fe-Mn deposits from low-temperature systems of the Mid-Atlantic Ridge. InterRidge Workshop on Hydrothermal Ore-forming Processes, Hangzhou.
Qiu W, Dias Á A, Barriga F, Tao C (2019) Sulfide mineralization of the Saldanha hydrothermal field (MAR): constraints from sulfur isotope in-situ microanalysis. InterRidge Workshop on Hydrothermal Ore-forming Processes, Hangzhou.
Dias Á A, Costa P. Marques AF, Ribeiro L, Madureira P, Calado A, Gonçalves E & Morato T (2019) Geochemistry of Fe-Si-(Mn) Chimneys from Luso Vent Field, MAR. Goldschmidt 2019. 10i, 445. Barcelona. https://goldschmidt.info/2019/abstracts/abstractView?id=2019003072
Quelhas P, Dias Á A, Mata J & Wayne Davis D (2019) Geochronological, geochemical and petrographic constraints on incremental pluton growth: the case of Macao granitic suite. Goldschmidt 2019. 06g, 258. Barcelona. https://goldschmidt.info/2019/abstracts/abstractView?id=2019004459
Quelhas, P., Mata, J., Lou, U. T., Ribeiro, M. L., Borges, R., Dias, Á A (2018). A origem e evolução dos magmas graníticos de Macao à luz de dados de geoquímica elementar e isotópica / Source and evolution of Macao granitic magmas: insights from wholerock geochemistry and isotopic signatures. XIV Congresso de Geoquímica dos Países de Língua Portuguesa e XIX Semana de Geoquímica (XIV CGPLP/XIX SG, international conference). 25-29 March 2018, Trás-os-Montes e Alto Douro, Portugal.
Milinovic J, Barriga F, Dias Á A, Martins S, Pereira M & Janeiro A (2017) Offshore Assessment of Minerals in Deep-Sea Sediments from the TAG-Area (26°N, 44°W). Goldschmidt2017. Paris.
Quelhas, P., Mata, J., Lou, U. T., Ribeiro, M. L., Borges, R., Dias Á. (2017) New Geochemical Constraints on I-Type Granites of Macao: Petrogenesis and Geodynamic Implications. 27th Goldschmidt Conference. 2126, 06d 13-18, August 2017. Paris, France
Quelhas P M, Mata J, Lou U T, Ribeiro M R and Dias Á (2016) Mesozoic Granitic Magmatism in Macao, Southeast China. AGU Fall meeting 12-16 December 2016, San Francisco
Dias Á, Quelhas P, Lou U, Mata J & Ribeiro M L (2016) Petrology and Geochemistry of Granitic Rocks from Macao. Goldschmidt2016. 61, 05c – 665. Yokohama, Japan. July.
Dias, Á S and Barriga, F (2015) Saldanha hydrothermal field: the role of the sediment-cover in the preservation of ore-forming minerals. Third InterRidge Theoretical Institute: Magmatic and Tectonic Processes and Seabed Resources at Mid-Ocean Ridges. T2-09.
Cruz M I, Marques F A M, Dias Á S, Pedersen R, Barriga F J A S (2014) Sr and Nd isotopic composition of Jan Mayen and Loki’s Castle: a progress report. 43rd Underwater Mining Institute · 21-28 September 2014
Cruz MI, Marques F, Dias Á S et al (2013) Sulfide Sites in the Arctic Ocean: Jan Mayen and Loki’s Castle. Goldschmidt. Florence. Italy
Cruz M I, Dias A S etal (2013) Sulphide mineralization in Arctic seafloor hydrothermal fields: extending the European exploration area to the Far North. ERA-MIN, March, Carcavelos, Portugal
Relvas J, Barriga F, Costa I, Cruz I, Dias Á, Marques F, Pinto A (2012). Massive Sulfide Mineralization in Relic and Modern Seafloor. Ophiolite and Related Ore and Industrial Minerals, Karadeniz Technical Univ.,Turkey.
Dias, Á S et al (2011) Geochemistry and stable isotopes constraints on high-temperature activity from sediment cores of the Saldanha field. Marine Geology 279 (2011) 128–140.
Dias, Á S et al (2010). Tracing fluid-rock reaction and hydrothermal circulation at the Saldanha hydrothermal field. Chemical Geology, 273(3-4): 168-179.
Dias, Á S (2008) Geochemistry of a sediment push-core from the Lucky Strike hydrothermal feld, Mid-Atlantic Ridge. Chemical Geology, 247(3-4): 339-351
Dias Á S and Barriga F. (2006) Mineralogy and geochemistry of hydrothermal sediments from the serpentinite-hosted Saldanha hydrothermal field (36°34′N; 33°26′W) at MAR. Marine Geology. 225, 157–175
Dias Á S and Barriga, F J A S, (2005). Mineralogical and geochemical hydrothermal evidences on sediments from the serpentinite-hosted Saldanha hydrothermal field. Mineral Deposit Research. 1: 603-606
Miranda J M, Silva P F, Lourenço N, Henry B, Costa R and Saldanha Team (Dias, Á S included) (2003) Study of the Saldanha massif (MAR, 36º34´N): Constrains from rock magnetic and geophysical data. Marine Geophysical Researches 23: 299–318
Cruz M I, Dias Á S, Relvas J M R S, Carvalho C, Fonseca R, Pedersen R.B, Barriga F J A S (2011) Geochemistry of the Artic Loki’s Castle hydrothermal vent products, Mineralogical Magazine Goldschmidt Conference, p 708
Dias Á S, Cruz I, Fonseca R, Barriga F J A S, Pedersen, R B (2011) Trollveggen Vent Field: Mineralogy and geochemistry of chimneys and deposits, and evidence of hydrothermal activity in far-field cores. Final EuroMARC conference
Cruz M I, Dias Á S, Carvalho C, Barriga F J A S, Relvas J M R S, Fonseca R, Pedersen R (2011) Loki's Castle Arctic Vents and Host Sediments: Mineralogy and Geochemistry, Final EuroMarc Conference
Dias Á S et al (2010) Mineralogy and Geochemistry from Trollveggen Vent Field Chimneys and Metalliferous Sediments (Mohns Ridge, West Jan Mayen Fracture Zone at 71°N).Eos, Transactions, American Geophysical Union, AGU's online supplement
Barriga F, Fonseca R, Dias Á S, Cruz I, Carvalho C, Relvas J, Pedersen R B (2010) Acid-Extractable Geochemistry from the Loki's Castle Hydrothermal Field, Norwegian Sea at 74º N (South Knipovich Ridge).Eos, Transactions, AGU's online supplement
Barriga FJAS, Carvalho C, Cruz MI, Dias Á S, et alR (2010) Preliminary Results on Mineralogy and Geochemistry of Loki's Castle Arctic Vents and Host Sediments. Geophysical Research Abstracts Vol 12, EGU2010-11970, European Geosciences Union (EGU)
Barriga F J A S, Carvalho C, Cruz I M, Dias Á S, Fonseca R, Relvas J M, Pedersen R B (2010) Mineralogy and geochemistry of Loki’s Castle Arctic vents and host sediments: preliminary results. European Geosciences Union (EGU). Vienna, Austria.
Dias Á S, Fruh-Green GL, et al (2006) High Temperature Hydrothermal Components in the Sediment Cover of the Saldanha Hydrothermal Field. Eos, Transactions, American Geophysical Union, AGU OS21B: 1591. AGU's online supplement
Barriga FJAS, Dias Á S, Mills RA, et al (2006) Pb and Nd Isotope Variations and Elemental Geochemistry in Hydrothermal Sediments in a Push Core from Lucky Strike, 37ºN Mid-Atlantic Ridge. Eos Transactions, AGU. 1590. AGU's online supplement
Dias Á S, Jorge R and Barriga F (2005) Low temperature hydrothermal Manganese crust from Saldanha field, Mid-Atlantic Ridge, International MoMar Implementation Workshop, 29.
Dzhatieva Z, Sinha M, Santos F, Silva N, Dias Á S, et al (2005) On preliminary results of the active electromagnetic survey of Saldanha hydrothermal venting field, MAR. International MoMar Implementation Workshop, 33
Sinha M C, Santos F, Dzhatieva Z, Dias Á S, et al (2005), Saldanha Massif, Mid-Atlantic Ridge: A Controlled Source EM Study. Eos, Transactions. AGU, 86(52), OS33A-1464
Sinha M, Dzhatieva Z, Santos F, Silva N, Dias Á S, et al (2005) Active electromagnetic survey of hydrothermal venting area at Saldanha Massif, Mid-Atlantic Ridge. Geophysical Research 7, EGU05-A-07706
Dias Á S, Barriga F, Fouquet Y (2002) Hydrothermal sediments from Saldanha Mount (MAR, FAMOUS/AMAR). Theoretical Institute, Thermal Regime of Ocean Ridges and Dynamics of Hydrothermal Circulation, Pavia, IRTI, InterRidge, Abst 41
Barriga F J A S, Dias Á S, et al (2002) Replacement processes in volcanogenic massive sulfide deposits; the key to giant orebodies. Geological Society of America 34(6):444
Barriga F J A S, Fouquet Y, Almeida A, Biscoito M, Charlou J-L, Costa R, Dias Á S, et al (1999) Preliminary results of the Saldanha mission (FAMOUS segment of the MAR 36º30’N), Geophysical Research Abstracts, EGS, vol 1, 184
Barriga F. Fouquet Y, Armando A, Miranda M, Charlou J-L, Costa R, Dias Á S, et al (1998). Discovery of the Saldanha Hydrothermal Field on the FAMOUS Segment of the MAR (36º; 30’N) Eos Trans., AGU 79(45): F67
Collaboration in “Relatório da Comissão Estratégica dos Oceanos” (2004) Comissão Estratégica dos Oceanos. Portuguese Government, 329pp.