Geophysical Analysis of Major Geothermal Anomalies in Romania

被引:2
|
作者
Panea, Ionelia [1 ]
Mocanu, Victor [1 ]
机构
[1] Univ Bucharest, Fac Geol & Geophys, 6 Traian Vuia St, Bucharest 020956, Romania
关键词
Seismic processing; geothermal gradient; heat flow; gravity anomaly; MOESIAN PLATFORM; PANNONIAN BASIN; EVOLUTION; REGIME;
D O I
10.1007/s00024-017-1618-7
中图分类号
P3 [地球物理学]; P59 [地球化学];
学科分类号
0708 ; 070902 ;
摘要
The Romanian segment of the Eastern Pannonian Basin and the Moesian Platform are known for their geothermal and hydrocarbon-bearing structures. We used seismic, gravity, and geothermal data to analyze the geothermal behavior in the Oradea and Timisoara areas, from the Romanian segment of Eastern Pannonian Basin, and the Craiova-Bals-Optasi area, from the Moesian Platform. We processed 22 seismic reflection data sets recorded in the Oradea and Timisoara areas to obtain P-wave velocity distributions and time seismic sections. The P-wave velocity distributions correlate well with the structural trends observed along the seismic lines. We observed a good correlation between the high areas of crystalline basement seen on the time seismic sections and the high heat flow and gravity-anomaly values. For the Craiova-Bals-Optasi area, we computed a three-dimensional (3D) temperature model using calculated and measured temperature and geothermal gradient values in wells with an irregular distribution on the territory. The high temperatures from the Craiova-Bals-Optasi area correlate very well with the uplifted basement blocks seen on the time seismic sections and high gravity-anomaly values.
引用
收藏
页码:4153 / 4169
页数:17
相关论文
共 50 条
  • [31] Geophysical characterization of the Northwest Geysers geothermal field, California
    Peacock, Jared R.
    Earney, Tait E.
    Mangan, Margaret T.
    Schermerhorn, William D.
    Glen, Jonathan M.
    Walters, Mark
    Hartline, Craig
    [J]. JOURNAL OF VOLCANOLOGY AND GEOTHERMAL RESEARCH, 2020, 399
  • [32] Integrated geophysical result and its applications in the geothermal development
    Wang, H
    [J]. ENGINEERING AND ENVIRONMENTAL GEOPHYSICS FOR THE 21ST CENTURY, 1997, : 326 - 329
  • [33] Integrating geophysical data in GIS for geothermal power prospecting
    Crowell, Anna
    Gosnold, Will
    [J]. GEOSPHERE, 2015, 11 (06): : 1651 - 1679
  • [34] Geophysical characterization of the Carson Lake, Nevada geothermal resource
    Ross, H
    Benoit, D
    Desormier, B
    [J]. GEOTHERMAL DEVELOPMENT IN THE PACIFIC RIM, 1996, 20 : 393 - 400
  • [35] Geophysical constraints on the Luhoi (Tanzania) geothermal conceptual model
    Armadillo, Egidio
    Rizzello, Daniele
    Pasqua, Claudio
    Pisani, Paolo
    Ghirotto, Alessandro
    Kabaka, Kato
    Mnjokava, Taramaeli
    Mwano, Jonas
    Didas, Makoye
    Tumbu, Lucas
    [J]. GEOTHERMICS, 2020, 87
  • [36] Interpretation of geophysical data for the Vale, Oregon geothermal system
    Wisian, KW
    Blackwell, DD
    Teplow, WJ
    Meidav, T
    [J]. GEOTHERMAL DEVELOPMENT IN THE PACIFIC RIM, 1996, 20 : 435 - 438
  • [37] STATE-OF-THE-ART GEOPHYSICAL EXPLORATION FOR GEOTHERMAL RESOURCES
    WRIGHT, PM
    WARD, SH
    ROSS, HP
    WEST, RC
    [J]. GEOPHYSICS, 1985, 50 (12) : 2666 - 2696
  • [38] Non-seismic geophysical analysis of potential geothermal resources in the Longgang Block, Northeast China
    Liu, HaiYan
    Peng, Chong
    Xue, Linfu
    Li, WenQing
    Xu, ChunHui
    Jofrisse, Cremilda Samuel
    [J]. EARTH AND PLANETARY PHYSICS, 2022, 6 (06) : 576 - 591
  • [39] CORRELATION METHODS OF TRANSFORMATION AND INTERPRETATION OF GEOPHYSICAL ANOMALIES
    SHRAIBMAN, VI
    ZHDANOV, MS
    VITVITSKY, OV
    [J]. GEOPHYSICAL PROSPECTING, 1980, 28 (06) : 919 - 934
  • [40] THE MAGNETIC PHASE TRANSITION AND GEOPHYSICAL CRUSTAL ANOMALIES
    Szarka, L.
    Kiss, J.
    Pracser, E.
    Adam, A.
    [J]. CHINESE JOURNAL OF GEOPHYSICS-CHINESE EDITION, 2010, 53 (03): : 612 - 621