Dimitar Ouzounov Explained

Dimitar Ouzounov
Nationality:Bulgaria (EU)/US
Occupation:Geophysicist, research scientist, academic, and author
Education:MSc in Applied Geophysics
MSc study in Applied Mathematics & Informatics
PhD in Mathematics/Physics/Geophysics
Alma Mater:University of Mining and Geology
Technical University, Sofia
The Schmidt Institute of Physics of the Earth
Workplaces:Chapman University

Dimitar Ouzounov (Bulgarian: Димитър Узунов) is a Bulgarian–American geophysicist, research scientist, academic, and author. He is a research professor of geophysics at Institute for Earth, Computing, Human and Observing (Institute for ECHO), Chapman University.[1]

Ouzounov has worked in cross-disciplinary problem-solving related to Earth system science, Geophysics, and Natural Hazards, with a focus on geohazards, earthquake science, geospace observations, and the interaction between geospheres. In particular, he has researched using near-space Earth observations to study geodynamic processes and contributed to the validation of a new geophysical theory related to earthquake processes. Using data from an electromagnetic environment survey of the Earth, he developed diagnostics of the atmospheric environment related to natural and man-made disasters as well. He has also co-authored three books, including The Possibility of Earthquake Forecasting: Learning from Nature, twelve book chapters as well as published 74 refereed journal paper.[2] [3] in addition to having three patents.[4]

Education

Ouzounov received his first Master of Science degree in Applied Geophysics from the University of Mining and Geology in Sofia, Bulgaria. He then pursued his second master's degree in Applied Mathematics and Informatics at the Technical University, Sofia. Later, he received his PhD in Mathematics/Physics/Geophysics from The Schmidt Institute of Physics of the Earth in Moscow, Russia.[5]

Career

Ouzounov began his academic career as a Post-Doc/Research Scientist at the Geophysical Institute of the Academy of Sciences in Sofia, Bulgaria. Later, he became an adjunct professor at George Mason University and subsequently, moved on to become an associate professor of geophysics in the Center of Excellence in Earth Systems Modeling & Observations (CEESMO) at Chapman University from 2009 to 2013.[6] He held concurrent appointment as a guest professor at the Technical University of Catalonia and has been a research professor of geophysics at Institute for Earth, Computing, Human and Observing (Institute for ECHO), Chapman University since 2014.[7]

Ouzounov was an SSAI Research Scientist at NASA Goddard Space Flight Centre in Greenbelt, Maryland, USA in 1999.[8] As a NASA GES DISC center member, he provided the first data mission support for MODIS NASA Terra & Aqua satellites.[9] [10] [11] He then received a NASA research grant and joined the Goddard SFC Geodynamics team, where he developed a technique for detecting transient thermal radiation related to geodynamics and pre-earthquake processes, studying electromagnetic signals from space concerning earthquakes and volcanoes and contributing to cross-sensor validation efforts.[5] He has been a Keynote and Plenary Speaker at various international conferences, including NASA conferences (2011),[12] EMSEV Taiwan (2022),[13] TIEMS-Philippines (2018),[14] SATELLITE-Houston (2015),[15] Kansai Science Forum Osaka-Japan (2012),[16] and the International School of Physics "Enrico Fermi" Italy (2012).[17]

Research

Ouzounov's research interests include earthquake hazards, early warnings, Earth radioactivity, geosphere interaction, geospace observations, geohazards, climate adaption, and interdisciplinary observations of Earth's Moon within the field of Earth system science. In geophysics, he is most known for his work on the Sensor-Web concept, which detects pre-earthquake processes, and his contributions to understanding lithosphere-atmosphere-ionosphere coupling (LAIC) processes linked to natural disaster events.[18] In Earth system science, he developed a paradigm for satellite monitoring of TIR anomalies associated with radioactive pollution during the 2011 Fukushima nuclear disaster.[19]

Geospace observation of natural hazards

One of Ouzounov's primary research interests in Earth science has been employing remote sensing techniques, such as satellite imagery and ground-based sensors, to study the geosphere interaction and geospace observations of natural hazards.[20] In his 2018 interdisciplinary study conducted with a group of researchers, he integrated observations from both space and ground-based data sources to explore the interaction between Earth's geospheres and human health.[21] He also examined the impact of major global geodynamic activities on atmospheric processes and climate by examining how they interact with the geosphere coupling channels, and directed his research efforts toward identifying the potential for geohazards and climate adaptation to interact through these processes.[22] In 2022, he highlighted the value of geospace observations and cross-disciplinary studies in advancing the assessment of natural hazards and processes such as lithosphere-atmosphere-ionosphere coupling.[23] Furthermore, having concentrated his research studies on Earth's moon interdisciplinary observations, he looked into the possible connection between transient lunar phenomena (TLP) and lunar tectonics, discovering proof of a causal relationship between major earthquakes and TLP events in specific lunar regions.[24]

Ouzounov also applied interdisciplinary observations to investigate the physics of the pre-earthquake process and the underlying events that precede the release of energy.[25] He developed methods based on Earth's electromagnetic field changes and used infrared and thermal imaging to monitor Geosphere Interaction Phenomena associated with the earthquake and volcanic activity[26] and environmental disasters.[19] Through his analysis of IR satellite data, he identified anomalous fluctuations preceding several medium to large earthquakes,[27] detected short-lived anomalies in the Satellite thermal infrared (TIR) imaging data sets prior to major earthquakes,[28] and noted the association of thermal radiation anomalies with earthquakes.[29] He integrated a range of satellite and ground-based sensors to monitor geophysical anomalies preceding earthquakes with magnitudes greater than 5.5 globally.[30] He also contributed in novel machine learning of the Satellite observations analysis that aids the investigation of physical and dynamic changes of seismic data in a collaborative study.[31] In his book, Pre-Earthquake Processes: A Multidisciplinary Approach to Earthquake Prediction Studies, co-authored with Pulinets, Hattori and Taylor, he described pre-earthquake processes and physical signals, explored their relationship to seismic events, and applied data to short-term forecasting and prediction.[32]

Earthquake precursors, processes, and predictions

Ouzounov worked on comprehending pre-earthquake processes and the interaction-lithosphere-atmosphere validating them,[33] and exploring the possibilities of earthquake forecasting.[34] He developed an approach to identifying short-term precursors of earthquakes, in collaboration with Sergey Pulinets, exploring a new perspective on the coupling of the lithosphere, atmosphere, and ionosphere preceding significant earthquakes been explored, and reviewed planned missions and satellite systems in his 2022 work, Earthquake Precursors in the Atmosphere and Ionosphere. The research focused on two fundamental mechanism concepts, namely, atmosphere ionization and the global electric circuit, and was supported with theoretical and experimental data. During a research study in Taiwan, Italy, Greece and Japan, he elucidated the possibility of observing radon activities with gamma rays as a potential precursor of an earthquake[35] [36] [37] and noted the association of certain atmospheric signals, such as electron concentration in the ionosphere, ion rate activities, humidity, etc., with major earthquakes.[19] Previously, in his book, The Possibility of Earthquake Forecasting Learning from Nature, he demonstrated that application of multi- sensor webs might lead to advanced earthquake early warnings.[2]

Bibliography

Books

Selected articles

Notes and References

  1. Web site: Faculty Profile. www.chapman.edu.
  2. Web site: ShieldSquare Captcha.
  3. Web site: Dimitar Ouzounov. scholar.google.com.
  4. Web site: Earthquake forecaster.
  5. Web site: Dr. Dimitar Ouzounov on Preparing for the Unexpected | Thursday, May 30, 2019. The VoiceAmerica Talk.
  6. Book: The possibility of earthquake forecasting: learning from nature. Sergey. Pulinets. Dimitar. Ouzounov. IOP release 6 . April 26, 2018. IOP Publishing. Library Catalog (Blacklight).
  7. Web site: People. www.chapman.edu.
  8. Web site: Earthquake prediction: Gone and back again. www.earthmagazine.org.
  9. Book: https://ieeexplore.ieee.org/document/1294670. MODIS data from Terra and Aqua satellites. A.. Savtchenko. D.. Ouzounov. A.. Gopalan. D.. Yuan. D.. Nickless. D.. Ostrenga. IGARSS 2003. 2003 IEEE International Geoscience and Remote Sensing Symposium. Proceedings (IEEE Cat. No.03CH37477) . July 26, 2003. 5. 3028–3030 vol.5. IEEE Xplore. 10.1109/IGARSS.2003.1294670. 0-7803-7929-2 . 61165549 .
  10. Terra and Aqua MODIS products available from NASA GES DAAC. A. Savtchenko. D. Ouzounov. S. Ahmad. J. Acker. G. Leptoukh. J. Koziana. D. Nickless. January 1, 2004. Advances in Space Research. 34. 4. 710–714. ScienceDirect. 10.1016/j.asr.2004.03.012. 2004AdSpR..34..710S .
  11. Book: https://ieeexplore.ieee.org/document/1294857. HDF/HDF-EOS data access, visualization and processing tools at the GES DAAC. G.. Leptoukh. D.. Ouzounov. A.. Savtchenko. S.. Ahmad. Li. Lu. N.. Pollack. Zhong. Liu. J.. Johnson. Jianchun. Qin. Sunmi. Cho. J.Y.. Li. S.. Kempler. Bill. Teng. IGARSS 2003. 2003 IEEE International Geoscience and Remote Sensing Symposium. Proceedings (IEEE Cat. No.03CH37477) . July 26, 2003. 6. 3571–3573 vol.6. IEEE Xplore. 10.1109/IGARSS.2003.1294857. 0-7803-7929-2 . 61247033 .
  12. Web site: SCEC-NASA Workshop: Evaluating Ground-Based and Space-Based Methods of Earthquake Forecasting | Southern California Earthquake Center. www.scec.org.
  13. Web site: Electromagnetic Studies of Earthquakes and Volcanoes | IUGG Inter-Association. emsev-iugg.org.
  14. Web site: Welcome to TIEMS 25th Anniversary (1993–2018) Conference.
  15. Web site: Conference Proceedings | Keynote | Aeronautics & Aerosp. www.longdom.org.
  16. Web site: 地震予知研究国際フォーラム報告書. April 26, 2013. 関西サイエンス・フォーラム. National Diet Library Catalogue.
  17. Web site: Earthquakes Early Warning From Space.
  18. Book: https://onlinelibrary.wiley.com/doi/10.1002/9781119156949.ch6. Lithosphere-Atmosphere-Ionosphere-Magnetosphere Coupling-A Concept for Pre-Earthquake Signals Generation. Sergey. Pulinets. Dimitar. Ouzounov. Alexander. Karelin. Dmitry. Davidenko. Pre-Earthquake Processes . Geophysical Monograph Series . Dimitar. Ouzounov. Sergey. Pulinets. Katsumi. Hattori. Patrick. Taylor. June 11, 2018. John Wiley & Sons, Inc.. 77–98. 10.1002/9781119156949.ch6. 9781119156949 . 135048196 .
  19. Book: Atmospheric Signals Associated with Major Earthquakes. A Multi-Sensor Approach . Dimitar. Ouzounov. Sergey. Pulinets. Katsumi. Hattori. Menas. Kafatos. Patrick. Taylor. January 1, 2011. ntrs.nasa.gov.
  20. Web site: Geospace Observation of Natural Hazards | Frontiers Research Topic. www.frontiersin.org.
  21. The Potential of Satellites to Investigate the Lithosphere-Atmosphere Coupling Processes Linked to Geo-health Environment. D.. Ouzounov. S. A.. Pulinets. L.. Petrov. V. K.. Karastathis. G.. Martinelli. S. M.. Barbosa. G. M.. Berberich. G.. Eleftheriou. A.. Papilion. AGU Fall Meeting Abstracts . December 1, 2018. 2018. GH41C–1447. 2018AGUFMGH41C1447O . NASA ADS.
  22. Geohazard and Climate adaption:  impacts and interconnectivity. Dimitar. Ouzounov. Menas. Kafatos. Patrick. Taylor. Egu General Assembly Conference Abstracts . March 3, 2021. 10.5194/egusphere-egu21-16297 . free . 2021EGUGA..2316297O . meetingorganizer.copernicus.org.
  23. Editorial: Geospace Observation of Natural Hazards. Dimitar. Ouzounov. Jann-Yenq. Liu. Patrick T.. Taylor. Katsumi. Hattori. April 26, 2022. Frontiers in Earth Science. 10. 26 . 10.3389/feart.2022.836629 . free . 2022FrEaS..10...26O .
  24. Lunar TLP's and the tectonic processes of the Earth and the Moon. Dimitar. Ouzounov. Patrick. Taylor. Menas. Kafatos. Kayden. Cutchins. Egu General Assembly Conference Abstracts . March 25, 2022. 10.5194/egusphere-egu22-12932 . free . 2022EGUGA..2412932O . meetingorganizer.copernicus.org.
  25. Book: https://onlinelibrary.wiley.com/doi/10.1002/9781119156949.ch20. Multiparameter Assessment of Pre-Earthquake Atmospheric Signals. Dimitar. Ouzounov. Sergey. Pulinets. Jann-Yenq. Tiger Liu. Katsumi. Hattori. Peng. Han. Pre-Earthquake Processes . Geophysical Monograph Series . Dimitar. Ouzounov. Sergey. Pulinets. Katsumi. Hattori. Patrick. Taylor. June 11, 2018. John Wiley & Sons, Inc.. 339–359. 10.1002/9781119156949.ch20. 9781119156949 . 133649412 .
  26. Tropospheric and Ionospheric Anomalies Induced by Volcanic and Saharan Dust Events as Part of Geosphere Interaction Phenomena. Valerio. Tramutoli. Francesco. Marchese. Alfredo. Falconieri. Carolina. Filizzola. Nicola. Genzano. Katsumi. Hattori. Mariano. Lisi. Jann-Yenq. Liu. Dimitar. Ouzounov. Michel. Parrot. Nicola. Pergola. Sergey. Pulinets. April 26, 2019. Geosciences. 9. 4. 177. 10.3390/geosciences9040177 . free . 2019Geosc...9..177T . 11563/144579. free.
  27. Outgoing long wave radiation variability from IR satellite data prior to major earthquakes. Dimitar. Ouzounov. Defu. Liu. Kang. Chunli. Guido. Cervone. Menas. Kafatos. Patrick. Taylor. February 20, 2007. Tectonophysics. 431. 1. 211–220. ScienceDirect. 10.1016/j.tecto.2006.05.042. 2007Tectp.431..211O .
  28. Satellite thermal IR phenomena associated with some of the major earthquakes in 1999–2003. Dimitar. Ouzounov. Nevin. Bryant. Thomas. Logan. Sergey. Pulinets. Patrick. Taylor. January 1, 2006. Physics and Chemistry of the Earth, Parts A/B/C. 31. 4. 154–163. ScienceDirect. 10.1016/j.pce.2006.02.036. 2006PCE....31..154O .
  29. Book: https://onlinelibrary.wiley.com/doi/10.1002/9781119156949.ch15. Thermal Radiation Anomalies Associated with Major Earthquakes. Dimitar. Ouzounov. Sergey. Pulinets. Menas C.. Kafatos. Patrick. Taylor. Pre-Earthquake Processes . Geophysical Monograph Series . Dimitar. Ouzounov. Sergey. Pulinets. Katsumi. Hattori. Patrick. Taylor. June 11, 2018. John Wiley & Sons, Inc.. 259–274. 10.1002/9781119156949.ch15. 9781119156949 . 35101293 .
  30. Multi-sensor Integration of Space and Ground Observations of Pre-earthquake Anomalies Associated with M6.0, August 24, 2014 Napa, California. Dimitar. Ouzounov. Valerio. Tramutoli. Sergey. Pulinets. Tiger. Liu. Carolina. Filizzola. Nicola. Genzano. Mariano. Lisi. Leonid. Petrov. Menas. Kafatos. Egu General Assembly Conference Abstracts . April 1, 2015. 6014. 2015EGUGA..17.6014O . NASA ADS.
  31. Towards advancing the earthquake forecasting by machine learning of satellite data. Pan. Xiong. Lei. Tong. Kun. Zhang. Xuhui. Shen. Roberto. Battiston. Dimitar. Ouzounov. Roberto. Iuppa. Danny. Crookes. Cheng. Long. Huiyu. Zhou. June 1, 2021. Science of the Total Environment. 771. 145256. ScienceDirect. 10.1016/j.scitotenv.2021.145256. 33736153 . 2102.04334 . 2021ScTEn.771n5256X . 231847194 .
  32. Book: Pre-Earthquake Processes by Dimitar Ouzounov & Perlego. May 30, 2018 . American Geophysical Union . 978-1-119-15695-6.
  33. Lithosphere–Atmosphere–Ionosphere Coupling (LAIC) model – An unified concept for earthquake precursors validation. S.. Pulinets. D.. Ouzounov. June 5, 2011. Journal of Asian Earth Sciences. 41. 4. 371–382. ScienceDirect. 10.1016/j.jseaes.2010.03.005. 2011JAESc..41..371P .
  34. Principles of organizing earthquake forecasting based on multiparameter sensor-WEB monitoring data. Sergey. Pulinets. Dimitar. Ouzounov. Dmitry. Davidenko. Pavel. Budnikov. April 26, 2020. E3S Web of Conferences. 196. 03004. www.e3s-conferences.org. 10.1051/e3sconf/202019603004. 226418111 . free. 2020E3SWC.19603004P .
  35. Temporal variation of gamma rays as a possible precursor of earthquake in the Longitudinal Valley of eastern Taiwan. Ching-Chou. Fu. Peng-Kang. Wang. Lou-Chuang. Lee. Cheng-Horng. Lin. Wen-Yen. Chang. Gioacchino. Giuliani. Dimitar. Ouzounov. December 15, 2015. Journal of Asian Earth Sciences. 114. 362–372. ScienceDirect. 10.1016/j.jseaes.2015.04.035. 2015JAESc.114..362F .
  36. Gamma Ray and Radon Anomalies in Northern Taiwan as a Possible Preearthquake Indicator around the Plate Boundary. Ching-Chou. Fu. Lou-Chuang. Lee. Tsanyao Frank. Yang. Cheng-Horng. Lin. Cheng-Hong. Chen. Vivek. Walia. Tsung-Kwei. Liu. Dimitar. Ouzounov. Gioacchino. Giuliani. Tzu-Hua. Lai. Peng-Kang. Wang. September 4, 2019. Geofluids. 2019. e4734513. 10.1155/2019/4734513 . free .
  37. Web site: PREVENTION AND PREPAREDNESS OF THE STRAIT OF MESSINA - REGGIO CALABRIA: AN EARTHQUAKE FORECASTING AND DIDACTIC PROJECT.

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