Mgr. Filip Tomek, Ph.D.

Mgr. Filip Tomek, Ph.D.

Teaching

Laboratory of Rock Magnetism

The laboratory is equipped with all the necessary equipment for the collection, processing and measurement of magnetic anisotropy of rocks. Samples are measured on a KLY5 kappabridge with modules for measuring the temperature dependence of magnetic susceptibility and a 3D sample rotator. The lab has a new JR-6A magnetometer with LDA5 demagnetization and PAM1 magnetization units , which is the most sensitive and accurate instrument for measuring remanent magnetization of rocks and soils. These methods are used to analyse and quantify the structure, deformation and flow of geological bodies, including fine-grained rocks.

  • Further information about the laboratory can be found here and here.
  • Those interested in thesis topics in rock magnetism or in measuring their own samples are welcome. Contact me at the email or phone number listed above

Research interests

  • Field geological mapping, structural geology, tectonics, and volcanology
  • Microstructural analysis of textures, structures, and deformation fabrics of igneous rocks
  • Fabric analysis of magmatic rocks and their record in geodynamic processes
  • Rock magnetism, paleomagnetism, and application of the magnetic anisotropy on volcanic, plutonic, and sedimentary rocks

Professional expertise

  • Crustal magma emplacement processes, volcano-plutonic link, collapse calderas, and interplay of magmatism with far-field tectonic deformation
  • Working on magmatic complexes in the Bohemian Massif (Austria, Czech Republic, Germany, Poland), Pyrenees (Catalonia), Western Carpathians (Slovakia), Rio Grande Rift (New Mexico), San Juan volcanic province (Colorado), Sierra Nevada (California), Blue Mountains province (Oregon), and Superior Province (Canada)

Publications

(23) Svojtka M, Žák J, Kachlík V, Ackerman L, Tomek F, Vacek F, Sláma J (2024) Late Archean sedimentary basins in the northeastern Superior Province, Canada: plume-generated crustal tears or syn-convergent accretionary belts? Precambrian Research, 406: 107386
(20) Olšanská I, Tomek F, Chadima M, Foucher MS, Petronis MS (2023) Magnetic multi-fabrics as tools for understanding ignimbrite emplacement processes: an example from late-Variscan Tharandter Wald Caldera, Bohemian Massif. Journal of Structural Geology, 78: 105012
(19) Tomek F, Olšanská I, Trubač J, Černý J, Rejšek J, Ackerman L (2023) On the anatomy and structural control of a dyke swarm that fed caldera-forming ignimbrite eruptions. Journal of the Geological Society, 180: jgs2022-119
(18)  Žák J, Svojtka M, Sláma J, Tomek F, Kachlík V, Ackerman L, Vacek F, Trubač J (2023) Exploring the link between spatiotemporal patterns of plutonism and geodynamic regimes at the end of Archean: an example from the northeastern Superior Province, CanadaPrecambrian Research, 392: 107073
(17) Somr M, Žák J, Kabele P, Tomek F (2023): Analysis of fracturing processes leading to caldera collapseEarth-Science Reviews, 241: 104413
(16) Syahputra R, Žák J, Tomek F, Kachlík V (2023): Hot plutonism in a cold accretionary wedge: what terminated the Cadomian orogeny at the northern periphery of Gondwana? Precambrian Research, 390: 107041
(15) Megerssa L, Verner K, Buriánek D, Pour O, Tomek F, Schiller D, Martínek K (2023): The late-Variscan high-temperature collisional episode in the southwestern Moldanubian Zone (Bohemian Massif)International Journal of Earth Sciences, 112:631–658
(13) Tomek F, Opluštil S, Svojtka M, Špillar V, Rapprich V, Míková J (2022) Altenberg–Teplice Caldera sourced Westphalian fall tuffs in the central and western Bohemian Carboniferous basins (eastern Variscan belt). International Geology Review, 64:441-468
(12) Ackerman K, Žák J, Kachlík V, Svojtka M, Tomek F, Santolík V, Sláma J, Trubač J, Strnad L, Vacek F (2022) The diversity of sources of late Archean granites reflects a transition from plume-dominated to plate tectonics in the Superior Province, CanadaPrecambrian Research, 370:106525
(11) Žák J, Tomek F, Svojtka M, Vacek F, Kachlík V, Ackerman L, Ježek J, Petronis MS (2021) Distributed crustal shortening followed by transpressional shearing in the Superior Province, northeastern Canada: a Late Archean analogy to modern accretionary plate margins? Precambrian Research, 362:106322
(10) Tomek F, Gilmer AK, Petronis MS, Lipman PW, Foucher MS (2019) Protracted Multipulse Emplacement of a Postresurgent Pluton: The Case of Platoro Caldera Complex (Southern Rocky Mountain Volcanic Field, Colorado)Geochemistry, Geophysics, Geosystems, 20:5225-5250
(8) Tomek F, Žák J, Svojtka M, Figer F, Waitzinger M (2019) Emplacement dynamics of syn-collapse ring dikes: an example from the Altenberg-Teplice caldera, Bohemian MassifGeological Society of America Bulletin, 131:997–1016
(7) Tomek F, Žák J, Verner K, Holub FV, Sláma J, Paterson SR, Memeti V (2017) Mineral fabrics in high-level intrusions recording crustal strain and volcano-tectonic interactions: the Shellenbarger pluton, Sierra Nevada, CaliforniaJournal of the Geological Society, London, 174:193–208
(5) Tomek F, Žák J, Holub FV, Chlupáčová M, Verner K (2016) Growth of intra-caldera lava domes controlled by various modes of caldera collapse, the Štiavnica volcano–plutonic complex, Western CarpathiansJournal of Volcanology and Geothermal Research, 311:183–197
(3) Žák J, Verner K, Tomek F, Holub FV, Johnson K, Schwartz JJ (2015) Simultaneous batholith emplacement, terrane/continent collision, and oroclinal bending in the Blue Mountains Province, North American CordilleraTectonics 34:1107–1128
(1) Žák J, Verner K, Janoušek V, Holub FV, Kachlík V, Finger F, Hajná J, Tomek F, Vondrovic L, Trubač J (2014) A plate-kinematic model for the assembly of the Bohemian Massif constrained by structural relations around granitoid plutonsGeological Society, London, Special Publications 405:169–196

Personal identificators

ORCID ID:
0000000210400193
ResearcherID:
N98142014
Scopus Author ID:
56488068600