The Final Brick has Arrived


The final brick of our knowledge-base has arrived ūüôā.

Szekler Resources aims to provide Geo-Logics backed geoscience services during the whole Exploration – Field Appraisal – Stochastic Reservoir Modeling – Reservoir Simulation field life-cycle of oil and gas accumulations.

While traditional companies are losing momentum and information due to the large number of the contributing specialists, Szekler Resources is prepared for the quick revision of oil and gas assets, in order to pinpoint and solve the weak links of projects and entire portfolios.

Szekler Resources Ltd is working virtually on all geoscience platforms (including petrophysics), from vintage poor quality datasets to present industry standard 3D data, depending on the licenses and datasources available to the Client.


Thin-section Collection to Back-up Your Business


IMG_7307Szekler Resources Ltd is continuously developing its thin-section database, comprising various, mainly limestone, facies of the Triassic-Miocene Tethys realm, but also including sandstone, conglomerate, Fe-Mn hardground environments from 10 countries of Eurasia. Thin-sections of a wide range of magmatic and metamorphic rocks and ore samples can be delivered on request.

The ‘Walled Basin’ Model of the Transylvanian Basin: Geodynamic Implications



In Central Asia several ‘walled basins’¬† (Carroll et al., 2010) exist which are recording thick lacustrine to alluvial deposits through geological times, and are actually showcasing the various types of strike-slip basins, in nature. Sedimentation is starting in some basins, like in the Junggar Basin, already in the Late Permian (Hendrix et al., 1992), in others during the Mesozoic (Fig. 28, 29). In western China strike-slip basins are contractional in origin, while in eastern China basins are younger pull-apart basins; the interior of these basins practically had stayed undeformed, only basin margins evolved into high to very high orogenic build-ups (Carroll et al., 2010). According to Carroll, many terms have been used to describe these basins ‘broken foreland’, ‘cornered foreland’,¬† ‘Chinese-type basin’, ‘collisional successor basin’.

If we recall, such walled basins can be seen in the Mediterranean area, as well, like in the case of the South Adriatic basin.

The Neogene Transylvanian Basin it is also a good candidate, in terms of basin mechanism, quality of sedimentary infill. It shows¬† very similar ‘walled basin’ margin character in all directions, a lacustrine-alluvial sedimentary infill, and it was called for a long time as a back-arc basin, assuming the Roydenian tectonic model. Herein, we propose to adopt the ‘walled basin’ model for the Neogene Transylvanian basin because many of the¬†characteristics traditionally considered as mysterious¬† are getting a robust explanation, like 1) basin geometry, 2) sediment infill, 3) subsidence rates, 4) thickening of the lithosphere, 5) low heat flux, 6) uplift mechanism of the Southern Carpathians, 7) Peri-Carpathian basin geometry and many others that are going to be presented¬† in a separate paper.

We need to note, that the geodynamic evolution of the Southern Carpathians was generally neglected from the geodynamic models, because did not really fit into the back-arc model of the Pannonian-basin.  Secondly, it is obvious that the highest mountains of the Earth should share something in common regarding their origin, and geodynamic history. The Tian Shan Mts. are showing peaks of 7000m, the Caucasus has peaks above 5000m, the Atlas is rising above 4000m, the Alps have peaks of 3000m, and finally the highest peaks of Romania are found in the Southern Carpathians (above 2500m). All these very  high and relatively narrow mountain ranges are bounded by steep transpressional fault systems, just as in the case of the Southern Carpathian Mts.

Published in: Kov√°cs, J.Sz., 2015 (in press), Elements of Global Strike-Slip Tectonics: a Quasi-Neotectonic Analysis, Journal of Global Strike-Slip Tectonics, v1., Szekler Academic Press, Sfintu Gheorghe.