Online catalogue of coal waste heaps

Fire Risk Assessment and Monitoring of Post-Mining Spoil Heaps in Europe

Thermally inactive
Coal heap (contains coal remains)
137.10 ha
327.0 m height
43.00 mil. m³
Layers

Heap status
Active

Thermal activity status
Thermally inactive

Łączny J. et al. (2011): Factors influencing the selection of preventive, prophylactic and firefighting technologies used at facilities formed from coal-mining waste. Prace Naukowe GIG, Kwartalnik nr 4,, pp. 87-115. Michalik O., Pełka-Gościniak J. (2012): The “Pochwacie” coal-mining waste dump – reclamation directions and development plans. Acta Geographica Silesiana, 2. nr specjalny. WNoZ UŚ,, pp.59-63. Dulias R. (2013): Anthropogenic denudation in mining areas: the example of the Upper Silesian Coal Basin, Uniwersytet Śląski, Katowice 2013. Adamczyk Z. (2014): Geological structure of the area. W: Tereny pogórnicze – Szanse, zagrożenia. Analiza przypadku. Monografia red. Białecka B., Biały W., Gliwice,, pp. 57-81. Stankiewicz B. et al. (2019): Issues concerning the final use of spoil heaps in the Rybnik Coal District in relation to planned tourist routes. W: New and renewed urban spaces. Tom 5, Red. Twardoch A., Wydawnictwo Politechniki Śląskiej,, pp. 94-120. Krokoszyński P., Rybicki S. (2010): Deformation of the subsoil and forefield of the “Pochwacie” mining-waste dump – causes, course and effects. Przegląd Górniczy, 66 (5),, pp. 30–37. Marcisz, M., Gawor, Ł., & Probierz, K. (2018). Valorization of coal mining waste dumps from the mines of Jastrzębska Spółka Węglowa S.A. for coal recovery and further reclamation and management. Gospodarka Surowcami Mineralnymi – Mineral Resources Management, 34(4), 97–114.
Information data quality: High – On-site measurements, official documentation, professional studies, drone/UAV surveys, laboratory analysis, direct interviews, government databases
Geometric data accuracy: High – GPS/GNSS field survey (RTK/PPK), drone survey, LiDAR scanning, cadastral survey, total station