ArticleName |
Review of foreign researches in the field of mining ecology |
Abstract |
Annually, mineral mining process handles a few billion tones of rocks on our planet Earth. Opencast mining inflicts the most severe ecological damage. The generalized experience gained in recovery of mining ecology in foreign countries is indicative of the worldwide nature of this challenge. In the territory of the North America continent, from the Arctic Canada to the subtropics in the state of Ohio, ecologists investigate reduction in species diversity of plant communities as a result of opencast mining-induced impact and develop measures aimed at expansion of flora diversity. In the South America, local ecologists study recovery of plant ecosystems at gold mine dumps. To this effect, a non-conventional approach based on the data on natural habitats of tropical ants on the dumps is applied. In Africa, in the areas of large-scale opencast copper mining, the scope of the studies encompasses growing conditions of a rare endamic plant. It finally appears that this species of plant can effectlvely make large settlements on the mining landscapes with soil with the high copper content. On the Asian contentment of Australia, ecologies focus on mining-disturbed land reclamation after opencast mining of coals and bauxites, and handle environmental issues associated with the recovery of aquatic biotas in man-made reservoirs. In Europe the historical confrontation of the society and mining industry is dramatically strong. The environmental issues have become extremely acute in the recent decades in view of land pressure, dense population in the European countries and high concentration of industry. The mining-induced ecological issues are studied and sufficiently effectively treated in oil shale development, as well in large-scale opencast mining of sand-and-gravel, marble and coal deposits. The review of the scientific researches in the area of enhancement of the environmental activity efficiency in the field of mineral mining shows that the Earth biosphere shells on all continents are under close scrutinity of ecology experts, the goal and objective of which is minimization of the environmental impact of the mineral mining and processing industry. |
References |
1. Naeth M. A., Wilkinson S. R. Establishment of Restoration Trajectories for Upland Tundra Communities on Diamond Mine Wastes in the Canadian Arctic. Restoration Ecology. 2014. Vol. 22(4). pp. 534–543. doi: 10.1111/rec.12106. 2. Sena K., Barton C., Hall S., Angel P., Agouridis C., Warner R. Influence of spoil type on afforestation success and natural vegetative recolonization on a surface coal mine in Appalachia, United States. Restoration Ecology. 2015. Vol. 23(2). pp. 131–138. doi: 10.1111/rec.12164 3. Gilland K. E., McCarthy B. C. Microtopography Influences Early Successional Plant Communities on Experimental Coal Surface Mine Land Reclamation. Restoration Ecology. 2014. Vol. 22(2). pp. 232–239. doi: 10.1111/rec.12066 4. Cusser S., Goodell K. Diversity and Distribution of Floral Resources Influence the Restoration of Plant-Pollinator Networks on a Reclaimed Strip Mine. Restoration Ecology. 2013. Vol. 21(6). pp. 713–721. doi: 10.1111/rec.12003 5. Ribas C. R., Schmidt F. A., Solar R. R. C., Campos R. B. F., Valentim C. L., Schoereder J. H. Ants as Indicators of the Success of Rehabilitation Efforts in Deposits of Gold Mining Tailings. Restoration Ecology. 2012. Vol. 20(6). pp. 712–720. doi: 10.1111/j.1526-100X.2011.00831.x 6. Faucon M.-P., Parmentier I., Colinet G., Mahy G., Luhembwe M. N., Meerts P. May Rare Metallophytes Benefit from Disturbed Soils Following Mining Activity? The Case of the Crepidorhopalon tenuis in Katanga (D. R. Congo). Restoration Ecology. 2011. Vol. 19(3). pp. 333–343. doi: 10.1111/j.1526-100X.2009.00585.x 7. Ngugi M. R., Neldner V. J., Doley D., Kusy B., Moore D., Richter C. Soil moisture dynamics and restoration of self-sustaining native vegetation ecosystem on an open-cut coal mine. Restoration Ecology. 2015. Vol. 23(5). pp. 615–624. doi: 10.1111/rec.12221 8. Dias A. T. C., Bozelli R. L., Darigo R. M., Esteves F. de A. , Santos dos H. F., Figueiredo-Barros M. P., Nunes M. F. Q. S., Roland F., Zamith L. R., Scara No. F. R. Rehabilitation of a Bauxite Tailing Substrate in Central Amazonia: The Effect of Litter and Seed Addition on Flood-Prone Forest Restoration. Restoration Ecology. 2012. Vol. 20(4). pp. 483–489. doi: 10.1111/j.1526-100X.2011.00811.x 9. Gould S. F. Comparison of Post-mining Rehabilitation with Reference Ecosystems in Monsoonal Eucalypt Woodlands, Northern Australia. Restoration Ecology. 2012. Vol. 20(2). pp. 250–259. doi: 10.1111/j.1526-100X.2010.00757.x 10. Zhang Hao, Chu L. M. Early Development of Soil Microbial Communities on Rehabilitated Quarries. Restoration Ecology. 2013. Vol. 21(4). pp. 490–497. doi: 10.1111/j.1526-100X.2012.00917.x 11. Zhang Hao, Zhuang Xueying, Chu L. M. Plant Recruitment in Early Development Stages on Rehabilitated Quarries in Hong Kong. Restoration Ecology. 2013. Vol. 21(2). pp. 166–173. doi: 10.1111/j.1526-100X.2012.00906.x 12. Knapp S., Gerth A., Stefan K. Sustainable recultivation and wastewater treatment in Vietnamese coal mining. World of Mining — Surface & Underground. 2012. Vol. 64(4). pp. 253–263. 13. Laarmann D., Korjus H., Sims A., Kangur A., Kiviste A., Stanturf J. A. Evaluation of afforestation development and natural colonization on a reclaimed mine site. Restoration Ecology. 2015. Vol. 23(3). pp. 301–309. doi: 10.1111/rec.12187 14. Prach K., Karešová P., Jírová A., Dvoková H., Konvalinková P., ehounková K. Do not neglect surroundings in restoration of disturbed sites. Restoration Ecology. 2015. Vol. 23(3). pp. 310–314. doi: 10.1111/rec.12189 15. Mahieu S., Soussou S., Cleyet-Marel J.-C., Brunel B., Mauré L., Lefèbvre C., Escarré J. Local Adaptation of Metallicolous and Non-Metallicolous Anthyllis vulneraria Populations: Their Utilization in Soil Restoration. Restoration Ecology. 2013. Vol. 21(5). pp. 551–559. doi: 10.1111/j.1526-100X.2012.00927.x 16. Ontiveros D., Márquez-Ferrando R., Fernández-Cardenete J. R., Santos X., Caro J., Pleguezuelos J. M. Recovery of the Bird Community after a Mine Spill and Landscape Restoration of a Mediterranean River. Restoration Ecology. 2013. Vol. 21(2). pp. 193–199. doi: 10.1111/j.1526-100X.2012.00887.x 17. Gentili R., Sgorbati S., Baroni C. Plant Species Patterns and Restoration Perspectives in the Highly Disturbed Environment of the Carrara Marble Quarries (Apuan Alps, Italy). Restoration Ecology. 2011. Vol. 19. p. 32–42. doi: 10.1111/j.1526-100X.2010.00712.x 18. Kulik L., Stemann H. Ecology and biodiversity protection in the Rhenish lignite mining area. World of Mining — Surface & Underground. 2014. Vol. 66(3). pp. 143–152. 19. Kuyumcu M. Special challenges in lignite remediation. World of Mining — Surface & Underground. 2011. Vol. 63(6). pp. 321–333. 20. Freytag K., Pulz K. The New Federal Nature Conservation Act from the perspective of mining projects. World of Mining — Surface & Underground. 2010. Vol. 62(4). pp. 214–221. 21. Perti R., Stein W., Dahmen D., Buschhüt K. Sustainable follow-up use of recultivated surfaces. World of Mining — Surface & Underground. 2013. Vol. 65(2). pp. 92–101. 22. Pulz K. Meeting the challenges and implementingthe management objectives of lignite mining rehabilitation. World of Mining — Surface & Underground. 2014. Vol. 66(3). pp. 153–159. 23. Pabsch T., Müller F., Rosne P. Related projects focusing on the implementation of the Water Framework Directive — Ore Mining Project Significant sources of pollution in ore mining and potential measures to be taken as part of management planning in NRW. World of Mining — Surface & Underground. 2013. Vol. 65(6). pp. 374–384. 24. Boldt-Burisch K., Naeth M. A., Schneider B., Hüttl R. F. Linkage between root systems of three pioneer plant species and soil nitrogen during early reclamation of a mine site in Lusatia, Germany. Restoration Ecology. 2015. Vol. 23(4). pp. 357–365. doi: 10.1111/rec.12190 |