Accesso libero

Gas-Neutralizing and Dust-Suppressing Stemming of Borehole Charges for Increasing the Environmental Safety of Explosion

INFORMAZIONI SU QUESTO ARTICOLO

Cita

1. Tverda, O., & Vorobiov, V. (2011). Specific Consumption of Explosives at Destroying the Rocks with Different Properties. Herald of the National Technical University of Ukraine «Kyiv Polytechnic Institute», Series of «Mining», 20, 52–58. Search in Google Scholar

2. Abdollahisharif, J., Bakhtavar, E., & Nourizadeh, H. (2016). Monitoring and Assessment of Pollutants Resulting from Bench-Blasting Operations. Journal of Mining & Environment, 7 (1), 109–118. DOI: 10.22044/jme.2016.502 Search in Google Scholar

3. Perelot, T., Kriuchkov, A., & Kravets, V. (2010). Justification of the Method of Gas Suppression and Neutralization of Toxic Gases during Mass Explosions in Quarries. Herald of the National Technical University of Ukraine «Kyiv Polytechnic Institute», Series of «Mining», 19, 178–181. Search in Google Scholar

4. Berezhetskyi, A., & Vovk, O. (2004). The Use of Steaming Solutions to Reduce Dust and Gas Emissions in Mass Explosions. Herald of the National Technical University of Ukraine «Kyiv Polytechnic Institute», Series of «Mining», 11, 72–78. Search in Google Scholar

5. Kravets, V., Tkachuk, K., & Han, A. (2009). Increasing the Safety and Efficacy of Blasting Operations Using Special Designs Borehole Charges. Herald of the National Technical University of Ukraine «Kyiv Polytechnic Institute», Series of «Mining», 18, 53–57. Search in Google Scholar

6. Yurchenko, A. (2010). Reducing Emissions from Mass Explosions in Quarries by Using a Rubber Plug with an Anchor Device as a Stemming of Downhole Charges. Collection of Research Papers of the National Mining University, 35 (2), 111–117. Search in Google Scholar

7. Komir, V., Blinkov, V., Romashko, A., & Sokurenko, V. (2007). Impact of Stemming Design on the Crushing Intensity of Rock Models. KSPU Bulletin, 42 (1), 90–92. Search in Google Scholar

8. Vorobiov, V. (2000). The Effectiveness of the Use of Rational Design Taps Hole Charges. Herald of the National Technical University of Ukraine «Kyiv Polytechnic Institute», Series of «Mining», 2, 51–53. Search in Google Scholar

9. Saharan, M., Sazid, M., & Singh, T. (2017). Explosive Energy Utilization Enhancement with Air-Decking and Stemming Plug, ‘SPARSH’. Procedia Engineering, 191, 1211 – 1217. doi: 10.1016/j.proeng.2017.05.29710.1016/j.proeng.2017.05.297 Search in Google Scholar

10. Shevkun, E., & Leschinsky, A. (2006). Downhole Charges with Shortened Stemming. Mining Informational and Analytical Bulletin, 4, 139–146. Search in Google Scholar

11. Choudhary, B., & Arora, R. (2017). Screened Drill Cuttings in Blasthole for Tamping of Stemming to Reduce Generation of Fly Rock. Journal of Mines, Metals and Fuels, 65 (1), 19–23. Search in Google Scholar

12. Zhang, Z. (2016). Rock fracture and blasting: Theory and applications. Butterworth-Heinenmann Elsevier. doi: 10.13140/RG.2.1.1498.2481 Search in Google Scholar

13. Rehman, A. (2016). Design and development of stemming plug to enhance blast performance. Lahore, Pakistan: University of Engineering and Technology. doi: 10.13140/RG.2.2.15991.47523 Search in Google Scholar

14. Armstrong, L. (1994). The quality of stemming in assessing blasting efficiency. Sydney, Australia: The University of New South Wales. Search in Google Scholar

15. Cevizci, H. (2012). A Newly Developed Plaster Stemming Method for Blasting. Journal of the Southern African Institute of Mining and Metallurgy, 112 (12), 1071–1078. Search in Google Scholar

16. Morera de la Vall González, G. (2018). Dust production in mining. Suppression measures in quarry blasting. Madrid, Spain: The Technical University of Madrid (UPM). Search in Google Scholar

17. Katanov, I., Kondratyev, S., & Sysoyev, A. (2019). Increasing Safety at Rock Preparation by Blasting in Open Pits. E3S Web of Conferences, 134. Available at https://www.e3s-conferences.org/articles/e3sconf/pdf/2019/60/e3sconf_sdemr18_01017.pdf10.1051/e3sconf/201913401017 Search in Google Scholar

18. Vorobiov, V., Zakharov, V., Berezhetskyi, A., Yefremov, E., & Barannyk, V. (2003). Reducing Dust And Gas Emission During Mass Explosion in Quarries. Herald of the National Technical University of Ukraine «Kyiv Polytechnic Institute», Series of «Mining», 8, 163–169. Search in Google Scholar

19. Tyschuk, V. (2010). Studies of Specific Dust and Gas Emissions during Mass Explosions in Open Pits and Methods for Reducing Harmful Emissions. The collection “Up-to-Date Resource- and Energy-Saving Technologies in Mining Industry”, 1 (5), 127–132. Search in Google Scholar

20. Vozgrin, R., Mironov, Yu., & Moldovan, D. (2013). To the Question of the Properties of the Material for the Manufacture of Borehole and Drill Stemming. Problems of Geology and Subsurface Development, 11 (2), 304–305. Search in Google Scholar

21. Katanov, I., & Skachilov, P. (2015). Improving the Design of Borehole Charge with Foam-Gel Tamping. Bulletin of the Kuzbass State Technical University, 5, 43–46. Search in Google Scholar

22. Shevkun, E., Leschinsky, A., Galimjanov, A., & Rudnitsky, K. (2014). Production Tests of Combined Shothole Stemming. Mining Informational and Analytical Bulletin, 4, 97–107. Search in Google Scholar

23. Leschinsky, A. (2014). Design Development Stemming Blast Holes. Electronic scientific journal “Scientists Notes PNU”, 5 (2), 66–71. Available at http://pnu.edu.ru/media/ejournal/articles-2014/TGU_5_57.pdf Search in Google Scholar

24. Shevkun, E., Leschinsky, A., & Galimjanov, A. (2015). Short Combined Stopper Explosive Chinks of High Locking Ability. Mining Informational and Analytical Bulletin, 4, 331–336. Search in Google Scholar

25. Leschinsky, A., & Shevkun, E. (2008). Clogging blast holes in quarries. Khabarovsk: Pacific National University. Search in Google Scholar

26. Gurin, A., Ermak, L., & Teterya, O. (2008). Analytical Researches of Influence of Auxiliary Materials of Punches of Explosives in Wells on Change of Parameters of Chemical Reactions of Explosion and Structure of Products of Explosion. Labor and Environmental Protection at the Enterprises of the Mining and Metallurgical Complex, 10, 196–200. Search in Google Scholar

27. Tverda, O., & Vorobiov, V. (2012). Justification of the Selection Criterion of a Safe and Effective Type of Explosive during Mass Explosions in Open Pits. Collection of scientific works “Occupational Health and Safety Issues in Ukraine”, 22, 56–64. Search in Google Scholar

28. Tverda, O., & Plyatsuk, L. (2018). The Design of Borehole Plug with a Two-Stage Absorbing System for Harmful Gases. The collection “Up-to-Date Resource- and Energy-Saving Technologies in Mining Industry”, 1 (21), 103–115.10.30929/2074-1537.2018.1.103-115 Search in Google Scholar

29. Zvyagintseva, A., & Zavyalova, A. (2015). Analysis of the Basic Technological and Engineering Measures Aimed at Reducing Dust and Gas Emissions Mass Explosion at the Quarry Mining and Processing Plant. Heliogeophysical Research. Available at http://vestnik.geospace.ru/index.php?id=285 Search in Google Scholar

30. Prymyska, S., Beznosyk, Yu., Statyukha, G., & Reshetilowski, W. (2010). Prospects for Purification of Thermal Energy Exhaust Gases on Synthetic Zeolites. Bulletin of NTU “KhPI”, 10, 70–77. Search in Google Scholar

31. Tverda, O., Plyatsuk, L., Repin, M., & Tkachuk, K. (2018). Controlling the Process of Explosive Destruction of Rocks in Order to Minimize Dust Formation and Improve Quality of Rock Mass. Eastern-European Journal of Enterprise Technologies, 3 (10), 35–42. doi: 10.15587/1729-4061.2018. 133743 Search in Google Scholar

eISSN:
2255-8896
Lingua:
Inglese
Frequenza di pubblicazione:
6 volte all'anno
Argomenti della rivista:
Physics, Technical and Applied Physics