406
A. V. Ivaniia et al.
Acknowledgements This research work has been supported by the Ministry of Science and Education of Ukraine under the project «Small-scale energy-saving modules with the use of multifunctional devices with intensive hydrodynamics for the production, modification and encapsulation of
granules», project No. 0119U100834.
References
1. Martin G, Barbour W (2003) Industrial nitrogen compounds and explosives, chemical
manufacture and analysis. Watchmaker Publishing
2. Janssen TJ (2011) Explosive materials: classification, composition and properties. Nova
Science Publishers
3. Kubota N (2015) Propellants and explosives: thermochemical aspects of combustion, 3rd edn.
Wiley-VCH, Weinheim
4. Jackson S (2016) The dependence of ammonium-nitrate fuel-oil (ANFO) detonation on
confinement. Proc Combust Inst 36(2):2791–2798
5. Lipinska K et al (2005) Demilitarized propellants as ingredients in commercial explosives. In:
European federation of explosives engineers: Brighton conference proceedings, Brighton, pp
493–498
6. Artyukhov AE, Sklabinskyi VI (2013) Experimental and industrial implementation of porous
ammonium nitrate producing process in vortex granulators. Nauk Visnyk Nats Hirnychoho
Univ 6:42–48
7. Artyukhov AE, Artyukhova NO (2019) Technology and the main technological equipment of
the process to obtain N4HNO3 with nanoporous structure. Springer Proc Phys 221:585–594
8. Ivaniia AV, Artyukhov AY, Olkhovyk AI (2019) Hydrodynamic and thermodynamic conditions
for obtaining a nanoporous structure of ammonium nitrate granules in vortex granulators.
Springer Proc Phys 221:257–268
9. Artyukhov A, Gabrusenoks J (2018) Phase composition and nanoporous structure of core and
surface in the modified granules of NH4NO3. Springer Proc Phys 210:301–309
10. Artyukhov AE, Sklabinskyi VI (2016) 3D nanostructured porous layer of ammonium nitrate:
influence of the moisturizing method on the layer’s structure. J Nano- Electron Phys 8(4)04051–
1–04051–5
11. Artyukhov AE, Sklabinskyi VI (2017) Investigation of the temperature field of coolant in the
installations for obtaining 3D nanostructured porous surface layer on the granules of ammonium
nitrate. J Nano- Electron Phys 9(1)01015–1–01015–4
12. Artyukhov AE, Sklabinskyi VI (2016) Thermodynamic conditions for obtaining 3D nanostructured porous surface layer on the granules of ammonium nitrate. J Nano- Electron Phys
8(4)04083–1–04083–5
13. Kwauk M (1992) Fluidization: idealized and bubbleless, with application. Science Press,
Beijing
14. Gidaspow D (1994) Multiphase flow and fluidization: continuum and kinetic theory descriptions
with applications. Academic Press, San Diego
15. Yang W-C (2003) Handbook of fluidizfition and fluid-particle systems. Marcel Dekke, New
York
16. Hiltunen K, Jäsberg A, Kallio S (2009) Multiphase flow dynamics. Theory and numerics. Edita
Prima Oy, Helsinki
17. Crowe CT (2006) Multiphase flow handbook. Taylor & Francis Group, Boca Raton
A. V. Ivaniia et al.
Acknowledgements This research work has been supported by the Ministry of Science and Education of Ukraine under the project «Small-scale energy-saving modules with the use of multifunctional devices with intensive hydrodynamics for the production, modification and encapsulation of
granules», project No. 0119U100834.
References
1. Martin G, Barbour W (2003) Industrial nitrogen compounds and explosives, chemical
manufacture and analysis. Watchmaker Publishing
2. Janssen TJ (2011) Explosive materials: classification, composition and properties. Nova
Science Publishers
3. Kubota N (2015) Propellants and explosives: thermochemical aspects of combustion, 3rd edn.
Wiley-VCH, Weinheim
4. Jackson S (2016) The dependence of ammonium-nitrate fuel-oil (ANFO) detonation on
confinement. Proc Combust Inst 36(2):2791–2798
5. Lipinska K et al (2005) Demilitarized propellants as ingredients in commercial explosives. In:
European federation of explosives engineers: Brighton conference proceedings, Brighton, pp
493–498
6. Artyukhov AE, Sklabinskyi VI (2013) Experimental and industrial implementation of porous
ammonium nitrate producing process in vortex granulators. Nauk Visnyk Nats Hirnychoho
Univ 6:42–48
7. Artyukhov AE, Artyukhova NO (2019) Technology and the main technological equipment of
the process to obtain N4HNO3 with nanoporous structure. Springer Proc Phys 221:585–594
8. Ivaniia AV, Artyukhov AY, Olkhovyk AI (2019) Hydrodynamic and thermodynamic conditions
for obtaining a nanoporous structure of ammonium nitrate granules in vortex granulators.
Springer Proc Phys 221:257–268
9. Artyukhov A, Gabrusenoks J (2018) Phase composition and nanoporous structure of core and
surface in the modified granules of NH4NO3. Springer Proc Phys 210:301–309
10. Artyukhov AE, Sklabinskyi VI (2016) 3D nanostructured porous layer of ammonium nitrate:
influence of the moisturizing method on the layer’s structure. J Nano- Electron Phys 8(4)04051–
1–04051–5
11. Artyukhov AE, Sklabinskyi VI (2017) Investigation of the temperature field of coolant in the
installations for obtaining 3D nanostructured porous surface layer on the granules of ammonium
nitrate. J Nano- Electron Phys 9(1)01015–1–01015–4
12. Artyukhov AE, Sklabinskyi VI (2016) Thermodynamic conditions for obtaining 3D nanostructured porous surface layer on the granules of ammonium nitrate. J Nano- Electron Phys
8(4)04083–1–04083–5
13. Kwauk M (1992) Fluidization: idealized and bubbleless, with application. Science Press,
Beijing
14. Gidaspow D (1994) Multiphase flow and fluidization: continuum and kinetic theory descriptions
with applications. Academic Press, San Diego
15. Yang W-C (2003) Handbook of fluidizfition and fluid-particle systems. Marcel Dekke, New
York
16. Hiltunen K, Jäsberg A, Kallio S (2009) Multiphase flow dynamics. Theory and numerics. Edita
Prima Oy, Helsinki
17. Crowe CT (2006) Multiphase flow handbook. Taylor & Francis Group, Boca Raton