Heating and Coagulation of Nanoparticles in a Plasma Jet
33
Dust particles of larger radii appear in the jet due to coagulation. The maximum
concentrations of these particles are at some distance from the inlet. We found that
with the increase of the distance from the inlet the average charge of dust particles
per module and the width of their distribution by charge decreases.
References
1. Roca i Cabarrocas P, Chaabane N, Kharchenko AV, Tchakarov S (2004) Polymorphous silicon
thin films produced in dusty plasmas: application to solar cells, Plasma Phys Controlled Fusion
46:235
2. Hwang NM, Lee DK (2010) Charged nanoparticles in thin film and nanostructure growth by
chemical vapour deposition. J Phys D 43:483001
3. Chaabane N, Suendo V, Vach H, Roca i Cabarrocas P (2006) Soft landing of silicon nanocrystals
in plasma enhanced chemical vapor deposition. Appl Phys Lett 88:2031111
4. Biganzoli I, Fumagalli F, Di Fonzo F, Barni R, Riccardi C (2012) A supersonic plasma jet
source for controlled and efficient thin film deposition. J Mod Phys 3:1626–1638
5. Trifiletti V, Ruffo R, Turrini C, Tassetti D, Brescia R, Di Fonzo F, Riccardi C, Abbotto A (2013)
J Mater Chem A(1):11665
6. Ozturk A, Cetegen BM (2005) Modeling of axially and transversely. injected precursor droplets
into a plasma environment. Int J Heat Mass Transf 48:4367–4383
7. Marchand C, Chazelas C, Mariaux G, Vardelle A (2007) Liquid. Precursor plasma spraying:
modeling the interactions between the transient plasma jet and the droplets. J Therm Spray
Technol 16(5–6):705–711
8. Jabbari F, Jadidi M, Wuthrich R, Dolatabadi A (2014) A numerical study of suspension injection
in plasma-spraying process 23:3–13
9. Shukla PK, Mamun AA (2002) Introduction to dusty plasma physics, 270. IoP Publishing Ltd.,
Bristol and Philadelphia
10. Maurer HR, Kersten H (2011) On the heating of nano- and microparticles in process plasmas.
J Phys D Appl Phys 44(7):174029
11. Bizyukov AA, Chibisov AD, Romashchenko EV (2012) Effect of the parameters of a gasdischarge plasma on the equilibrium temperature and floating potential of microparticle. Probl
At Sci Technol 18(6):175–177
12. Sodha MS, Mishra SK, Misra S, Srivastava S (2010) Fluctuation of charge on dust particles in
a complex plasma. Phys Plasmas 17:073705–7
13. Matsoukas T, Russell M, Smith M (1996) Stochastic charge fluctuations in dusty plasmas. J
Vac Sci Technol A14:624–630
14. Agarwal P, Girshick SL (2012) Sectional modeling of nanoparticle size and charge distributions
in dusty plasmas. Plasma Sources Sci Technol 21(12):055023
15. Kortshagen U, Bhandarkar U (1999) Modeling of particulate coagulation in low pressure plasmas. Phys. Rev. 60:887–898
16. Belotserkovskii OM (1994) Numercal Simulation in Continuum Mechanics, 448. Fiz Mat Lit,
Moskow
33
Dust particles of larger radii appear in the jet due to coagulation. The maximum
concentrations of these particles are at some distance from the inlet. We found that
with the increase of the distance from the inlet the average charge of dust particles
per module and the width of their distribution by charge decreases.
References
1. Roca i Cabarrocas P, Chaabane N, Kharchenko AV, Tchakarov S (2004) Polymorphous silicon
thin films produced in dusty plasmas: application to solar cells, Plasma Phys Controlled Fusion
46:235
2. Hwang NM, Lee DK (2010) Charged nanoparticles in thin film and nanostructure growth by
chemical vapour deposition. J Phys D 43:483001
3. Chaabane N, Suendo V, Vach H, Roca i Cabarrocas P (2006) Soft landing of silicon nanocrystals
in plasma enhanced chemical vapor deposition. Appl Phys Lett 88:2031111
4. Biganzoli I, Fumagalli F, Di Fonzo F, Barni R, Riccardi C (2012) A supersonic plasma jet
source for controlled and efficient thin film deposition. J Mod Phys 3:1626–1638
5. Trifiletti V, Ruffo R, Turrini C, Tassetti D, Brescia R, Di Fonzo F, Riccardi C, Abbotto A (2013)
J Mater Chem A(1):11665
6. Ozturk A, Cetegen BM (2005) Modeling of axially and transversely. injected precursor droplets
into a plasma environment. Int J Heat Mass Transf 48:4367–4383
7. Marchand C, Chazelas C, Mariaux G, Vardelle A (2007) Liquid. Precursor plasma spraying:
modeling the interactions between the transient plasma jet and the droplets. J Therm Spray
Technol 16(5–6):705–711
8. Jabbari F, Jadidi M, Wuthrich R, Dolatabadi A (2014) A numerical study of suspension injection
in plasma-spraying process 23:3–13
9. Shukla PK, Mamun AA (2002) Introduction to dusty plasma physics, 270. IoP Publishing Ltd.,
Bristol and Philadelphia
10. Maurer HR, Kersten H (2011) On the heating of nano- and microparticles in process plasmas.
J Phys D Appl Phys 44(7):174029
11. Bizyukov AA, Chibisov AD, Romashchenko EV (2012) Effect of the parameters of a gasdischarge plasma on the equilibrium temperature and floating potential of microparticle. Probl
At Sci Technol 18(6):175–177
12. Sodha MS, Mishra SK, Misra S, Srivastava S (2010) Fluctuation of charge on dust particles in
a complex plasma. Phys Plasmas 17:073705–7
13. Matsoukas T, Russell M, Smith M (1996) Stochastic charge fluctuations in dusty plasmas. J
Vac Sci Technol A14:624–630
14. Agarwal P, Girshick SL (2012) Sectional modeling of nanoparticle size and charge distributions
in dusty plasmas. Plasma Sources Sci Technol 21(12):055023
15. Kortshagen U, Bhandarkar U (1999) Modeling of particulate coagulation in low pressure plasmas. Phys. Rev. 60:887–898
16. Belotserkovskii OM (1994) Numercal Simulation in Continuum Mechanics, 448. Fiz Mat Lit,
Moskow