The Sensitivity to Moisture Peculiarities of Nanoscale …
331
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1. Maksimovich NP, Matushko IP, Ripko OP, Derkachenko NM (2011) Doslidgennya stabilnosti
dovgotryvaloji roboty adsorbcijno-napivprovidnykovykh gasovykh sesoriv na osnovi SnO 2 z
dobavkamy cobaltu. Metody i ob’ecty khimicheskogo analiza 6(4): 198–201 (Maksimovich
NP, Matushko IP, Ripko OP, Derkachenko NM (2011) Investigation of the stability of longterm operation of adsorption-semiconductor gas sensors based on SnO 2 with cobalt additives.
Methods Objects Chem Analy 6(4):198–201)
2. Sun Y-F, Liu Sh-B, Meng F-L, Liu J-Y, Jin Zh, Kong L-T and Liu J-H (2012) Metal oxide
nanostructures and their gas sensing properties: a review. Sensors 12:2610–2631
3. Chiu S-W, Tang K-T (2013) Towards a chemiresistive sensor-integrated electronic nose: a
review. Sensors (Basel) 13(10):14214–47
4. Woo HS, Na CW, Lee JH (2016) Design of highly selective gas sensors via physicochemical
modification of oxide nanowires: overview. Sensors 16(9):1531
5. Granqvist CG (2007) Transparent conductors as solar energy materials: a panoramic review.
Sol Energy Mat Sol Cells 91(17):1529–1598
6. Ginley D, Hosono H, Paine DC (2011) Handbook of transparent conductors. Springer, London
7. Smyntyna V, Borshchak V, Brytavskyi I (2018) Nonideal heterojunctions for image sensors.
Nova Publishers, New York
8. Gordienko YuO, Dzadevich SV, Druzhinin AA, Yevtukh AA, Lenkov SV, Lepikh YI, Melnik
VG, Romanov VA (2010) Stvorenya mikroelectronnykh datchykiv novogo pokolinnya dlya
intellektualnych system. Za redaccijeyu YI Lepikha. Odessa Astroprint 289 p. (Gordienko YuO,
Dzadevich SV, Druzhinin AA, Yevtukh AA, Lenkov SV, Lepikh YI, Melnik VG, Romanov VA
Creating next generation microelectronic sensors for intelligent systems. In: Lepikh II (ed).
Odessa Astroprint 2010)
9. Ignatieva N (2005) Datchiki gasa firmy FIGARO, Elektronika: Nauka. Tekhnologii. Bisnes,
2: 34–37. (Ignatieva N (2005) FIGARO gas sensors, electronics: science technology. Business
2:34–37)
10. Xu C, Tamaki J, Miura N, Yamazoe N (1991) Grain size effects on gas sensitivity of porous
SnO2—based elements. Sens Actuat B Chem 3(2):147–155
11. Rumyantseva MN, Bulova MN, Chareev DA, Ryabova LI, Akimov BA, Arkhangelsky IV,
Gaskov AM (2001) Sintes i issledovanije nanokompositov na osnove poluprovodnicovykh
oksidov SnO 2 i WO 3 , Vestn Mosk Univ Ser 2 Khimiya 42(5): 348–355. (Rumyantseva MN,
Bulova MN, Chareev DA, Ryabova LI, Akimov BA, Arkhangelsky IV, Gaskov AM (2001)
Syntesys and research of nanocomposites based on semiconductor oxides SnO 2 and WO 3 .
Bull of Mosc Univ Ser 2 Chem 42(5):348–355)
12. Santarossa G, Hahn KR, Baiker A (2013) Free energy and electronic properties of water
adsorption on the SnO 2 (110) surface. Langmuir 29(18):5487–5499
13. Hahn KR, Tricoli A, Santarossa G, Vargas A, Baiker A (2012) First principles analysis of
H 2 O adsorption on the (110) surfaces of SnO 2 , TiO 2 and their solid solutions. Langmuir
28(2):1646–1656
14. Filevskaya LN, Smyntyna VA, Grinevich VS (2006) Morphology of nanostructured SnO 2 films
prepared with polymers employment. Photoelectronics 15:11–14
15. Ulug B, Türkdemir HM, Ulug A, Büyükgüngör O, Yücel MB, Smyntyna VA, Grinevich
VS, Filevskaya LN (2010) Structure, spectroscopic and thermal characterization of
bis(acetylacetonato)dichlorotin (IV) synthesized in aqueous solution. Ukr Chem J 76(7):12–17
16. Grinevych V, Smyntyna V, Filevska L, Savin S, Ulug B (2017) Thermogravimetric study
of nano SnO 2 precursors. In: Fesenko O, Yatsenko L (eds) Nanophysics, nanomaterials,
interface studies, and applications, selected proceedings of the 4th international conference
on nanotechnology and nanomaterials (NANO 2016), August 24–27, 2016, Lviv, Ukraine.
Springer proceedings in physics 195. Springer, pp 53–61
17. Zakaryan H (2016) Adsorption of the H and H 2 O on SnO 2 surfaces in an O 2 environment:
density functional theory study. Armen J Phys 9(4):283–293
331
References
1. Maksimovich NP, Matushko IP, Ripko OP, Derkachenko NM (2011) Doslidgennya stabilnosti
dovgotryvaloji roboty adsorbcijno-napivprovidnykovykh gasovykh sesoriv na osnovi SnO 2 z
dobavkamy cobaltu. Metody i ob’ecty khimicheskogo analiza 6(4): 198–201 (Maksimovich
NP, Matushko IP, Ripko OP, Derkachenko NM (2011) Investigation of the stability of longterm operation of adsorption-semiconductor gas sensors based on SnO 2 with cobalt additives.
Methods Objects Chem Analy 6(4):198–201)
2. Sun Y-F, Liu Sh-B, Meng F-L, Liu J-Y, Jin Zh, Kong L-T and Liu J-H (2012) Metal oxide
nanostructures and their gas sensing properties: a review. Sensors 12:2610–2631
3. Chiu S-W, Tang K-T (2013) Towards a chemiresistive sensor-integrated electronic nose: a
review. Sensors (Basel) 13(10):14214–47
4. Woo HS, Na CW, Lee JH (2016) Design of highly selective gas sensors via physicochemical
modification of oxide nanowires: overview. Sensors 16(9):1531
5. Granqvist CG (2007) Transparent conductors as solar energy materials: a panoramic review.
Sol Energy Mat Sol Cells 91(17):1529–1598
6. Ginley D, Hosono H, Paine DC (2011) Handbook of transparent conductors. Springer, London
7. Smyntyna V, Borshchak V, Brytavskyi I (2018) Nonideal heterojunctions for image sensors.
Nova Publishers, New York
8. Gordienko YuO, Dzadevich SV, Druzhinin AA, Yevtukh AA, Lenkov SV, Lepikh YI, Melnik
VG, Romanov VA (2010) Stvorenya mikroelectronnykh datchykiv novogo pokolinnya dlya
intellektualnych system. Za redaccijeyu YI Lepikha. Odessa Astroprint 289 p. (Gordienko YuO,
Dzadevich SV, Druzhinin AA, Yevtukh AA, Lenkov SV, Lepikh YI, Melnik VG, Romanov VA
Creating next generation microelectronic sensors for intelligent systems. In: Lepikh II (ed).
Odessa Astroprint 2010)
9. Ignatieva N (2005) Datchiki gasa firmy FIGARO, Elektronika: Nauka. Tekhnologii. Bisnes,
2: 34–37. (Ignatieva N (2005) FIGARO gas sensors, electronics: science technology. Business
2:34–37)
10. Xu C, Tamaki J, Miura N, Yamazoe N (1991) Grain size effects on gas sensitivity of porous
SnO2—based elements. Sens Actuat B Chem 3(2):147–155
11. Rumyantseva MN, Bulova MN, Chareev DA, Ryabova LI, Akimov BA, Arkhangelsky IV,
Gaskov AM (2001) Sintes i issledovanije nanokompositov na osnove poluprovodnicovykh
oksidov SnO 2 i WO 3 , Vestn Mosk Univ Ser 2 Khimiya 42(5): 348–355. (Rumyantseva MN,
Bulova MN, Chareev DA, Ryabova LI, Akimov BA, Arkhangelsky IV, Gaskov AM (2001)
Syntesys and research of nanocomposites based on semiconductor oxides SnO 2 and WO 3 .
Bull of Mosc Univ Ser 2 Chem 42(5):348–355)
12. Santarossa G, Hahn KR, Baiker A (2013) Free energy and electronic properties of water
adsorption on the SnO 2 (110) surface. Langmuir 29(18):5487–5499
13. Hahn KR, Tricoli A, Santarossa G, Vargas A, Baiker A (2012) First principles analysis of
H 2 O adsorption on the (110) surfaces of SnO 2 , TiO 2 and their solid solutions. Langmuir
28(2):1646–1656
14. Filevskaya LN, Smyntyna VA, Grinevich VS (2006) Morphology of nanostructured SnO 2 films
prepared with polymers employment. Photoelectronics 15:11–14
15. Ulug B, Türkdemir HM, Ulug A, Büyükgüngör O, Yücel MB, Smyntyna VA, Grinevich
VS, Filevskaya LN (2010) Structure, spectroscopic and thermal characterization of
bis(acetylacetonato)dichlorotin (IV) synthesized in aqueous solution. Ukr Chem J 76(7):12–17
16. Grinevych V, Smyntyna V, Filevska L, Savin S, Ulug B (2017) Thermogravimetric study
of nano SnO 2 precursors. In: Fesenko O, Yatsenko L (eds) Nanophysics, nanomaterials,
interface studies, and applications, selected proceedings of the 4th international conference
on nanotechnology and nanomaterials (NANO 2016), August 24–27, 2016, Lviv, Ukraine.
Springer proceedings in physics 195. Springer, pp 53–61
17. Zakaryan H (2016) Adsorption of the H and H 2 O on SnO 2 surfaces in an O 2 environment:
density functional theory study. Armen J Phys 9(4):283–293