I. Ban’kovskaya

发表

Study of Synthesis and Evaluation of Heat-Resistant Coatings Based on Silicon–Boron Carbide–Zirconium Boride–Aluminum Oxide Composite

I. Polyakova, A. Nikolaev, I. Ban’kovskaya, 2018, Glass Physics and Chemistry.

The influence of aluminum oxide on the heat resistance of the coatings based on the zirconium boride–silicon composite

I. Ban’kovskaya, D. V. Kolovertnov, M. Sazonova, 2016, Glass Physics and Chemistry.

Oxidation processes in a silicon-boron-zirconium boride composite in the temperature range 1000–1300°C

I. Ban’kovskaya, D. V. Kolovertnov, I. Vasilyeva, 2012, Glass Physics and Chemistry.

Oxidation of the zirconium boride-silicon nitride composite in the temperature range 1100–1300°C in air

V. Popov, I. Ban’kovskaya, D. V. Kolovertnov, 2010 .

Kinetics of oxidation of the zirconium boride-silicon carbide composition in the air medium

I. Ban’kovskaya, D. V. Kolovertnov, 2015, Glass Physics and Chemistry.

Influence of Nanosized Zirconiumand Aluminum-Oxide Particles on the Properties of Si–B4C–ZrB2 Composite Materials

S. N. Perevislov, A. Nikolaev, I. Ban’kovskaya, 2020, Refractories and Industrial Ceramics.

Effect of Temperature–Time Parameters on the Structure and Properties of Glass–Ceramic Composites Based on Molybdenum Disilicide

I. Ban’kovskaya, D. V. Kolovertnov, M. Sazonova, 2022, Glass Physics and Chemistry.

Thermal Stability of Composites and Coatings Based on MoSi2–B–Al2O3 When Heated in Air to 1600°C

I. Ban’kovskaya, D. V. Kolovertnov, M. Sazonova, 2022, Refractories and Industrial Ceramics.

Effect of the thermal treatment mode on the composition and structure of ZrB2-SiC system composites

I. Ban’kovskaya, D. V. Kolovertnov, 2013, Glass Physics and Chemistry.

Kinetic Analysis of the Heat Resistance of ZrB2-SiC Composites

V. A. Zhabrev, I. Ban’kovskaya, 2005 .

Refractoriness and Phase Composition of ZrB2-Si Materials

N. S. Yuritsyn, I. Ban’kovskaya, G. N. Gorbatova, 2001 .

Development of works on creating coatings to protect carbon materials at high temperatures (a review of the works performed at Grebenshchikov Institute of Silicate Chemistry, Russian Academy of Sciences)

I. Ban’kovskaya, D. V. Kolovertnov, 2017, Glass Physics and Chemistry.

Composites and Coatings Based on the Si–B4C–ZrB2 Glass-Forming System Modified with Carbonaceous Materials

N. Rozhkova, I. Ban’kovskaya, A. N. Nikolaev, 2021, Refractories and Industrial Ceramics.

Study of Morphology and Hardness of Coatings Based on the Composition of Si–B4C–ZrB2

K. Pugachev, A. Nikolaev, I. Ban’kovskaya, 2019, Glass Physics and Chemistry.

Thermogravimetric investigation of the oxidation of the ZrB2-SiO2 composite in the temperature range 800–1300°C

N. S. Yuritsyn, I. Ban’kovskaya, D. V. Kolovertnov, 2008 .

SPECIFIC FEATURES OF OXIDATION OF POWDER BORON-CONTAINING FORMULATIONS

B. Pevzner, I. Ban’kovskaya, G. N. Gorbatova, 1999 .

Synthesis and Properties of Heat Resistant Coatings Based on a Si–B4C–ZrB2–ZrO2 Composition

A. Nikolaev, I. Ban’kovskaya, D. V. Kolovertnov, 2020, Glass Physics and Chemistry.

Preparation of composites in the ZrB2-Si system and investigation of their properties

L. P. Efimenko, I. Ban’kovskaya, D. V. Kolovertnov, 2011 .

Influence of silicon-containing compounds on the heat resistance of composites based on titanium boride

I. Ban’kovskaya, D. V. Kolovertnov, 2009 .

Ceramic coatings for carbon materials

V. Filipovich, I. Ban’kovskaya, M. Sazonova, 1997 .

Nanotechnology for Encapsulating Zirconium Boride upon Formation of Heat-Resistant Coatings

A. Lapshin, T. Kostyreva, I. Ban’kovskaya, 2005 .

Effect of SiO2 Particle Size on the Reaction between ZrB2 and SiO2 in Air

I. Ban’kovskaya, G. N. Gorbatova, M. Semov, 2003 .

Refractory Materials Resistant to Quartz Glass in Vacuum at 1600-1700°C

P. K. Turoverov, V. Gerasimov, S. Popov, 2002 .

Temperature coefficient of linear expansion of glass-ceramic materials based on MoSi2

I. Ban’kovskaya, D. V. Kolovertnov, M. Sazonova, 2023, NOVYE OGNEUPORY (NEW REFRACTORIES).