You are here

Space Materials and Technologies

Ground-based and aboard investigations of materials, processes, and designs of the rocket-space engineering. Creation of onground ground-based simulation equipment

¹Gavrylov RV. Ground-based and aboard investigations of materials, processes, and designs of the rocket-space engineering. Creation of onground ground-based simulation equipment. Kosm. nauka tehnol. 2005 ;11(5-6):064-077.

Efficiency of application of cellular designs in rocket-space technology

¹Slivinsky VI, ¹Slivinsky MV. Efficiency of application of cellular designs in rocket-space technology. Kosm. nauka tehnol. 2005 ;11(3-4):096-099.

Development of technologies and equipment for orbital welding and repair of pipelines in space

¹Lobanov LM, ¹Asnis EA, ¹Ternovoj EG, ¹Shulym VF, ¹Bulactev AR, ¹Kryukov VA, ¹Likarenko TA. Development of technologies and equipment for orbital welding and repair of pipelines in space. Space Science and Technology. 2018 ;24(4):38-47.

The orbital tribometer and new materials for the performance of the «Material–Friction» space experiment

¹Bronovets MA, ²Gamulya GD, ³Elanskii Yu.A, ³Zavgorodnyi LT, ⁴Skorokhod VV, ⁴Solntsev VP, ⁵Surdu MN, ³Tikhii VG, ⁴Frolov GA. The orbital tribometer and new materials for the performance of the «Material–Friction» space experiment. Kosm. nauka tehnol. 2003 ;9(5-6):040-046.

Investigation of sf influence on cyclic durability of materials in real space flight conditions. Se "Penta-Fatigue"

¹Gavrylov RV, ²Pokhyl Yu.A, ²Yakovenko LF, ²Aleksenko EN, ²Lototskaya VA. Investigation of sf influence on cyclic durability of materials in real space flight conditions. Se "Penta-Fatigue". Kosm. nauka tehnol. 2003 ;9(5-6):033-039.

Deriving ultrapure three-dimensional semiconductor materials under space vacuum conditions

¹Paton BE, ¹Asnis EA, ¹Zabolotin SP, ²Baranskii PI, ²Babich VM. Deriving ultrapure three-dimensional semiconductor materials under space vacuum conditions. Kosm. nauka tehnol. 2003 ;9(5-6):030-032.

The investigation of stationary regimes in a crystallization setup with the use of the Bridgeman method

¹Shpak AP, ²Ladikov-Roev Yu.P, ²Rabochii PP, ²Salnikov NN, ²Cheremnykh ОК. The investigation of stationary regimes in a crystallization setup with the use of the Bridgeman method. Kosm. nauka tehnol. 2003 ;9(5-6):024-029.

In-situ observation of solid-liquid interface during directional solidification of succinonitrile and pivalic acid (ground-based investigations and the preparation of flight experiment "Morphos")

¹Shpak AP, ²Fedorov OP, ¹Zhivolub EL, ¹Bersudsky EI, ¹Shuleshova OV. In-situ observation of solid-liquid interface during directional solidification of succinonitrile and pivalic acid (ground-based investigations and the preparation of flight experiment "Morphos"). Kosm. nauka tehnol. 2003 ;9(5-6):020-023.

Power consumption of major factors of heat absorption in aerodynamic heating of heat-protective coatings of objects of space-rocket engineering. II. Limit power consumption of surface processes of absorption of heat at thermal destruction of a material

¹Frolov GA. Power consumption of major factors of heat absorption in aerodynamic heating of heat-protective coatings of objects of space-rocket engineering. II. Limit power consumption of surface processes of absorption of heat at thermal destruction of a material. Kosm. nauka tehnol. 2003 ;9(2-3):068-076.

Power consumption of major factors of heat absorption in aerodynamic heating of heat-protective coatings of objects of space-rocket engineering І. Limiting power consumption of internal processes of heat absorption in thermal destruction of a material

¹Frolov GA. Power consumption of major factors of heat absorption in aerodynamic heating of heat-protective coatings of objects of space-rocket engineering І. Limiting power consumption of internal processes of heat absorption in thermal destruction of a material. Kosm. nauka tehnol. 2003 ;9(2-3):058-067.

Pages