Aluminum composites based on high‑strength alloy B95 treated with activated dispersed particles
https://doi.org/10.21122/1683-6065-2022-2-68-77
Abstract
The paper presents the results of studies on the production of composites during the processing of aluminum melt based on high‑strength alloy B95 activated dispersed particles of nitrides (AlN, Si3N4, TiN), carbides (SiC, TiC), nanostructured carbon (fullerene carbon black), nitrogen‑containing components (glycine C2H5NO2, carbamide CH4N2O). The evaluation of the strength properties of the obtained composites from the activation modes of the charge with dispersed particles and the modes of heat treatment of the material is given. The possibility of increasing the strength characteristics of the casting composite by 15–20 % due to additional mechanical activation of the charge and achieving, after heat treatment, the compressive strength of 900–1050 MPa, hardness of 150–160 NV, elastic modulus of 20–25 GPa is shown.
About the Authors
A. Т. VolochkoBelarus
Minsk, Belarus, 10, Kuprevich str.
M. S. Kovalko
Belarus
Minsk, Belarus, 10, Kuprevich str.
K. B. Podbolotov
Belarus
Minsk, Belarus, 10, Kuprevich str.
Yangwei Wang
China
Beijing
Haiyun Wang
China
Beijing
References
1. Tumanov A.T. Aljuminij. Metallovedenie, obrabotka i primenenie aljuminievyh splavov [Aluminum. Metal science, processing and application of aluminum alloys]. Moscow, Metallurgija Publ., 1972, 663 p.
2. Konstrukcionnye vysokoprochnye splavy na osnove sistemy Al – Zn – Mg – Cu [Structural high‑strength alloys based on the Al‑ Zn‑Mg‑Cu system]. https://www.metmk.com.ua/18spr_alum.php.
3. Magnievye i litejnye aljuminievye splavy [Magnesium and cast aluminum alloys]. https://viam.ru/magsplav.
4. Sverhprochnye i vysokoprochnye splavy sistemy Al–Zn–Mg–Cu [Superstrong and high‑strength alloys of the Al–Zn–Mg–Cu system]. https://viam.ru/al_wrought_1.
5. Senatorova O. G., Grushko O. E., Tkachenko E.A. Novye vysokoprochnye aljuminievye splavy i materialy [New highstrength aluminum alloys and materials]. Tehnologija ljogkih splavov = Light alloy technology, 2007, no. 2, pp. 7–24.
6. Muhammed Abubaker Han, Janvej Van, Mohamed A.A. fifi. Mikrostruktura i mehanicheskie svojstva splava Al‑Zn‑Cu‑Mg, obrabotannogo v processe gorjachej shtampovki s posledujushhej termoobrabotkoj [Microstructure and mechanical properties of Al‑ZnCu‑Mg alloy processed in the process of hot stamping followed by heat treatment]. Materials characterization = Materials characterization, 2019, no. 157.
7. Volochko A. T. Pererabotka i ispol’zovanie aljuminievyh othodov v proizvodstve poroshkov, past, kompozicionnyh i keramicheskih materialov [Processing and use of aluminum waste in the production of powders, pastes, composite and ceramic materials]. Minsk, Belaruskaja navuka Publ., 2006, 302 p.
8. Bodla F.A. Cost metals. F.A. Bodla, P. K. Rohatgi. A.F.S. Research Journal, 1970, vol. 6, no. 2, pp. 81–82.
9. Volochko A. T., Sadoha M.A. Aljuminij: tehnologii i oborudovanie dlja poluchenija lityh izdelij [Aluminum: technologies and equipment for the production of cast products]. Minsk, Belaruskaja navuka Publ., 2011, 387 p.
10. Volochko A. T., Shegidevich A.A., Kuis D. V. Formirovanie struktury i svojstv kompozitov, poluchennyh pri obrabotke aljuminievogo rasplava ligaturami, soderzhashhimi steklopodobnye uglerodnye chasticy [Formation of the structure and properties of composites obtained by processing aluminum melt with ligatures containing glass‑like carbon particles]. Kompozity i nanostruktury = Composites and nanostructures, 2014, vol. 6, no. 2, pp. 2–13.
11. Chernyshova T.A., Kobeleva L. I., Bolotova L. K. Diskretno armirovannye kompozicionnye materialy s matricami iz aljuminievyh splavov i ih tribologicheskie svojstva [Discretely reinforced composite materials with aluminum alloy matrices and their tribological properties]. Metally = Metals, 2001, no. 6, pp. 85–98.
12. Chernyshova T.A., Kobeleva L. I., Kalashnikov I. E. O modificirovanii lityh matrichnyh kompozicionnyh materialov tugoplavkimi nanorazmernymi chasticami [On the Modification of Cast Matrix Composite Materials with Refractory Nanosized Particles]. Metally = Metals, 2009, no. 1, pp. 79–87.
13. Volochko A. T., Izobello A. Ju., Ovchinnikov V. V. Kompleksnaja obrabotka siluminov dispersnymi chasticami i atomarnym azotom [Complex treatment of silumins with dispersed particles and atomic nitrogen]. Lit’e i metallurgija = Foundry production and metallurgy, 2009, no. 3, pp.218–226.
14. Gavrilin I. V., Sverdlin A. V. Novoe v tehnologii kompozicionnogo lit’ja [New in composite casting technology]. Litejnoe proizvodstvo = Foundry, 1996, no. 9, pp. 4–5.
15. Volochko A. T., Podbolotov K. B., Djatlova E. M. Ogneupornye i tugoplavkie keramicheskie materialy [Refractory and refractory ceramic materials]. Minsk, Belaruskaja navuka Publ., 2013, 385 p.
16. Volochko A. T., Komarov A. M., Komarova V. I. Modificirujushhee vozdejstvie submikronnogo dioksida kremnija, strukturirovannogo nanochasticami bora i titana, na process formirovanija mikrostruktury i svojstv porshnevogo splava [Modifying effect of submicron silicon dioxide structured by boron and titanium nanoparticles on the process of formation of the microstructure and properties of a piston alloy]. Vesti NAN Belarusi. Serija fiziko‑tehnicheskih nauk = Proccedings of the National Academy of Sciences of Belarus. Physical‑technical series, 2010, no. 2, pp. 11–19.
17. Volochko A. T. Razvitie litejnyh tehnologij pri formirovanii svojstv materialov na osnove aljuminija s uglerodom razlichnogo strukturnogo sostojanija [Development of casting technologies during formation of properties of aluminum‑based materials with carbon of different structural condition]. Lit’e i metallurgija = Foundry production and metallurgy, 2015, no. 3, pp. 5–11.
Review
For citations:
Volochko A.Т., Kovalko M.S., Podbolotov K.B., Wang Ya., Wang H. Aluminum composites based on high‑strength alloy B95 treated with activated dispersed particles. Litiyo i Metallurgiya (FOUNDRY PRODUCTION AND METALLURGY). 2022;(2):68-77. (In Russ.) https://doi.org/10.21122/1683-6065-2022-2-68-77