Istrazivanja i projektovanja za privreduJournal of Applied Engineering Science

DEVELOPMENT OF TECHNOLOGY FOR THE PREPARATION OF HEAVY-DUTY CONCRETE MIXTURES BY PROCESSing WITH AN ULTRASONIC MULTI-FREQUENCY ACOUSTIC FIELD


DOI: 10.5937/jaes0-44277 
This is an open access article distributed under the CC BY 4.0
Creative Commons License

Volume 21 article 1133 pages: 917-927

Alexey Dengaev*
National University of Oil and Gas, Gubkin University, Moscow, Russia

Alexandr Maksimenko
National University of Oil and Gas, Gubkin University, Moscow, Russia

Konstantin Shut
National University of Oil and Gas, Gubkin University, Moscow, Russia

Anna Novikova
National University of Oil and Gas, Gubkin University, Moscow, Russia

Olga Eremenko
National University of Oil and Gas, Gubkin University, Moscow, Russia

Kirill Arteev
National University of Oil and Gas, Gubkin University, Moscow, Russia

Andrey Getalov*
NPO LLC Volna, Moscow, Russia

Boris Sargin
NPO LLC Volna, Moscow, Russia

Safiullina Elena*
Saint Petersburg Mining University, Saint Petersburg, Russia

The article presents the results of a study of the use of ultrasonic technologies to increase the strength of cement mortar in the production of building and concrete structures, as well as to improve the rheological parameters of grouting mortar during the construction (drilling) of wells. During the experiment, the concrete mortar was treated for 3 minutes with an ultrasonic multi-frequency acoustic field (frequency 20.0 - 40.0 kHz, signal power - 200-400 W/dm3) in devices of various geometric shape. Ordinary Portland Cement (OPC) of class G-100 was used in the composition of the solution without plasticizer additives in order to exclude their influence. The ratio of water and cement in the solution was 0.44, the density - 1.90 g/cm3. Typical elements of flow channels were used as volumes where ultrasonic exposure is carried out. The hydrodynamic regime of the processes in the water-cement suspension was modeled at the beginning of the experiments by slow mixing with a paddle agitator (200 rev./min), and on closing stage, in order to prevent the effect of hydrodynamic cavitation failure, at a speed of 1000 rev./min. The maximum compression and bending stresses are measured after the mixture solidified in a steam bath (T =60°C, 24 h.) on a hydraulic stand. Conducted experiments have confirmed that ultrasonic exposure using resonant accumulators and flow hoses: has a positive effect on the hydration reaction and the structure of cement stone in the concrete sealing phase; accelerates the intensity of compressive strength. (from 24.3 MPa to 41.5 MPa); uniformity of structure; reduces the influence of temperature on strength gain (reduces energy consumption); increases the reliability of building structures, and in the case of well construction - provides a strong adhesion of the production column with rock. In general, the results of the study allowed: to formulate a technology for the production of heavy-duty concrete mixtures; to develop a set of equipment for the preparation of concrete (grouting mortar) with specified characteristics at production objects.

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1.      Azevedo, E. R., Coldebella, C. R., Souza, J. F. de, and Zuanon, Â. C. C. (2012). Effect of ultrasonic excitation on the ultimate tensile strength of cements after different water storage times. Revista de Odontologia da UNESP, Vol. 41, No. 4, pp. 221-225.

2.      Judina, A. and Verstov, V. (2013). On efficient use of electric treatment methods in the technology of concrete work. World Applied Sciences Journal, Vol. 23, pp. 9-12, DOI: 10.5829/idosi.wasj.2013. 23.pac.90003.

3.      Тowler, M. R., Crowley, C. M., and Hill, R. G. (2003). Investigation into ultrasonic setting of cements. Part I: Postulated modalities. Journal of Materials Science, Vol. 22, pp. 1401-1406.

4.      Luche, J.-L. (1994) Effect of ultrasound on heterogeneous systems. Ultrasonics Sonochemistry, Vol.1 (2), pp. 111-118.

5.      Virone, C., Kramer, H.J.M., van Rosmalen, G.M., Stoop, A.H., Bakker, T.W. (2006). Primary nucleation induced by ultrasonic cavitation. Journal of crystal growth, Vol. 294 (1), pp.9-15.

6.      Ndagi, A. et al. (2019). Non-destructive assessment of concrete deterioration by ultrasonic pulse velocity: A review. IOP Conference Series: Earth and Environmental Science (2019), 12015.

7.      Tatarin, R.; Erfurt, W.; Stark, J. (2004) Continuous ultrasonic investigations during the hydration of cement paste, mortar and concrete. ZKG International, Vol. 57 (8), pp.69- 78.

8.      Poinot, T., Benyahia, K., Govin, A., Jeanmaire, T., and Grosseau, P. (2013). The use of ultrasonic destruction to study the effect on building mortars. Construction and Building Materials, Vol. 47, pp. 1046-1052,

9.      Li, H.; Li, H.; Guo, Z.; Liu, Y. (2006). The application of power-ultrasound to reaction crystallization. Ultrasonics Sonochemistry Vol. 13 (4): pp. 359-363.

10.   Thompson, L.H.; Doraiswamy, L.K. (2000): The rate enhancing effect of ultrasound by inducing supersaturation in a solid-liquid system. Chemical Engineering Science, Vol. 55 (16): pp. 3085-3090.

11.   Trtnik, G.; Gams, M. (2014). Recent advances of ultrasonic testing of cement-based materials at early ages. Ultrasonics, Vol. 54 (1), pp. 66-75.

12.   Toweler, M.R., Crowley, C.M. (2004). Hampshire Investigation into the ultrasonic setting of glass ionomer cements. Part II. Setting times and compressive strengths. Journal of Materials Science, DOI: 1023/B:JMSC.0000034158.69184.84.

13.   Laugier, F., Andriantsiferana, C., Wilhelm, A. M. and Delmas, H. (2008) Ultrasound in gas–liquid systems: Effects on solubility and mass transfer. Ultrasonics Sonochemistry, Vol. 15, Issue 6, pp. 965–972. DOI: 10.1016/j.

14.   Almashakbeh, Y., Saleh, E. (2022). Еvaluation of ultrasonic pulse velocity (UPV) for reinforced concrete corrosion. Journal of applied engineering science. Vol. 20, No. 4, рр. 1226-1233. /DOI: https://doi.org/10.5937/jaes0-38140.

15.   Khudyakov, A., Semyonova, G., Sarkisov, Y. (2007). Activation of concrete mixing water. 23 Basil. Conference Report, Vol. 2, рр. 20501-20507.

16.   Revan, N. Wadie, Roua Suhail Zidan, Tuqa Waleed Ahmed. (2022). Еffect of well water on the mechanical properties of concrete with using two types of cement. Journal of applied engineering science, Vol.20, No. 4 (2022), рр. 1335-1344. DOI: https://doi.org/10.5937/jaes0-38249.

17.   Mama, C. N., Nnaji, Ch. Ch., Onovo, Ch. J., Nwosu, I. D. (2019). Effects of Water Quality on Strength Properties of Concrete. International Journal of Civil, Mechanical and Energy Science (IJCMES), Vol.5, Issue 2. DOI: 10.22161/ijcmes.5.2.2.

18.   Mohe, N. S., Shewalul, Y. W., Agon, E. C. (2022). Experimental investigation on mechanical properties of concrete using different sources of water for mixing and curing concrete. Case Studies in Construction Materials, Vol.16, DOI: 10.1016/j.cscm. 2022.e00959.

19.   Tr N., Rangaswamy, S. (2019), Impact of water Quality on Strength Properties of concrete. Indian Journal of Applied Research, No. 4(7), рр.197-199.

20.   Kucche, K. J., Jamkar S. S., Sadgir P. A. (2015). Quality of Water for Making Concrete: a review of literature, International Journal of Scientific and Research Publications, Vol.5, Issue 1, рр. 1-10.

21.   Tahir1 A., Iqbal, A., Usama, M. (2020). Effects of Water Quality on Strength Properties of Concrete. United International Journal for Research and Technology, Vol.01, Issue 06, рр.17-18.

22.   Kudyakov, A.I., Petrov, A.G., Petrov, G.G. (2012). Improvement of cement stone by multi-frequency ultrasonic cavitation of mixing water. Vestnik of TGASU, No. 3, pр.143-154.

23.   Noble, T. (2002). Ultrasound – Coming Over Loud and Clear. Chemical Engineering Progress, September 1: pp. 10-12.

24.    Claisse, P.A., Lorimer, J.P., Omari, M.H. (2001). Workability of Cement Pastes. ACI Materials Journal, Vol.98 (6), pp. 476-482.

25.    Pimenov, A.I., Izotov, V.S., Ibragimov, R.A. (2015). Influence of ultrasonic treatment of cement dough on physical and mechanical properties of cement compositions, Journal of Building Materials, p.82.

26.   Tananykhin, D.S., Petukhov, A.V., Shagiakhmetov, A.M. (2013). Chemical method of fixing weakly cemented sandstones in production wells of an underground gas storage tank. Notes of the Mining Institute, Vol. 2006. pp. 107-111.

27.   Dengaev, A., Verbitsky, V., Eremenko O. [et al.] (2022). Water-in-Oil Emulsions Separation Using a Controlled Multi-Frequency Acoustic Field at an Operating Facility. Energies, Vol.15, No 17, p. 6369. DOI 10.3390/en15176369.

28.   Singh, N.B., Prabha Singh, S. (1991). In Hydration and Setting of Cements, Proceeding of the international RILEM Workshop, E & FN Spon, London, pp.35-41.

29.   Selim, P. (2008). Experimental investigation of tensile behavior of high strength concrete. Indian Journal of Engineering and Materials Sciences, Vol. 15, No. 6, pp. 467–472.

30.    Y. Kim, M. Choi, Y. Kim. (2016). Effect of Ultrasound on the Formation of a Lubrication Layer in Concrete Pumping, Journal of Advanced Concrete Technology, Vol.14, pp.95-101.

31.   Bondarenko, A.V.; Islamov, S.R.; Mardashov, D.V. (2019). Features of oil well killing in abnormal carbonate reservoirs operating conditions. Proceedings of the 15th Conference and Exhibition Engineering and Mining Geophysics; European Association of Geoscientists and Engineers, pp. 629-633. DOI: 10.3997/2214-4609.201901759.