DOI: 10.5937/jaes16-16494
This is an open access article distributed under the CC BY-NC-ND 4.0 terms and conditions.
Volume 16 article 513 pages: 161 - 165
This
paper presents the study on the volcanic ash as replacement of cement on
compression strength of concrete. Preliminary study at the early stage were
conducted with the specific gravity and sieve analysis of the volcanic as replacement
of cement material of concrete. The cement replacement is made with the weight
of the volcanic ash in the cement ratio of 2%, 4%, 6%, and 8%. Compressive
strength test of concrete was conducted at the age of 7, 14, and 28 days. The
mechanical properties by applying slump value and compressive strength were
investigated. The result showed that compression strength value of concrete
with volcanic ash are close to the same with the normal concrete mix design.
The addition of volcanic ash shows improvement of compression strength of
concrete.
1.
Bayuaji, R., Darmawan, M. R., Pudji, I., & Husin, N. A. (2011).
Characteristic of pozzolanicity Bromo’s volcanic ash. Proceedings of International
Seminar on Applied Technology, Science, and Arts. Surabaya, Indonesia, (pp :
218-223).
2.
Tsado, T. Y., Yewa, M., Yaman, S., & Yewa, F. (2014). Comparative analysis
of properties of some artificial pozzolana in concrete production.
International Journal of Engineering and Technology, 4(5), 251-255.
3.
Olawuyi, B. J., & Olusola, K. O. (2010). Compressive strength of volcanic
ash/ordinary portland cement laterized concrete. Civil Engineering Dimension, 12(1),
23-28.
4.
Latif, D. O., Rifa’i, A., & Suryolelono, K. B. (2016). Effect of Kelud
volcanic ash utilization on the physical properties as stabilizer material for
soil stabilization. Electronic Journal of Geotechnical Engineering, 20(26),
1679-1687.
5.
Reddy, M. V. S., Ashalatha, K., & Surendra, K. (2016). Studies on
eco-friendly concrete by partial replacement of cement with alcco fine and fine
fly ash. ARPN Journal of Engineering and Applied Sciences, 11(5), 3445-3448.
6.
Fathi, A., Shafi q, N., Nuruddin, M. F., & Elheber A. (2013). Study the effectiveness
of the different pozzolanic material on self-compacting concrete. ARPN Journal
of Engineering and Applied Sciences, 8(4), 299-305.
7.
Tumingan, M., Tjaronge, W., Djamaluddin, R., & Sampebulu, V. (2014).
Compression strength of concrete with pond ash as replacement of fine
aggregate. ARPN Journal of Engineering and Applied Sciences, 9(12), 2923-2928.
8.
Latif, D. O., Rifa’i, A., & Suryolelono, K. B. (2017) Impact of volcanic
ash and lime adding on expansive soil for subgrade layer. International Review
of Civil Engineering (I.RE.C.E.), 8(5), 255-260.
9.
Latif, D. O., Rifa’i, A., & Suryolelono, K. B. (2016) Chemical
characteristics of volcanic ash in Indonesia for soil stabilization: morphology
and mineral content. International Journal of GEOMATE, 11(26), 2606-2610.
10.
Waruwu, A., Hardiyatmo, H. C., & Rifa’i, A., (2017). Deflection behavior of
the nailed slab system-supported embankment on peat soil. Journal of Applied Engineering
Science, 15(4), 556-563.
11.
Waruwu, A, Maulana, & Halim, H., (2017). Settlement estimation of peat
reinforced with bamboo grid under embankment. International Review of Civil Engineering
(I.RE.C.E.), 8(6), 299-306.
12.
Curović, N. (2017). Recycled concrete – ecology and economic criterias. Journal
of Applied Engineering Science, 15(4), 271-274.
13.
Susanti, R. D., Maulana, Waruwu, A. (2017). Bearing capacity improvement of
peat soil by preloading. ARPN Journal of Engineering and Applied Sciences, 12(1),
121-124.