JKCI - Journal of the Korea Concrete Institute

1

Akçaözoğlu, K., and Akçaözoğlu, S. (2017) The Effect of Elevated Temperature on the Lightweight Concrete Produced by Expanded Clay Aggregate and Calcium Aluminate Cement. Bilge International Journal of Science and Technology Research 7(2), 59-70.

2

AzariJafari, H., Amiri, M. J. T., Ashrafian, A., Rasekh, H., Barforooshi, M. J., and Berenjian, J. (2019) Ternary Blended Cement: An Eco-Friendly Alternative to Improve Resistivity of High-Performance Self-Consolidating Concrete Against Elevated Temperature. Journal of Cleaner Production 223, 575-586.

3

Bilal, H., Yaqub, M., Rehman, S. K. U., Abid, M., Alyousef, R., Alabduljabbar, H., and Aslam, F. (2019) Performance of Foundry Sand Concrete Under Ambient and Elevated Temperatures. Materials 12(6), 2645.

4

Bui, N. K., Satomi, T., and Takahashi, H. (2018) Effect of Mineral Admixtures on Properties of Recycled Aggregate Concrete at High Temperature. Construction and Building Materials 184, 361-373.

5

Demir, I., Gümüs, M., and Gökçe, H. S. (2020) Gamma Ray and Neutron Shielding Characteristics of Polypropylene Fiber- Reinforced Heavyweight Concrete Exposed to High Temperatures. Construction and Building Materials 257, 119596.

6

Dolinar, U., Trtnik, G., Turk, G., and Hozjan, T. (2019) The Feasibility of Estimation of Mechanical Properties of Limestone Concrete After Fire Using Nondestructive Methods. Construction and Building Materials 228, 116786.

7

Francois, S., Alain, P., Bernard, G., and Patrice, R. (2016) Concrete Quality Designation Based on Ultrasonic Pulse Velocity. Construction and Building Materials 125, 1022-1027.

8

Hwang, E., Kim, G., Choe, G., Yoon, M., Gucunski, N., and Nam, J. (2018) Evaluation of Concrete Degradation Depending on Heating Conditions by Ultrasonic Pulse Velocity. Construction and Building Materials 171, 511-520.

9

Islam, M. Z., Sohel, K. M. A., Al-Jabri, K., and Harthy, A. A. (2021) Properties of Concrete with Ferrochrome Slag as a Fine Aggregate at Elevated Temperatures. Case Studies in Construction Materials 15, e00599.

10

Kim, W., Choi, H., and Lee, T. (2023) Residual Compressive Strength Prediction Model for Concrete Subject to High Temperatures Using Ultrasonic Pulse Velocity. Materials 16(2), 515.

11

Kumar, V. S., and Ram, K. S. S. (2019) Performance of Concrete at Elevated Temperatures Made with Crushed Rock Dust as Filler Material. Materials Today: Proceedings 18, 2270-2278.

12

Manish, K., and Rajiv, G. (2006) Concrete Compressive Strength Prediction Using Ultrasonic Pulse Velocity Through Artificial Neural Networks. Automation in Construction 15, 374-379.

13

Mohammadhosseini, H., Alrshoudi, F., Tahir, M. M., Alyousef, R., Alghamdi, H., Alharbi, Y. R., and Alsaif, A. (2020) Performance Evaluation of Novel Prepacked Aggregate Concrete Reinforced with Waste Polypropylene Fibers at Elevated Temperatures. Construction and Building Materials 259, 120418.

14

Mohammadhosseini, H., and Yatim, J. M. (2017) Microstructure and Residual Properties of Green Concrete Composites Incorporating Waste Carpet Fibers and Palm Oil Fuel Ash at Elevated Temperatures. Journal of Cleaner Production 144, 8-21.

15

Pablo, A., Hernán, S., Carolina, M., and Luis, L. (2020) Experimental Fast-Assessment of Post-Fire Residual Strength of Reinforced Concrete Frame Buildings Based on Non-Destructive Tests. Construction and Building Materials 234, 117371.

16

Papachristoforou, M., Anastasiou, E. K., and Anastasiou, I. (2020) Durability of Steel Fiber Reinforced Concrete with Coarse Steel Slag Aggregates Including Performance at Elevated Temperatures. Construction and Building Materials 262, 120567.

17

Park, S. K., Heo, J. Y., and Lee, W. H. (2008) Nondestructive Test for Strength Estimation of Concrete Deteriorated by High Temperature. KCI 2008 Spring Conference. 24-25 April 2014. Pyeongchang, Korea; Korea Concrete Institute (KCI). 181-184.

18

Roufael, G., Beaucour, A. L., Eslami, J., Hoxha, D., and Noumowé, A. (2021) Influence of Lightweight Aggregates on the Physical and Mechanical Residual Properties of Concrete Subjected to High Temperatures. Construction and Building Materials 268, 121221.

19

Sadrmomtazi, A., Gashti, S. H., and Tahmouresi, B. (2020) Residual Strength and Microstructure of Fiber Reinforced Self-Compacting Concrete Exposed to High Temperatures. Construction and Building Materials 230, 116969.

20

Saha, A. K., Sarker, P. K., and Majhi, S. (2019) Effect of Elevated Temperatures on Concrete Incorporating Ferronickel Slag as Fine Aggregate. Fire and Materials 43(1), 8-21.

21

Salahuddin, H., Nawaz, A., Maqsoom, A., Mehmood, T., and Zeeshan, B. A. (2019) Effects of Elevated Temperature on Performance of Recycled Coarse Aggregate Concrete. Construction and Building Materials 202, 415-425.

22

Saridemir, M., Severcan, M. H., Ciflikli, M., Celikten, S., Ozcan, F., and Atis, C. D. (2016) The Influence of Elevated Temperature on Strength and Microstructure of High Strength Concrete Containing Ground Pumice and Metakaolin. Construction and Building Materials 124, 244-257.

23

Uysal, M., Yilmaz, K., and Ipek, M. (2012) Properties and Behavior of Self-Compacting Concrete Produced with GBFS and FA Additives Subjected to High Temperatures. Construction and Building Materials 28, 321-326.

24

Yang, H., Lin, Y., Hsiao, C., and Liu, J. Y. (2009) Evaluating Residual Compressive Strength of Concrete at Elevated Temperatures Using Ultrasonic Pulse Velocity. Fire Safety Journal 44, 121-130.

25

Yao, W., Pang, J., and Liu, Y. (2020) Performance Degradation and Microscopic Analysis of Lightweight Aggregate Concrete After Exposure to High Temperature. Materials 13(7), 1566.

JKCIJournal of
the Korea Concrete Institute

Journal of the Korea Concrete Institute

ISO Journal TitleJ Korea Concr Inst.

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JKCIJournal ofthe Korea Concrete Institute