Calculation of Steel Reinforcement Needs for Beams and Prestressed Beams: Case Study on a Residential Project in South Jakarta

Authors

  • Rifaldi Adi Saputra Universitas Dian Nusantara
  • Agung Sakti Meldian Universitas Dian Nusantara
  • Riris Setiyowati Universitas Dian Nusantara
  • Arman Jayadi Universitas Persada Indonesia YAI

DOI:

https://doi.org/10.56127/jts.v4i2.2228

Keywords:

Volume calculation, Prestress, civil engineering internship

Abstract

This study aims to analyze the need for reinforcement in conventional and prestressed beams in a residential project in South Jakarta. A quantitative descriptive approach is used, allowing for the systematic and measurable presentation of numerical data. Data were collected through direct field surveys, focusing on the analysis of work execution methods and the calculation of steel reinforcement requirements, particularly for ground floor structural elements. The case study was conducted on a conventional beam of type As 4' ; E - I with a span of 22.40 meters, which resulted in an iron demand volume of 991.77 kg for 25 mm diameter and 472.37 kg for 13 mm diameter. Meanwhile, for the prestressed beam As J; 3 - 8 with a cross-sectional size of 400 x 500 mm and a span of 14.30 meters, an iron requirement of 526.96 kg for a diameter of 22 mm and 295.00 kg for a diameter of 13 mm was obtained. The results of this study provide a detailed estimation of the material requirements for reinforcing the residential structure, which can serve as a reference for planning and controlling construction costs.

References

Erdogan, H. I. (2001). Mechanics of Materials. Boca Raton: CRC Press.

Handoko, A. (2012). Construction Management: Practical Working Methods. Bandung: Engineering Science.

PT PCI Special Contraktor. (2024) Calculation method and work of Prestressed Beams

SNI 03-2847-2013 as a guide in the planning of hooks, channeling, and skip reinforcement of concrete iron in beam structural elements.

SNI 2847:2019. Structural Concrete Requirements for Building. National Standardization Agency (BSN).

Soegihardjo, S. (1993). Reinforced Concrete for Civil Engineering. Jakarta: Erlangga.

Project Organizational Structure and Duties of Each Position. (Retrieved from https://kumparan.com/berita-hari-ini/struktur-organisasi-proyek-dan- duties-of-each-office-1ytynSjg3Uz/full

Merril, C., Marthin, R., Sumajouw, D. J., & Windah, R. S. (2014). Evaluation of Beams and Columns in Simple Houses. Journal of Civil Static, 2(6), 301-309.

Sunjoto. (1989). Journal of Civil Engineering 1 Journal of Civil Engineering. Journal of Civil Engineering Joints, 1(1), 1-8. https://jurnal.usk.ac.id/JTS/index

Ardiwinata, Y. (2015). Study of the effect of three compaction methods on the compressive strength and segregation of fresh concrete with concrete quality K-300 (fc'=24.9 MPa). Journal of Civil and Environmental Engineering, 3(1), 407-412.

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Published

2025-08-30

How to Cite

Rifaldi Adi Saputra, Agung Sakti Meldian, Riris Setiyowati, & Arman Jayadi. (2025). Calculation of Steel Reinforcement Needs for Beams and Prestressed Beams: Case Study on a Residential Project in South Jakarta. Jurnal Teknik Dan Science, 4(2), 126–133. https://doi.org/10.56127/jts.v4i2.2228

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