Studi Kekuatan Struktur Deck Crane Barge Terhadap Beban Knuckle Boom Crane dan Hydraulic Crane dengan Pendekatan Metode Elemen Hingga
DOI:
https://doi.org/10.54378/astne.v3i2.11795Keywords:
Crane Barge, Knuckle Boom Crane, Hydraulic Crane, FEM, Maxsurf Multiframe, Allowable Stress, BKI Rules, Crane Barge, Knuckle Boom Crane, Hydraulic Crane, Finite Element Method, Classification RulesAbstract
This study aims to evaluate the structural strength of a crane barge deck under the loading of two types of cranes: the Knuckle Boom Crane and the Hydraulic Crane. The evaluation is conducted using the numerical Finite Element Method (FEM) with the assistance of Maxsurf Multiframe software. The main focus of the analysis is to assess the effects of crane type, boom position variation (working radius), and deck plate thickness on stress distribution and bending moment in the deck structure. The structural model used is based on an actual design of a crane barge from PT Baramulti, with dimensions adjusted to the limitations of the student version of the software. Loading scenarios were applied incrementally from 0 to 30 tons, and the results were assessed by comparing them against allowable stress limits set by the Indonesian Classification Bureau (BKI). The simulation results show that large-capacity cranes, such as the 60T Knuckle Boom Crane, generate stress levels exceeding BKI safety limits. However, after structural reinforcements were applied—such as the addition of stiffeners, increasing deck plate thickness, and changing the material to AH36—the maximum stress was reduced by approximately 26%, restoring structural safety under loads up to 20 tons. This research highlights the importance of structural design that considers crane type, actual load conditions, and material specifications to ensure the operational safety of crane barges.
References
Y B Hadasa et (2021). Study on the effects of lifting loads on the. IOP Conference Series:.
a, M. L. (2024). Statics Analysis of a New Type of. Journal of Engineering Research and Reports.
A.M. Abdullahi a, Z. Mohamed a,⇑,Z. , H. Selamat a. (2020). Efficient control of a 3D overhead crane with simultaneous. Mechanical Systems and Signal Processing.
Abdullah1*, K. (2023). Strength Analysis of the Deck Crane Barge Using the. Department of Ship Building Engineering.
BABICZ, J. (2014). ENCYCLOPEDIA OF SHIP TECHNOLOGY. WÄRTSILÄ.
Brian Wetzstein a, R. F. (2019). Transportation costs: Mississippi River barge rates. Journal of Commodity Markets.
Diego Hernández-Ménez 1. (2023). Methodology for the structural analysis of a. Revista UIS Ingenierías.
e, Y. B. (2024). Study on the effects of lifting loads on the. IOP Conference Series:.
Ferrara, M. (2024). Safety assessment of existing prestressed reinforced concrete bridge decks through different approaches. Structural Concrete: Volume 25, Issue 3.
Helena Polezhayeva; Clive Badger. (2009). Effect of Plate Thickness On Fatigue Strength of Base Material And Butt Welded Specimens Made From EH40 Steel Thick Plates: Phase 1. The Nineteenth International Offshore and Polar Engineering Conference.
Hendrik Vorhölter*,Jakob Christiansen,Hannes Hatecke. (2014). UNIVERSAL CRANE MODEL FOR THE SHIP DESIGN SYSTEM E4. Proceedings of the ASME 2014 33rd International Conference on Ocean, Offshore and Arctic Engineering.
HJ Hwang, G. M. (2019). Minimum thickness of flat plates considering construction load effect. Structural Engineering and Mechanics, .
Lauri Pyrhönen · Suraj Jaiswal ·Aki Mikkola. (2023). Mass estimation of a simple Hydraulic Crane using discrete. Nonlinear Dyn.
Liyana Ramli a, Z. M. (2011). Mechanical Systems and Signal Processing. Control Strategies for crane systems : A comprehensive review.
Musilek, J. (2019). Dynamical Model for Determination of Horizontal.
Musmar, M. A. (2022). Structural performance of steel plates.
Sergii Gubskyi1*, Vitalii Yepifanov2. (2019). Integrated Approach to Determine Operational Integrity of. Periodica Polytechnica Mechanical Engineering,.
Shipping, A. B. (JANUARY 2025). STEEL VESSELS FOR SERVICE ON RIVERS . the State of New York 1862: American Bureau of Shipping.
V. Kovalenko,Oleksandr Vudvud,Vasiliev,. (2023). Numerical experiment on the dynamics of the tower crane.
Xi Pan a,b,*Tingsheng Zhao a. (2024). Pressure deviation monitoring and early warning in large integrated tower. Measurement: Sensors.
Xu1PingYan1, O. (2023). Novel methods for reliability study. scientific reports.
yasuto, o. (2017). Deck Crane System.
Zhidkova, A. M. (2022). OPTIMIZATION OF THE BARGE-TOWING COMBINATIONS. BECTHNK.