Development of roller tank prototypes for moving goods with a capacity of 5 tons

Heri Wibowo, Ardhias Mahendra P., Aldho Jaya P., Aldyth Gunanto P., Bima Lantip B.

Abstract


Transporting products is a common practice in many industries. To increase the effectiveness and efficiency of the transfer, assisting devices are utilized. The available goods movement equipment on the market is bulky and less adaptable for moving goods in confined spaces. The primary purpose of roller tanks is to aid and facilitate human labor in the process of moving products from one location to another in order to increase the effectiveness and efficiency of human labor. A roller tank facilitates the transportation of containers, industrial machinery, and other heavy equipment. The purpose of this roller tank's design is to discover: (1) the roller tank's design, (2) the manufacturing process for roller tanks, and (3) the performance test results for roller tanks. Requirements analysis, problem analysis and specifications, design, technical analysis, component fabrication, assembly, and tool testing are the methods used to construct this roller tank. The outcome of this roller tank design is a design with a functional drawing of a roller tank with dimensions of 280 mm in length, 150 mm in width, and 83 mm in height. The roller tank prototype is composed of ST 37 steel plate and low alloy carbon steel. The tank's drive wheel is made of nylon, and its two shaft bearings consist of a ball bearing 6804 ZZ and a roller thrust bearing 55105

Keywords


Prototype, Moving Goods, Roller Tank

Full Text:

PDF

References


C.H.A. Kuran, Ove Njå , Geir Sverre Braut (2023), Conceptualizing the bending and breaking of rules in the heavy goods transport sector, Safety Science, vol 166 (106235) page 1-13.

Chee K. Wong, Richard G. Wan, Ron C.K. Wong (2021), Performance of buried pipes in moving slopes under axial loading –evaluation tools, Journal of Pipeline Science and Engineering, vol 1 page 167-175.

M.E Korkmaz, M. K. Gupta, Recep Demirs¨oz, Mehmet Boy, Nafiz Yasar, Mustafa Günay, Nimel S. Ross (2022), On tribological characteristics of TiC rollers machined under hybrid lubrication/cooling conditions, Tribology International vol 174 (107745) page 1-12.

Jin Wang, Min Wei, Jimiao He, Yuqi Wang and Changrong Ren (2022), Optimization of Repair Process Parameters for Open-Arc Surfacing Welding of Grinding Rolls Based on the Response Surface Method, Processes Journal, vol 10, no 321, MDPI, Basel, Switzerland.

Shaoni Sun, Risheng Long, Zhihao Jin, Yimin Zhang, Zichen Ju and Xuanying Du (2021), Research on the Friction and Wear Properties of Dents Textured Rolling Element Bearings under Dry Wear, Coatings Journal, vol 12, no 684, MDPI, Basel, Switzerland.

Shameem (2020), State space modeling of Anti-Roll Tank for Ship Roll Stabilization, International Journal of Scientific and Technology Research, vol 9 issue 01, ISSN 2277-8616.

Bambang Setyono and Setyo Gunawan (2015), Design and Analysis of "Semut Abang" Electric Car Chassis Using Autodesk Inventor Pro 2013 Software, National Seminar on Applied Science and Technology III, ISBN 978-602-98569-1-0.

Eduard Jakubkovič, Tatiana Kelemenová, Ivana Koláriková (2021), Displacement Measurement in the Vertical Axis of the Measuring Microscope using Laser Triangulation Sensor, Acta Mechanica Slovaca 25 (2), page 14-18.

Muslimin, H. M. Ridlwan, Dhiya Luqyana, Bayu Pambudi, Azam M. Muhamad (2023), Design Analysis of Mold Cavity and Core on Compression Molding of Composite Material, Jurnal Polimesin, vol 21 no 2.

Zhang Yongqi, Tan Qingchang ,Zhang Kuo, Li Jiangang (2012), Analysis of Stress and Strain of the Rolling Bearing by FEA method, Physics Procedia, vol 24, page 19-24.

Julio Blanco-Lorenzo, Sheng Liu, Javier Santamaria, Paul A. Meehan and Ernesto G. Vadillo (2022), Frictional contact analysis in a spherical roller bearing, Journal of Computational Design and Engineering, vol 10, page 139–159.

Pribadyo, Hadiyanto, Jamari, Dailami (2022), Design and experimental test of runner blade for small axial pico-propeller turbines model, Jurnal Polimesin, vol 20 no 2.

Amanto, H. (2006), Materials Science, Jakarta, Earth Space.

Wiryosumarto and Okumura (1994), Teknologi Pengelasan Logam, Jakarta, Pradnya Paramita.




DOI: http://dx.doi.org/10.30811/jpl.v21i4.3774

Refbacks

  • There are currently no refbacks.




Creative Commons License
This work is licensed under a Creative Commons Attribution-ShareAlike 4.0 International License.

 

  

    

    

Lisensi Creative Commons

Ciptaan disebarluaskan di bawah Lisensi Creative Commons Atribusi-BerbagiSerupa 4.0 Internasional.

 

Mailing Address:

Politeknik Negeri Lhokseumawe

Jl. Banda Aceh-Medan
Km. 280,3, Buketrata, Mesjid Punteut, Blang Mangat,
Kota Lhokseumawe, 24301

Propinsi Aceh,
Indonesia