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Design of a mobile mini crane for loading to truck to reduce damage to fresh fruit loans (FFB) during transport

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Research Paper 10/01/2023
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Design of a mobile mini crane for loading to truck to reduce damage to fresh fruit loans (FFB) during transport

Agung Cahyo Legowo, Arief RM Akbar, Abdul Ghofur, Hermantoro
Int. J. Agron. Agri. Res.22( 1), 11-19, January 2023.
Certificate: IJAAR 2023 [Generate Certificate]
Key: Effectiveness of sustainable transportation managementEfficiencyErgonomicsFresh fruit bunchesMobile mini cranePalm oilTransportation equipment

Abstract

The design of the Mobile Mini Crane (MMC) prototype begins with the collection and testing of materials to make the crane frame. The motor used is a cargo motor manufactured viar Karya 300, and uses a 14 HP diesel engine which is used to run the hydraulic system. The prototype was tested by means of a test bench, net capacity test and field test. The MMC prototype can carry a load of fresh fruit bunches (FFB) with a max capacity of 400kg/lift, and from an economic perspective, MMC’s operational costs are Rp. 20.95,-/kg whereas when compared with manual labor it is Rp. 25,-/Kg. and from the statistical test results, the results of the analysis showed that the amount of FFB lifted was not different but the transportation time was different, the average manual FFB transport was 6,164 (1.7 minutes) per TPH while with MMC it was 4,988 (1,7 minutes). 3 minutes) and the average lifting weight manually is 172kg and using MMC 234kg. besides that it also minimizes work accidents, speeds up the loading of FFB onto trucksand reduce FFB damage during transport. Ergonomically it is able to reduce the risk of work accidents and from an economic point of view it is very effective and efficient.

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Abd Rahim, Shuib, Mohd Khairul Fadzly Md Radzi, Mohd Azwan Mohd Bakri, Mohd Ramdhan Mohd Khalid. 2020. Development of a Harvesting and Transportation Machine for Oil Palm Plantations. Journal of the Saudi Society of Agricultural Sciences 19(5), 365-73.

Ahmad, HJ, and Shuib Abd Rahim. 1995. The Grabber Mark 2 An Automatic Mechanical Loader. MPOB Information Series TT 18, 1-2.

Aljawadi, Rafea AM, Desa Ahmad, Nazmi M Nawi, Muhamad SM Kassim, Wan IW Ismail. 2021. A Review of the In-Field Transporting Machines Currently Used in Oil Palm Plantations in Malaysia. Basrah Journal of Agricultural Sciences 34, 119-37.

Awaludin, Azali, Syed Syed Salim, Abdul Halim Zainal Abidin, Mohd Rosdi Ngah. 2015. Performance Study of an Oil Palm Fresh Fruit Bunch Three Wheeler Evacuation Machine. The Online Journal of Science and Technology 5(2), 46-53. https://doi.org/https://doi.org/10.1016/j.rser.2010.07.062

Awaludin Azali, Syed SSA, Abdul Halim ZA, Rasidi I. 2016. Performance Study of an Oil Palm Mobile Bunch Catcher. International Journal of Engineering Innovation & Research 5(6), 384-88.

Barrios CC, A Dom inguez-Sáez, Rubio JR, Pujadas M. 2012. Factors Influencing the Number Distribution and Size of the Particles Emitted from a Modern Diesel Vehicle in Real Urban Traffic. Atmospheric Environment 56, 16-25.

Cao, Duc Thiep, others. 2019. A Brief Review of Technology Solutions on Fuel Injection Systems of Diesel Engines to Increase the Power and Reduce Environmental Pollution. Journal of Mechanical Engineering Research & Developments (JMERD) 42(1), 1-9.

Cepeda, Magda, Josje Schoufour, Rosanne Freak-Poli, Chantal M Koolhaas, Klodian Dhana, Wichor M Bramer, Oscar H Franco. 2017. Levels of Ambient Air Pollution According to Mode of Transport: A Systematic Review. The Lancet Public Health 2(1), e23-e34.

Chan, Chang-Chuan, Chiu-Kuei Nien, Cheng-Yuan Tsai, Guor-Rong Her. 1995. Comparison of Tail-Pipe Emissions from Motorcycles and Passenger Cars. Journal of the Air & Waste Management Association 45 (2), 116-24.

Chiou, Yu-Chiun, Chieh-Hua Wen, Shih-Hsun Tsai, Wei-Ying Wang. 2009. Integrated Modeling of Car/Motorcycle Ownership, Type and Usage for Estimating Energy Consumption and Emissions. Transportation Research Part A: Policy and Practice 43(7), 665-84.

Choy, Chow Kok, Ooi Ling Hoak. 2000. An Improved Field Practice and Mechanization of FFB Evacuation and Manuring in Oil Palm Plantations. In 2000 PIPOC Proceedings: Emerging Technologies and Opportunities in the Next Millennium, 454-76. Kuala Lumpur.

Chrisendo, Daniel, Hermanto Siregar, Matin Qaim. 2021. Oil Palm and Structural Transformation of Agriculture in Indonesia. Agricultural Economics 52(5), 849-62.

Chwastek, Stefan. 2020. Optimization of Crane Mechanisms to Reduce Vibration. Automation in Construction 119, 103335.

Deraman MS, AbdRahim S, Zaprunnizam MA, Aminulrashid M, Hartini MDH. 2013. Rhyno: A Multipurpose Wheel Type Transporter for Oil Palm Activities on Undulating Terrain and Soggy Areas. MPOB Information Series TT 535, 29-32.

Deraman, Mohd Solah, Ahmad Hitam, Aminulrashid Mohamed, others. 2006. Compact Transporter for In-Field Activities. MPOB Information Series TT 316, 2-3.

Dey S, Mehta NS. 2020. Automobile Pollution Control Using Catalysis. Resources, Environment and Sustainability 2, 100006.

Harsawardana, Reza Rahutomo, Bharuno Mahesworo, Tjeng Wawan Cenggoro, Arif Budiarto, Teddy Suparyanto, Don Bosco Surya Atmaja, Bayu Samoedro, Bens Pardamean. 2020. AI-Based Ripeness Grading for Oil Palm Fresh Fruit Bunch in Smart Crane Grabber. IOP Conference Series: Earth and Environmental Science 426, 12147.

Black, Ahmad, Ahmad Ibrahim. 1992. The Grabber-An Important Development towards Reducing Dependence on Labor. MPOB Information Series TT 3.

Hoang, Anh Tuan. 2020. Applicability of Fuel Injection Techniques for Modern Diesel Engines. In AIP Conference Proceedings 2207, 20018.

Ishak, Andi, Rilus A Kinseng, Satyawan Sunito, Didin S Damanhuri. 2017. Palm Oil Expansion and Requirement Spatial Planning Policy Improvement. Perspectives 16(1), 14-23.

Kalwasiński, Dariusz. 2018. Mobile Simulator of the Crane to Support Trainings of Crane Operators–a Concept. Mechanic 91 (7), 609-11.

Lim, Chun Hsion, Zi Hooi Cheah, Xi Him Lee, Bing Shen How, Wendy Pei Qin Ng, Sue Lin Ngan, Steven Lim, Hon Loong Lam. 2021. Harvesting and Evacuation Route Optimization Model for Fresh Fruit Bunch in the Oil Palm Plantation Site. Journal of Cleaner Production 307, 127238.

Muhammad, Luthfi Norzan, AB Shahriman, BMT Shamsul, Baba M Deros, Azmin Sham Rambely, YG Ng, Mohamad Razlan Zuradzman. 2015. Conceptual Design for Oil Palm Evacuation to Improve Ergonomics Issues of Collecting Fresh Fruit Bunch. In Applied Mechanics and Materials 786, 281-86.

Narita, Daiju, Nguyen Thi Kim Oanh, Keiichi Sato, Mingqun Huo, Didin Agustian Permadi, Nguyen Nhat Ha Chi, Tanatat Ratanajaratroj, Ittipol Pawarmart. 2019. Pollution Characteristics and Policy Actions on Fine Particulate Matter in a Growing Asian Economy: The Case of Bangkok Metropolitan Region. Atmosphere 10(5), 227.

Pfaffenbichler, Paul, and Giovanni Circella. 2009. The Role of Motorized 2-Wheelers in an Energy Efficient Transport System. Proc. of the European Council for an Energy Efficient Economy, Le Colle Sur Loup, Côte d’Azur 1345-54.

Sarip S, MA Suhot, HM Kaidi, MF Mohd Noor, S Abdul Aziz, NA Bani, MS Noorazizi. 2020. Hydraulically Operated Palm Oil Loader System Design as Fresh Fruit Bunch Collector. Indonesian Journal of Electrical Engineering and Computer Science 17(1), 228-36.

Suatmadi, Anissa Yuniashaesa, Felix Creutzig, Ilona M Otto. 2019. On-Demand Motorcycle Taxis Improve Mobility, Not Sustainability. Case Studies on Transport Policy 7(2), 218-29.

Sun Guangfu, Michael Kleeberger. 2003. Dynamic Responses of Hydraulic Mobile Crane with Consideration of the Drive System. Mechanism and Machine Theory 38(12), 1489-1508.

Wu Di, Jing Zhang, Shun De Gao, Xin Wang. 2010. Modeling Method of Crawler Crane Based on Open Source Engines. In Advanced Materials Research 97, 2832-35.

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