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Simulasi Beban Rangka Mesin Pencacah Plastik Menggunakan Software Autodesk Inventor 使用 Autodesk Inventor 软件模拟塑料破碎机机架载荷
Pub Date : 2023-12-01 DOI: 10.56904/imejour.v1i1.77
Romansa Romansa, Adhes Gamayel, Ykp Saleh, M. Zaenudin
Di dunia industri kerangka/desain dalam sebuah proyek menjadi sebuah salah satu hal yang wajib ada. Baik model, konsep desain, perhitungan konsep, serta analisis kekuatan rangka menjadi hal yang harus di lengkapi agar mutu yang ada dalam desain tersebut terjamin kerangka mesin menjadi hal yang sangat berperan penting dalam sebuah konsep rancangan pembuatan alat mesin pencacah plastik Karena menjadi tempat beradanya/menempelnya mesin, komponen lainnya. Pada hal ini penulis memberlakukan atau mengambil topik analisis kekuatan rangka, yang terdapat pada rangka tersebut. Sehingga dapat diketahui nilai-nilai kritis dari rangka yang akan dibuat agar mendapatkan acuan untuk operator agar aman untuk digunakan. Pengujian kekuatan analisis rangka ini menggunakan software Autodesk Inventor versi student selanjutnya melalui simulasi rangka mesin pencacah plastik mesin. Untuk selanjutnya didapatkan tegangan maksimum rangka dari segi perhitungan secara teoritis atau pun pengujian maksimum secara simulasi menggunakan. Sehingga didapatkan nilai tegangan maksimum secara teoritis dan tegangan maksimum secara simulasi. Desain rangka dengan besi hollow menunjukkan performa terbaik pada pengujian kekuatan, sehingga disarankan untuk digunakan pada rancang bangun alat pencacah plastik.
在工业领域,项目中的框架/设计是必须存在的要素之一。无论是模型、设计概念、概念计算还是框架强度分析,都是必须完成的工作,这样才能保证设计的质量。 在塑料破碎机床的设计概念中,机床框架起着非常重要的作用,因为它是连接发动机和其他部件的地方。在这种情况下,作者应用或以机架强度分析为主题,将其包含在机架中。这样就可以知道机架的临界值,以便为操作人员的安全使用提供参考。使用 Autodesk Inventor 软件学生版测试该框架的强度分析,然后通过模拟塑料切碎机框架。通过理论计算或模拟最大测试,进一步获得机架的最大应力。这样就可以从理论上获得最大应力值,并对最大应力进行模拟。采用空心铁的机架设计在强度测试中表现最佳,因此建议在塑料切碎工具的设计中使用。
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引用次数: 0
Perbandingan Nilai Kalor Briket Arang dengan Campuran Bahan Baku Buah Bintaro dengan Batang Pohon Jambu Biji Menggunakan Alat Press Penggerak Pneumatik 使用气动驱动压制工具比较混合了宾塔罗水果原料和番石榴树干的木炭块的热值
Pub Date : 2023-12-01 DOI: 10.56904/imejour.v1i1.78
Bondan Sugiarto, Mohamad Zaenudin, Yasya Khalif Perdana Saleh
Penelitian ini bertujuan untuk mengetahui beberapa sifat fisik dan kimia briket arang dari pemanfaatan buah bintaro dan batang pohon jambu biji sebagai bahan baku pembuatan briket arang. Oleh karena itu tujuan dari penelitian ini adalah untuk mengetahui potensi buah bintaro dan batang pohon jambu biji untuk pembuatan briket arang sebagai alternatif bahan bakar serta untuk mengetahui sifat fisik dan kimia dari briket yang dihasilkan agar diketahui kualitasnya sebagai bahan bakar atau energi dibandingkan briket konsumtif dipasaran. Peneliti mengharapkan hasil dari penelitian ini dapat memberikan informasi yang baru untuk memastikan pemanfaatan buah bintaro dan batang pohon jambu biji sebagai bahan baku pembuatan briket arang. Penelitian ini dilaksanakan selama tiga bulan dan lokasi pengambilan bahan baku di Kampung Tambun Gg. Gabus Desa Buni Bakti Kecamatan Babelan Kabupaten Bekasi Jawa Barat. Proses penelitian ini dilakukan dengan diawali persiapan bahan baku, pengarangan, selanjutnya arang dihaluskan dan dicampur dengan perekat (tapioka), selanjutnya pencetakan serta pengeringan. Kemudian briket melalui tahap pengujian yaitu Kerapatan pada briket, laju pembakaran, kadar abu dan nilai kalor pada briket. Dari hasil pengamatan dan penelitian menunjukkan bahwa briket arang buah bintaro dan batang pohon jambu biji diketahui tingkat kerapatan tertinggi adalah 0.77 gram/cm3. Nilai laju pembakaran terendah adalah 0.20 gram/menit. Nilai kalor tertinggi adalah sebesar 7888 kkal/kg dan  Nilai kadar abu terendah adalah 25%.
本研究旨在确定使用民太郎果和番石榴树干作为制作木炭块的原材料所产生的木炭块的一些物理和化学特性。因此,本研究的目的是确定民太郎果和番石榴树干作为替代燃料制作木炭块的潜力,并确定所制作木炭块的物理和化学特性,以便了解其作为燃料或能源与市场上的消耗性木炭块相比的质量。研究人员希望这项研究的结果能够提供新的信息,以确保利用宾塔罗果实和番石榴树干作为制作木炭块的原材料。本研究进行了三个月,原材料采集地点位于布尼巴卡村的甘榜丹本加布斯(Kampung Tambun Gg. Gabus)。Gabus, Buni Bakti Village, Babelan District, Bekasi Regency, West Java.研究过程从原材料的准备、炭化开始,然后将木炭捣碎并与粘合剂(木薯粉)混合,再进行印刷和干燥。然后压块经过测试阶段,即压块的密度、燃烧率、灰分含量和热值。观察和研究结果表明,宾塔罗果炭块和番石榴树干的密度最高,为 0.77 克/立方厘米。最低燃烧速率值为 0.20 克/分钟。最高热值为 7888 千卡/千克,最低灰分含量为 25%。
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引用次数: 0
Pengaruh Variasi Stuktur Rangka Terhadap Kekuatan Pembebanan Pada Stasiun Pengisian Daya Listrik dengan Panel Surya 框架结构变化对太阳能电池板充电站负载强度的影响
Pub Date : 2023-12-01 DOI: 10.56904/imejour.v1i1.75
Ade Suparman, Ade Sunardi, Mohamad Zaenudin
The use of solar panels in electric power charging stations is becoming increasingly popular as part of efforts to adopt renewable energy sources. In this context, the structural framework supporting the solar panels plays a crucial role in maintaining the stability and reliability of the system. Therefore, this thesis aims to investigate the influence of various structural framework variations on the strength of static loading in solar-powered electric charging stations. The research methodology employed simulation of static loading at three different load levels, namely 40 kg, 50 kg, and 60 kg. The analysis was conducted by comparing the equivalent stresses and total deformations between "Design 1" and "Design 2" at each load level. The research findings reveal significant differences in equivalent stresses and total deformations between the two designs at each load level. Design 1, with a stiffer structural framework, exhibited higher equivalent stresses and greater total deformations compared to Design 2. Consequently, this study provides a deeper understanding of the influence of various structural framework variations on the strength of static loading in solar panel support structures. These findings can serve as a basis for optimizing the structural design of solar-powered electric charging systems.
作为采用可再生能源努力的一部分,在充电站中使用太阳能电池板正变得越来越流行。在这种情况下,支撑太阳能电池板的结构框架对保持系统的稳定性和可靠性起着至关重要的作用。因此,本论文旨在研究各种结构框架变化对太阳能充电站静载荷强度的影响。研究方法采用了三种不同负载水平(即 40 千克、50 千克和 60 千克)下的静态负载模拟。分析方法是比较 "设计 1 "和 "设计 2 "在每个负载水平下的等效应力和总变形。研究结果表明,两种设计在每个荷载水平下的等效应力和总变形量都存在显著差异。与 "设计 2 "相比,"设计 1 "的结构框架更坚固,表现出更高的等效应力和更大的总变形。因此,这项研究加深了人们对各种结构框架变化对太阳能电池板支撑结构静载荷强度影响的理解。这些发现可作为优化太阳能电动充电系统结构设计的基础。
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引用次数: 0
Rancang Bangun Stasiun Pengisian Daya Listrik Berbasis Panel Surya dengan Variasi Profil Pada Penopang Panel Surya 基于太阳能电池板的充电站设计与太阳能电池板支架的外形变化
Pub Date : 2023-12-01 DOI: 10.56904/imejour.v1i1.73
A. Saputra, Ade Sunardi, Mohamad Zaenudin
Solar panel-based electric charging stations are a combination of electricity sources and solar panels, allowing efficient and effective charging and helping to source electricity from natural energy in the form of renewable energy, namely the sun. The use of solar panels as the main energy source can reduce dependence on limited energy sources and produce lower greenhouse gas emissions and reduce dependence on fossil energy sources. The purpose of this thesis is to design and analyze the strength and durability of solar panel-based electric charging stations on their supports. The method used in this study is quantitative data taken using Ansys software simulations. The results showed that Design 1 on the solar panel supports had a maximum deformation of 0.2397 mm at an angle of 70 and design 2 produced a maximum deformation of 0.0052439 mm at an angle of 70 to the right/left. Based on these results, it can be concluded that the design of 1 solar panel support is better in terms of strength and durability because the load on the solar panel that is on the support only has an effect of 0.2397 mm which can withstand a load of around 320 N.
以太阳能电池板为基础的充电站是电力资源和太阳能电池板的结合,可以实现高效率、高效益的充电,并有助于从可再生能源(即太阳)形式的自然能源中获取电力。使用太阳能电池板作为主要能源,可以减少对有限能源的依赖,降低温室气体排放,减少对化石能源的依赖。本论文的目的是设计和分析基于太阳能电池板的充电站在其支架上的强度和耐用性。本研究采用的方法是使用 Ansys 软件模拟获取定量数据。结果表明,太阳能电池板支架上的设计 1 在角度为 70 时的最大变形量为 0.2397 毫米,而设计 2 在角度为 70 左右时的最大变形量为 0.0052439 毫米。根据这些结果,可以得出结论:设计 1 的太阳能电池板支架在强度和耐用性方面更胜一筹,因为支架上的太阳能电池板所承受的负荷仅为 0.2397 毫米,可承受约 320 牛顿的负荷。
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引用次数: 0
Analisis Ketahanan Rangka Stasiun Pengisian Kendaraan Listrik Berbasis Panel Surya Portabel Terhadap Laju Angin 基于太阳能电池板的便携式电动汽车充电站框架抗风速耐久性分析
Pub Date : 2023-12-01 DOI: 10.56904/imejour.v1i1.76
M. Imam, Ade Sunardi, Mohamad Zaenudin
High wind velocity can induce external pressures and loads on the structural framework of an Electric Vehicle Charging Station (EVCS), jeopardizing the overall stability and structural integrity of the framework. The objective of this research is to ascertain the magnitude of aerodynamic drag force and the maximum pressure values on the surface of the EVCS framework, with respect to variations in wind velocity. The methodology employed in this study involves Computational Fluid Dynamics (CFD) simulations utilizing the Solidworks Flow Simulation. Three wind velocity scenarios were considered: 3 km/h, 6 km/h, and 9 km/h, allowing for the observation of airflow acceleration phenomena, aerodynamic drag force values, and peak pressure distributions on the EVCS framework's surface. Research findings reveal that the aerodynamic drag force at a wind velocity of 3 km/h measures 22,34 N, escalating to 90,42 N at 6 km/h wind velocity, and reaching 202,7 N at 9 km/h wind velocity. Furthermore, the highest-pressure value at a wind velocity of 3 km/h is 101325,45 Pa. As the wind velocity increases to 6 km/h, the maximum pressure value rises to 101338,18 Pa. Under the condition of the highest input wind velocity, i.e., 9 km/h, the peak pressure reaches 101353,46 Pa.
高风速会对电动汽车充电站(EVCS)的结构框架造成外部压力和负荷,从而危及框架的整体稳定性和结构完整性。本研究的目的是确定风速变化对电动汽车充电站框架表面的空气阻力大小和最大压力值。本研究采用的方法包括利用 Solidworks Flow Simulation 进行计算流体动力学(CFD)模拟。考虑了三种风速情况:分别为 3 公里/小时、6 公里/小时和 9 公里/小时,以观察气流加速现象、空气阻力值以及 EVCS 框架表面的峰值压力分布。研究结果表明,风速为 3 千米/小时时的空气阻力为 22.34 牛顿,风速为 6 千米/小时时增加到 90.42 牛顿,风速为 9 千米/小时时达到 202.7 牛顿。此外,风速为 3 km/h 时的最高压力值为 101325.45 Pa。在最高输入风速(即 9 km/h)条件下,压力峰值达到 101353.46 Pa。
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引用次数: 0
期刊
Integrated Mechanical Engineering Journal
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