Response analysis on synthesized aluminium-scandium metal matrix composite using unconventional machining processes

With advances in technology coupled with Industry 4.0, it has become a reality to provide real time information along with monitoring 3D printing process remotely. The unique benefits associated with additive manufacturing (AM) is its potential to produce complex-shaped personalized products with reduced material waste, fewer cost of manufacture, lesser consumption of energy during manufacturing, while allowing in producing the products on-demand. This paper covers the features of cloud-based Additive Manufacturing (AM) by describing about Sustainable Distributed Manufacturing, Automated Order-Processing, Smart resource efficiency improvement, Big data-driven, smart and sustainable manufacturing, resource sharing between different stakeholders, rapid product development with cloud-based AM Platform (CAMP) and cloud-based manufacturing process monitoring. The paper aims to study the recent advances that took place in cloud-based AM and enlist its salient features to help researchers and manufacturing industry adopt the same and get the basic information. Big data-driven, smart and sustainable manufacturing is the present need of manufacturing at its full potential with secure, real-time communication and intelligent process monitoring and diagnostics.

Section: A Cloud-based Manufacturing Process Monitoringmentioning

confidence: 99%

A Perspective on Advances in Cloud-based Additive Manufacturing

Khan¹,

Arora²,

Kumar³

et al. 2022

“…The range of performance helps in reducing the ability of the system with a function of 20 to 94 C. The material of the matrix composite increases the concept of the criteria of different temperatures. The particles are heated on the surfaces of different sequences of operation on the density of the system [6][7][8] Panwar et al 9) stated that the distribution of the system is uniformly spread based on suitable characteristics of the system. The fabrication of metal matrix composite evaluates the presence of different systems on the structure of a suitable crystal.…”

Section: Literature Reviewmentioning

confidence: 99%

Fabrication and Machining of Metal Matrix Composite Using Electric Discharge Machining: A Short Review

Jain¹,

Kumar²,

Shrivastava³

2021

Metal Matrix composite is a metal reinforced with two or more constituents which can be any other materials either metal or non-metal. Metal matrix composites (MMCs), which are inherently intelligent, are lightweight and high-performance, ever-expanding materials. The structural and functional properties of these materials may be modified by industrial requirements. Researchers and the industry are attracted by the process technology used in the production and processing of these products. The hybrid-electric discharge process for MMCs is a promising and the most effective nonconventional process. It has greater expertise in manufacturing complex shapes with greater precision. This paper gives an updated analysis of the development and advantages of various routes for composite manufacturing and machining. It reports on several realistic analyzes and study results, including various manufacturing and processing problems for MMC Since the last few years, hybrid electrical discharge machining has been an active field of research in critical and nonconventional machining. This paper includes annual research in production, traditional machining, unconventional machining, and hybrid MMC machining. The final part of the paper addresses conclusions and future scope.

“…The material is removed from the work piece due to erosion 13) , 14) . Kumar et al discussed the effects of powder particles on the machined surface of a work piece, powder particles from the tool electrode migrate to the machined surface and decrease voids and microcrakes, and these powder particles help to obtain a better machined surface 15) . Prasanna et al discussed about the effects of various machining parameters such as input current, Ton, voltage gap, duty factor at different levels for material removal rate (MRR) and tool wear rate (TWR) for Ti-6Al-4V work piece material and tungsten copper composite was used as an electrode tool.…”

Section: Introductionmentioning

confidence: 99%

Effects of Nanoparticles on the MRR and TWR of graphene-based Composite by Electro discharge Machining

Sharma¹,

Mausam²,

Sharma³

2022

In the current scenario, Graphene-based carbon fiber composite is highly used nanomaterial for the work-piece material that is employed in various applications (aerospace, automotive) due to its light weight, great strength, as well as high strength-to-weight ratio. In the experimental work, copper based tool electrode is used to remove the material. The work approach involves the four processing parameters of EDM such as input current (Ip), voltage gap (Vg), pulse on time (Ton) and pulse off time (Toff) which was used to evaluate the material removal rate (MRR) and tool wear rate (TWR). For optimization of MRR and TWR via processing parameters, Taguchi method was used in the experimental work. The L9 orthogonal array was generated using MINITAB 17 software. The work analysis approaches towards the different weight fractions of (0.1 and 0.3wt% of graphene) in carbon fibre composite for comparing the MRR and TWR. The effects of processing parameters on MRR and TWR via EDM oil and copper nanoparticles is examine. The MRR and TWR via Copper nanoparticle mixed EDM oil was observed to have the maximum and minimum value respectively as compared to normal EDM oil. The suitable value of MRR and TWR was observed with 0.3wt% of graphene in carbon fibre composite as compared to 0.1wt% of graphene via copper nanoparticle mixed EDM oil.