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Engineering
多層成膜の層の厚さを決定する指向性エネルギー蒸着法による Ti 6al-4 v の単一トラックの生産
多層成膜の層の厚さを決定する指向性エネルギー蒸着法による Ti 6al-4 v の単一トラックの生産
JoVE Journal
Engineering
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JoVE Journal Engineering
Production of Single Tracks of Ti-6Al-4V by Directed Energy Deposition to Determine the Layer Thickness for Multilayer Deposition

多層成膜の層の厚さを決定する指向性エネルギー蒸着法による Ti 6al-4 v の単一トラックの生産

Full Text
9,739 Views
09:12 min
March 13, 2018

DOI: 10.3791/56966-v

Abdollah Saboori1, Simona Tusacciu2, Mattia Busatto2, Manuel Lai2, Sara Biamino1, Paolo Fino1, Mariangela Lombardi1

1Department of Applied Science and Technology,Politecnico di Torino, 2IRIS S.r.l.

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Please note that some of the translations on this page are AI generated. Click here for the English version.

Overview

This research presents a rapid method for estimating the layer thickness of Ti-6Al-4V components produced by directed energy deposition. The method focuses on melt pool characterization to optimize fabrication parameters.

Key Study Components

Area of Science

  • Materials Science
  • Additive Manufacturing
  • Metallurgy

Background

  • Directed energy deposition is an additive manufacturing technique.
  • It allows for the creation of medium to large metallic parts from powders.
  • Process parameters are crucial for producing high-density, defect-free parts.
  • Conventional optimization methods can lead to material waste.

Purpose of Study

  • To determine the effects of process parameters on layer thickness.
  • To identify optimal parameters for larger metallic part fabrication.
  • To reduce waste from over/under-deposition.

Methods Used

  • Characterization of melt pool properties.
  • Production of single tracks from metallic powders.
  • Analysis of different directed energy deposition parameters.
  • Estimation of layer thickness based on melt pool characteristics.

Main Results

  • Identification of optimal parameters for layer thickness.
  • Demonstration of time and cost savings in the optimization process.
  • Characterization results that support the proposed method.
  • Potential for improved fabrication of larger metallic parts.

Conclusions

  • The developed method effectively estimates layer thickness.
  • It offers a significant advantage over conventional optimization techniques.
  • This approach can enhance the efficiency of additive manufacturing processes.

Frequently Asked Questions

What is directed energy deposition?
Directed energy deposition is an additive manufacturing technology used to create metallic parts from powders.
How does melt pool characterization help in manufacturing?
It allows for the estimation of layer thickness and optimization of process parameters.
What are the advantages of the proposed method?
The method is time and cost-saving, reducing material waste during fabrication.
What materials were used in this study?
The study focused on Ti-6Al-4V components.
Can this method be applied to other materials?
While this study focuses on Ti-6Al-4V, the method may be adaptable to other metallic powders.
What is the significance of layer thickness in additive manufacturing?
Layer thickness affects the density and quality of the final part produced.

本研究では、指向性エネルギー蒸着法による Ti 6al-4 v 材の層の厚さを推定する溶融プールの特性評価に基づく迅速法を開発します。

この手順の全体的な目標は、さまざまな指向性エネルギー堆積プロセスパラメータが層の厚さやその他のメルトプール特性に及ぼす影響を判断し、より大きな金属部品の製造に最適なパラメータを特定することです。指向性エネルギー堆積法は、金属粉末から中大寸法の金属部品を作成するための積層造形技術です。各粉末は、高密度で欠陥のない部品を製造するためのプロセスパラメータを必要とします。

従来のプロセスパラメータの最適化には、層の高さの仮定によって引き起こされる過剰/過少堆積による廃棄物がよく含まれていました。この手法の主な利点は、時間とコストを節約できることです。この最適化手法は、金属粉末からのシングルトラックの製造と特性評価に基づいています。

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問題 133 工学 エネルギー蒸着の監督 Ti 6al-4 v 溶融プール 単線 スキャン速度 レーザー パワー

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