CV


FA
Mohammad Honarpishe

Mohammad Honarpishe

Professor

College: Faculty of Mechanical Engineering

Department: Mechanical Engineering - Manufacturing and Production

Degree: Ph.D

CV
FA
Mohammad Honarpishe

Professor Mohammad Honarpishe

College: Faculty of Mechanical Engineering - Department: Mechanical Engineering - Manufacturing and Production Degree: Ph.D |

Design and manufacturing of an innovative rolling ball tool: A step forward towards the development of SPIF process

Authorsمصطفی نیکوئی فر,ابوالفضل واهب,محمد هنرپیشه
JournalProceedings of the Institution of Mechanical Engineers, Part E: Journal of Process Mechanical Engineering
Page number1593
Volume number236
IF1.822
Paper TypeFull Paper
Published At2022-01-06
Journal GradeScientific - research
Journal TypeElectronic
Journal CountryIran, Islamic Republic Of
Journal IndexJCR ,SCOPUS
Keywordssingle, point incremental forming (SPIF), rolling ball tool, Surface roughness, forming force, forming depth

Abstract

Incremental sheet forming (ISF) is an innovative forming technology which is widely used in various sectors of mechanical production. This is particularly useful for rapid prototyping and limited batch without a specific die. A new class of this method is single-point incremental forming (SPIF). This paper presents a comprehensive experimental investigation on the SPIF of Aluminum sheets, and, in particular, the influence of the forming tool is taken into account. A new rolling ball tool is designed to follow this, and the formability of the Aluminum sheets under the SPIF procedure is investigated for both new and conventional tools. Moreover, a number of important process parameters such as the feed rate, forming force, and surface roughness are considered in the experiments’ design. Finally, the optimal conditions in achieving a developed SPIF procedure in terms of the mentioned factors are reported and discussed. The findings of this work suggest that the surface quality after the forming process can be enhanced by 55% when using the new designed tool, while the forming force is reduced by 38% at the same time.