Modelling and characterization of ultrasonic consolidation process of Aluminium alloys

Amir Siddiq, Elaheh Ghassemieh

Research output: Chapter in Book/Report/Conference proceedingConference contribution

5 Citations (Scopus)

Abstract

Ultrasonic consolidation process is a rapid manufacturing process used to join thin layers of metal at low temperatures and low energy consumption. In this work, finite element method has been used to simulate the ultrasonic consolidation of Aluminium alloys 6061 (AA-6061) and 3003 (AA-3003). A thermomechanical material model has been developed in the framework of continuum cyclic plasticity theory which takes into account both volume (acoustic softening) and surface (thermal softening due to friction) effects. A friction model based on experimental studies has been developed, which takes into account the dependence of coefficient of friction upon contact pressure, amount of slip, temperature and number of cycles. Using the developed material and friction model ultrasonic consolidation (UC) process has been simulated for various combinations of process parameters involved. Experimental observations are explained on the basis of the results obtained in the present study. The current research provides the opportunity to explain the differences of the behaviour of AA-6061 and AA-3003 during the ultrasonic consolidation process. Finally, trends of the experimentally measured fracture energies of the bonded specimen are compared to the predicted friction work at the weld interface resulted from the simulation at similar process condition. Similarity of the trends indicates the validity of the developed model in its predictive capability of the process.

Original languageEnglish
Title of host publicationMaterials Research Society Symposium Proceedings
Pages125-132
Number of pages8
Volume1079
Publication statusPublished - 1 Dec 2008
Event2008 MRS Spring Meeting - San Francisco, CA, United Kingdom
Duration: 24 Mar 200828 Mar 2008

Conference

Conference2008 MRS Spring Meeting
CountryUnited Kingdom
CitySan Francisco, CA
Period24/03/0828/03/08

Fingerprint

consolidation
Consolidation
aluminum alloys
Aluminum alloys
friction
ultrasonics
Ultrasonics
Friction
softening
trends
energy consumption
plastic properties
Fracture energy
coefficient of friction
finite element method
slip
manufacturing
Plasticity
continuums
Welds

ASJC Scopus subject areas

  • Mechanical Engineering
  • Mechanics of Materials
  • Materials Science(all)
  • Condensed Matter Physics

Cite this

Siddiq, A., & Ghassemieh, E. (2008). Modelling and characterization of ultrasonic consolidation process of Aluminium alloys. In Materials Research Society Symposium Proceedings (Vol. 1079, pp. 125-132)

Modelling and characterization of ultrasonic consolidation process of Aluminium alloys. / Siddiq, Amir; Ghassemieh, Elaheh.

Materials Research Society Symposium Proceedings. Vol. 1079 2008. p. 125-132.

Research output: Chapter in Book/Report/Conference proceedingConference contribution

Siddiq, A & Ghassemieh, E 2008, Modelling and characterization of ultrasonic consolidation process of Aluminium alloys. in Materials Research Society Symposium Proceedings. vol. 1079, pp. 125-132, 2008 MRS Spring Meeting, San Francisco, CA, United Kingdom, 24/03/08.
Siddiq A, Ghassemieh E. Modelling and characterization of ultrasonic consolidation process of Aluminium alloys. In Materials Research Society Symposium Proceedings. Vol. 1079. 2008. p. 125-132
Siddiq, Amir ; Ghassemieh, Elaheh. / Modelling and characterization of ultrasonic consolidation process of Aluminium alloys. Materials Research Society Symposium Proceedings. Vol. 1079 2008. pp. 125-132
@inproceedings{f307bf123cec4f2bb21d77e4148795e5,
title = "Modelling and characterization of ultrasonic consolidation process of Aluminium alloys",
abstract = "Ultrasonic consolidation process is a rapid manufacturing process used to join thin layers of metal at low temperatures and low energy consumption. In this work, finite element method has been used to simulate the ultrasonic consolidation of Aluminium alloys 6061 (AA-6061) and 3003 (AA-3003). A thermomechanical material model has been developed in the framework of continuum cyclic plasticity theory which takes into account both volume (acoustic softening) and surface (thermal softening due to friction) effects. A friction model based on experimental studies has been developed, which takes into account the dependence of coefficient of friction upon contact pressure, amount of slip, temperature and number of cycles. Using the developed material and friction model ultrasonic consolidation (UC) process has been simulated for various combinations of process parameters involved. Experimental observations are explained on the basis of the results obtained in the present study. The current research provides the opportunity to explain the differences of the behaviour of AA-6061 and AA-3003 during the ultrasonic consolidation process. Finally, trends of the experimentally measured fracture energies of the bonded specimen are compared to the predicted friction work at the weld interface resulted from the simulation at similar process condition. Similarity of the trends indicates the validity of the developed model in its predictive capability of the process.",
author = "Amir Siddiq and Elaheh Ghassemieh",
year = "2008",
month = "12",
day = "1",
language = "English",
isbn = "9781605608648",
volume = "1079",
pages = "125--132",
booktitle = "Materials Research Society Symposium Proceedings",

}

TY - GEN

T1 - Modelling and characterization of ultrasonic consolidation process of Aluminium alloys

AU - Siddiq, Amir

AU - Ghassemieh, Elaheh

PY - 2008/12/1

Y1 - 2008/12/1

N2 - Ultrasonic consolidation process is a rapid manufacturing process used to join thin layers of metal at low temperatures and low energy consumption. In this work, finite element method has been used to simulate the ultrasonic consolidation of Aluminium alloys 6061 (AA-6061) and 3003 (AA-3003). A thermomechanical material model has been developed in the framework of continuum cyclic plasticity theory which takes into account both volume (acoustic softening) and surface (thermal softening due to friction) effects. A friction model based on experimental studies has been developed, which takes into account the dependence of coefficient of friction upon contact pressure, amount of slip, temperature and number of cycles. Using the developed material and friction model ultrasonic consolidation (UC) process has been simulated for various combinations of process parameters involved. Experimental observations are explained on the basis of the results obtained in the present study. The current research provides the opportunity to explain the differences of the behaviour of AA-6061 and AA-3003 during the ultrasonic consolidation process. Finally, trends of the experimentally measured fracture energies of the bonded specimen are compared to the predicted friction work at the weld interface resulted from the simulation at similar process condition. Similarity of the trends indicates the validity of the developed model in its predictive capability of the process.

AB - Ultrasonic consolidation process is a rapid manufacturing process used to join thin layers of metal at low temperatures and low energy consumption. In this work, finite element method has been used to simulate the ultrasonic consolidation of Aluminium alloys 6061 (AA-6061) and 3003 (AA-3003). A thermomechanical material model has been developed in the framework of continuum cyclic plasticity theory which takes into account both volume (acoustic softening) and surface (thermal softening due to friction) effects. A friction model based on experimental studies has been developed, which takes into account the dependence of coefficient of friction upon contact pressure, amount of slip, temperature and number of cycles. Using the developed material and friction model ultrasonic consolidation (UC) process has been simulated for various combinations of process parameters involved. Experimental observations are explained on the basis of the results obtained in the present study. The current research provides the opportunity to explain the differences of the behaviour of AA-6061 and AA-3003 during the ultrasonic consolidation process. Finally, trends of the experimentally measured fracture energies of the bonded specimen are compared to the predicted friction work at the weld interface resulted from the simulation at similar process condition. Similarity of the trends indicates the validity of the developed model in its predictive capability of the process.

UR - http://www.scopus.com/inward/record.url?scp=70350576576&partnerID=8YFLogxK

M3 - Conference contribution

SN - 9781605608648

VL - 1079

SP - 125

EP - 132

BT - Materials Research Society Symposium Proceedings

ER -