Viscoelastic Properties of Cell Structures Manufactured Using a Photo-Curable Additive Technology—PJM

This research paper reviews the test results involving viscoelastic properties of cellular structure models made with the PolyJet Matrix—PJM additive technology. The designed test specimens were of complex cellular structure and made of three various photo-curable polymer resin types. Materials were...

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Main Authors: Tomasz Kozior, Czesław Kundera
Format: Article
Language:English
Published: MDPI AG 2021-06-01
Series:Polymers
Subjects:
PJM
Online Access:https://www.mdpi.com/2073-4360/13/11/1895
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spelling doaj-c794a2c47e31470a99a5f241e60deb7b2021-06-30T23:32:40ZengMDPI AGPolymers2073-43602021-06-01131895189510.3390/polym13111895Viscoelastic Properties of Cell Structures Manufactured Using a Photo-Curable Additive Technology—PJMTomasz Kozior0Czesław Kundera1Department of Manufacturing Technology and Metrology, Kielce University of Technology, Al. Tysiąclecia Państwa Polskiego 7, 25-314 Kielce, PolandDepartment of Manufacturing Technology and Metrology, Kielce University of Technology, Al. Tysiąclecia Państwa Polskiego 7, 25-314 Kielce, PolandThis research paper reviews the test results involving viscoelastic properties of cellular structure models made with the PolyJet Matrix—PJM additive technology. The designed test specimens were of complex cellular structure and made of three various photo-curable polymer resin types. Materials were selected taking into account the so-called “soft” and “tough” material groups. Compressive stress relaxation tests were conducted in accordance with the recommendations of standard ISO 3384, and the impact of the geometric structure shape and material selection on viscoelastic properties, as well as the most favorable geometric variants of the tested cellular structure models were determined. Mathematica and Origin software was used to conduct a statistical analysis of the test results and determine five-parameter functions approximating relaxation curves. The most favorable rheological was adopted and its mean parameters determined, which enables to match both printed model materials and their geometry in the future, to make a component with a specific rheological response. Furthermore, the test results indicated that there was a possibility of modelling cellular structures within the PJM technology, using support material as well.https://www.mdpi.com/2073-4360/13/11/1895PJM3D printingrheologycellular structuresquality
collection DOAJ
language English
format Article
sources DOAJ
author Tomasz Kozior
Czesław Kundera
spellingShingle Tomasz Kozior
Czesław Kundera
Viscoelastic Properties of Cell Structures Manufactured Using a Photo-Curable Additive Technology—PJM
Polymers
PJM
3D printing
rheology
cellular structures
quality
author_facet Tomasz Kozior
Czesław Kundera
author_sort Tomasz Kozior
title Viscoelastic Properties of Cell Structures Manufactured Using a Photo-Curable Additive Technology—PJM
title_short Viscoelastic Properties of Cell Structures Manufactured Using a Photo-Curable Additive Technology—PJM
title_full Viscoelastic Properties of Cell Structures Manufactured Using a Photo-Curable Additive Technology—PJM
title_fullStr Viscoelastic Properties of Cell Structures Manufactured Using a Photo-Curable Additive Technology—PJM
title_full_unstemmed Viscoelastic Properties of Cell Structures Manufactured Using a Photo-Curable Additive Technology—PJM
title_sort viscoelastic properties of cell structures manufactured using a photo-curable additive technology—pjm
publisher MDPI AG
series Polymers
issn 2073-4360
publishDate 2021-06-01
description This research paper reviews the test results involving viscoelastic properties of cellular structure models made with the PolyJet Matrix—PJM additive technology. The designed test specimens were of complex cellular structure and made of three various photo-curable polymer resin types. Materials were selected taking into account the so-called “soft” and “tough” material groups. Compressive stress relaxation tests were conducted in accordance with the recommendations of standard ISO 3384, and the impact of the geometric structure shape and material selection on viscoelastic properties, as well as the most favorable geometric variants of the tested cellular structure models were determined. Mathematica and Origin software was used to conduct a statistical analysis of the test results and determine five-parameter functions approximating relaxation curves. The most favorable rheological was adopted and its mean parameters determined, which enables to match both printed model materials and their geometry in the future, to make a component with a specific rheological response. Furthermore, the test results indicated that there was a possibility of modelling cellular structures within the PJM technology, using support material as well.
topic PJM
3D printing
rheology
cellular structures
quality
url https://www.mdpi.com/2073-4360/13/11/1895
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