Estimation of detaching resistance of a peeled in-plane layer of a white-coated paperboard using fluffing resistance and an isotropic elasticity model

This paper aims to describe an in-plane detaching resistance of a white-coated paperboard subjected to a peeling deformation. Since the paperboard is composed of fibrous plies, its detaching mechanism seems to be different from a crack propagation of a fragile material. In this work, an internal bre...

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Main Authors: Weerayut JINA, Shigeru NAGASAWA, Seksan CHAIJIT
Format: Article
Language:English
Published: The Japan Society of Mechanical Engineers 2017-05-01
Series:Journal of Advanced Mechanical Design, Systems, and Manufacturing
Subjects:
Online Access:https://www.jstage.jst.go.jp/article/jamdsm/11/2/11_2017jamdsm0018/_pdf/-char/en
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author Weerayut JINA
Shigeru NAGASAWA
Seksan CHAIJIT
author_facet Weerayut JINA
Shigeru NAGASAWA
Seksan CHAIJIT
author_sort Weerayut JINA
collection DOAJ
description This paper aims to describe an in-plane detaching resistance of a white-coated paperboard subjected to a peeling deformation. Since the paperboard is composed of fibrous plies, its detaching mechanism seems to be different from a crack propagation of a fragile material. In this work, an internal breaking criteria and transient de-lamination of a weak-bonded layer of paperboard was experimentally investigated through a peel cohesion test (PCT), and its detaching resistance was estimated with a fluffing model using a finite element method (FEM) code to characterize the peeling deformation of the weak-bonded layer. A white-coated paperboard of 0.45 mm thickness (basis weight of 350 g·m-2) was chosen for conducting a PCT and z-directional (out-of-plane) tensile test (ZDTT). The relationship between the pulling force and curvature of delaminated upper layer of the paperboard were discussed; moreover, the anaphase yielding resistance of detaching was analyzed through ZDTT. The peeled deformation of PCT was analyzed using the isotropic elasticity FEM model, which was developed through the ring crush test. The results were as follows: (1) The in-plane detaching resistance of whitecoated paperboard by PCT is experimentally characterized for observing with the maximum peak at early stage and the stationary line force. These line forces are almost independent of the paper-making direction. (2) A fluffing profile of the de-laminated layer and the thickness of the peeled upper layer experimentally depend on the pulling velocity. (3) Regarding the detaching resistance of peeled layer, a fluffing model was proposed in the developed simulation model. Equivalent fibers based fluffing model that were derived from a ZDTT experiment (approximated as discretely distributed nonlinear springs) well explains the existence of the peak point of peeling force and saturated peel resistance.
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spelling doaj.art-1335706be7d242c3a34ef33ed9ea5b8f2022-12-22T03:02:13ZengThe Japan Society of Mechanical EngineersJournal of Advanced Mechanical Design, Systems, and Manufacturing1881-30542017-05-01112JAMDSM0018JAMDSM001810.1299/jamdsm.2017jamdsm0018jamdsmEstimation of detaching resistance of a peeled in-plane layer of a white-coated paperboard using fluffing resistance and an isotropic elasticity modelWeerayut JINA0Shigeru NAGASAWA1Seksan CHAIJIT2Department of Mechanical Engineering, Nagaoka University of TechnologyDepartment of Mechanical Engineering, Nagaoka University of TechnologyDepartment of Mechatronics Engineering, Pathumwan Institute of TechnologyThis paper aims to describe an in-plane detaching resistance of a white-coated paperboard subjected to a peeling deformation. Since the paperboard is composed of fibrous plies, its detaching mechanism seems to be different from a crack propagation of a fragile material. In this work, an internal breaking criteria and transient de-lamination of a weak-bonded layer of paperboard was experimentally investigated through a peel cohesion test (PCT), and its detaching resistance was estimated with a fluffing model using a finite element method (FEM) code to characterize the peeling deformation of the weak-bonded layer. A white-coated paperboard of 0.45 mm thickness (basis weight of 350 g·m-2) was chosen for conducting a PCT and z-directional (out-of-plane) tensile test (ZDTT). The relationship between the pulling force and curvature of delaminated upper layer of the paperboard were discussed; moreover, the anaphase yielding resistance of detaching was analyzed through ZDTT. The peeled deformation of PCT was analyzed using the isotropic elasticity FEM model, which was developed through the ring crush test. The results were as follows: (1) The in-plane detaching resistance of whitecoated paperboard by PCT is experimentally characterized for observing with the maximum peak at early stage and the stationary line force. These line forces are almost independent of the paper-making direction. (2) A fluffing profile of the de-laminated layer and the thickness of the peeled upper layer experimentally depend on the pulling velocity. (3) Regarding the detaching resistance of peeled layer, a fluffing model was proposed in the developed simulation model. Equivalent fibers based fluffing model that were derived from a ZDTT experiment (approximated as discretely distributed nonlinear springs) well explains the existence of the peak point of peeling force and saturated peel resistance.https://www.jstage.jst.go.jp/article/jamdsm/11/2/11_2017jamdsm0018/_pdf/-char/enpaperboardpeel cohesion testdelaminationfem modelfluffing
spellingShingle Weerayut JINA
Shigeru NAGASAWA
Seksan CHAIJIT
Estimation of detaching resistance of a peeled in-plane layer of a white-coated paperboard using fluffing resistance and an isotropic elasticity model
Journal of Advanced Mechanical Design, Systems, and Manufacturing
paperboard
peel cohesion test
delamination
fem model
fluffing
title Estimation of detaching resistance of a peeled in-plane layer of a white-coated paperboard using fluffing resistance and an isotropic elasticity model
title_full Estimation of detaching resistance of a peeled in-plane layer of a white-coated paperboard using fluffing resistance and an isotropic elasticity model
title_fullStr Estimation of detaching resistance of a peeled in-plane layer of a white-coated paperboard using fluffing resistance and an isotropic elasticity model
title_full_unstemmed Estimation of detaching resistance of a peeled in-plane layer of a white-coated paperboard using fluffing resistance and an isotropic elasticity model
title_short Estimation of detaching resistance of a peeled in-plane layer of a white-coated paperboard using fluffing resistance and an isotropic elasticity model
title_sort estimation of detaching resistance of a peeled in plane layer of a white coated paperboard using fluffing resistance and an isotropic elasticity model
topic paperboard
peel cohesion test
delamination
fem model
fluffing
url https://www.jstage.jst.go.jp/article/jamdsm/11/2/11_2017jamdsm0018/_pdf/-char/en
work_keys_str_mv AT weerayutjina estimationofdetachingresistanceofapeeledinplanelayerofawhitecoatedpaperboardusingfluffingresistanceandanisotropicelasticitymodel
AT shigerunagasawa estimationofdetachingresistanceofapeeledinplanelayerofawhitecoatedpaperboardusingfluffingresistanceandanisotropicelasticitymodel
AT seksanchaijit estimationofdetachingresistanceofapeeledinplanelayerofawhitecoatedpaperboardusingfluffingresistanceandanisotropicelasticitymodel