Peel adhesion of acrylic pressure-sensitive adhesives on selected substrates versus their surface energies

Sowa, Dominika; Czech, Zbigniew; Byczyński, Łukasz

doi:10.1016/j.ijadhadh.2013.12.013

Cited by 60 publications

(24 citation statements)

References 7 publications

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“…The bonding mechanism involves comprehensive understanding of simultaneous cohesion (the internal strength among protein molecules) and adhesion (the tendency of the protein molecule to stick to a wood surface) [35]. The loop tack test could be an easy way to evaluate the cohesion and adhesion properties of polymer adhesives, particularly pressure-sensitive adhesives.…”

Section: Tacky Forcementioning

confidence: 99%

Correlation between Physical Properties and Shear Adhesion Strength of Enzymatically Modified Soy Protein‐Based Adhesives

Kim

Sun

2015

J Americ Oil Chem Soc

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This work was to correlate physical properties with adhesion properties of soy protein‐based adhesives. By building such a correlation, the adhesion properties can be predicted by measuring physical properties of soy protein‐based adhesives. In this context, three important physical properties, viscosity, tacky force, and water resistance, were selected to correlate with adhesion strength of enzymatically modified soy protein‐based adhesives (ESP). Response surface methodology, specifically central composite design, was used with three independent variables to prepare ESP: trypsin concentration (X1), incubation time (X2), and glutaraldehyde (GA) concentration (X3). The three physical properties measured were all greatly affected by our three independent variables with significance at the 95 % confidence level. The responses were then correlated with the adhesion properties of ESP. In conclusion, viscosity can be used to predict the dry adhesion strength of ESP based on the coefficient of determination (R2) of 0.8558. In addition, tacky force and water resistance can be used to represent wet adhesion strength of ESP based on R2 of 0.7082 and 0.6930, respectively (P < 0.05). This work preliminarily identified the significant physical properties that can predict the adhesion strength of the ESP system crosslinked with GA, but the results need to be further confirmed by another protein modification system to give a generic conclusion.

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Section: Tacky Forcementioning

confidence: 99%

Correlation between Physical Properties and Shear Adhesion Strength of Enzymatically Modified Soy Protein‐Based Adhesives

Kim

Sun

2015

J Americ Oil Chem Soc

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“…They demonstrate high temperature resistance and high adhesion performance. [1][2][3] Apart from a number of unquestionable advantages, there are also significant drawbacks of glued structures, such as relatively low durability and fatigue strength, when compared to other joining techniques. [4,5] The best polymer materials for adhesive bonding, with high cohesive performance, are epoxy resin adhesives.…”

Section: Introductionmentioning

confidence: 99%

“…[33][34][35][36][37] In the former, a series of tests under various loads is performed in order to obtain the plot of stress vs. the number of cycles to failure, which is known as the S-N curve or Wohler's curve. [20] Many workers [1][2][3][4][5] have investigated the strength and fatigue performance of the joints used in vehicle structures. These joints are mainly subjected to dynamic loading.…”

Section: Introductionmentioning

confidence: 99%

Investigating the influence of the chamfer and fillet on the high-cyclic fatigue strength of adhesive joints of steel parts

Zielecki

Kluz

Trzepieciński

2016

Journal of Adhesion Science and Technology

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This paper presents the results of research undertaken to determine the possibility of improving the fatigue properties of peel-loaded adhesive-bonded joints by the constructional modification of the adherend. Fatigue strength tests were carried out on the electromagnetic inductor at the resonance frequency of the adhesivebonded joint specimens. The tests were carried out on the specimens bonded by means of Bison Epoxy and Epidian 57 epoxy compositions with poly-aluminium chloride hardener. The joined elements were modified by making the chamfer or fillet to enlarge the thickness of the adhesive layer with the aim of reducing the stress concentration in the frontal part of the joint. This modification is the result of a research that confirms the existence of a stress concentration on the short section of the frontal part of an adhesive joint. This phenomenon can lead to the rapid initiation of adhesive joint destruction. The fatigue strength tests revealed a significant improvement in fatigue endurance.

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“…In order to understand the fundamentals of the peeling mechanism of pressuresensitive adhesives (PSA), numerous studies have been published on the effects of material CONTACT atsushi suzuki asuzuki@ynu.ac.jp specifications such as the degree of cross-linking, [1,2] thickness, [3], and backing layer of adhesive tapes [4][5][6][7] on the peel force, F. It has been well established that experimental conditions of peeling such as temperature, peel velocity, and peel angle all affect F. There are also many papers that describe adhesion on human skin, [8][9][10][11][12][13] which is studied by measuring the adherence properties of PSA when they are stuck on the human skin. Since the structure of skin tissue is complex, it is difficult to analyze the influence of the different factors that determine the adhesive force by using skin as an adherend.…”

Section: Introductionmentioning

confidence: 99%

Effects of peel angle on peel force of adhesive tape from soft adherend

Sugizaki

Shiina

Takai

et al. 2016

Journal of Adhesion Science and Technology

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In the case of the peeling of adhesive tapes from soft adherends, the contributions of the compressive force at the adhered portion as well as the larger deformation of adherend have essential roles in determining the peeling properties. In this paper, the peel force of an adhesive tape from a soft adherend has been measured to understand the peeling mechanism, which is greatly affected by the peel angle. A commercially available pressure-sensitive adhesive was used as the tape, and a cross-linked polydimethylsiloxane (PDMS) was used as the soft adherend. The purpose of this study is to clarify the effects of the peel angle on the peel behavior of this system at room temperature under different material specifications and different experimental conditions. The factors that affect the peel force of the PDMS adherend included the degree of cross-linking in PDMS, the thickness of PDMS, peel angle, and peel velocity. Two characteristic peel patterns were observed, which depended on the material specifications and different experimental conditions. The peel mechanism was discussed in terms of the deformation of the adherend.

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Peel adhesion of acrylic pressure-sensitive adhesives on selected substrates versus their surface energies

Cited by 60 publications

References 7 publications

Correlation between Physical Properties and Shear Adhesion Strength of Enzymatically Modified Soy Protein‐Based Adhesives

Correlation between Physical Properties and Shear Adhesion Strength of Enzymatically Modified Soy Protein‐Based Adhesives

Investigating the influence of the chamfer and fillet on the high-cyclic fatigue strength of adhesive joints of steel parts

Effects of peel angle on peel force of adhesive tape from soft adherend

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