[1] CAO Y, WANG H. The OLED technology, the performance and deficiency of flexible OLED[J]. Advanced Display, 36-39(2008).

[2] LEE C C, SHIH Y S, WU C S et al. Development of robust flexible OLED encapsulations using simulated estimations and experimental validations[J]. Journal of Physics D: Applied Physics, 45, 275102(2012).

[3] LEE S M, KWON J H, KWON S et al. A review of flexible OLEDs toward highly durable unusual displays[J]. IEEE Transactions on Electron Devices, 64, 1922-1931(2017).

[4] LIAO L S, KLUBEK K P, TANG C W. High-efficiency tandem organic light-emitting diodes[J]. Applied Physics Letters, 84, 167-169(2004).

[5] KIDO J, MATSUMOTO T, NAKADA T et al. High efficiency organic EL devices having charge generation layers[J]. SID Symposium Digest of Technical Papers, 34, 964-965(2003).

[6] ZHANG X N, ZHAI L J, WANG Y Z et al. The analysis of defects produced by the two OCA lamination ways[J]. Advanced Display, 35-36, 54(2011).

[7] GAO Y, WANG C, LI L. Design of vacuum chuck in backlight used to fetched optical film[J]. Equipment for Electronic Products Manufacturing, 42, 58-60(2013).

[8] WANG H S, SHI T L. High precision alignment system research and development in machine vision[J]. Optical Technique, 30, 235-236, 239(2004).

[9] DUAN Y X, ZHANG K F, WANG Z Q et al. Peeling stress model and analysis of single-L carbon fiber reinforced plastic/polymer/Al composite component[J]. Journal of Mechanical Engineering, 48, 44-50(2012).

[10] NIU Y F, LIU S F, CHIOU J Y et al. Improving the flexibility of AMOLED display through modulating thickness of layer stack structure[J]. Journal of the Society for Information Display, 24, 293-298(2016).

[11] SHI Y, ROGERS J A, GAO C F et al. Multiple neutral axes in bending of a multiple-layer beam with extremely different elastic properties[J]. Journal of Applied Mechanics, 81, 114501(2014).

[12] YEH M K, CHANG L Y, LU M R et al. Bending stress analysis of flexible touch panel[J]. Microsystem Technologies, 20, 1641-1646(2014).

[13] SALMON F, EVERAERTS A, CAMPBELL C et al. Modeling the mechanical performance of a foldable display panel bonded by 3M optically clear adhesives[J]. SID Symposium Digest of Technical Papers, 48, 938-941(2017).

[14] WANG H J, HSIEH M, XIE C Y et al. Influence of substrate structure on the properties of flexible AMOLED displays[J]. SID Symposium Digest of Technical Papers, 47, 1526-1528(2016).

[15] CHIOU J Y, LIU Y W, NIU Y F et al. Optimization of TFE structure by FTIR analysis and mechanical simulation to achieve excellent encapsulation and high flexibility AMOLED[J]. SID Symposium Digest of Technical Papers, 48, 437-440(2017).

[16] DANG P L, LIU Y L, MA Y X et al. Study on environmental mechanical reliability test used for flexible display devices[J]. Information Technology & Standardization, 23-25(2020).

[17] LIU Z Z, LIAO D M, JIA Y Z et al. Stress simulation of foldable OLED screen bending[J]. Chinese Journal of Liquid Crystals and Displays, 33, 555-560(2018).

[18] ZHENG H B, WANG Y, WANG N et al. Analysis of metal layer in flexible screen on COF bending[J]. Chinese Journal of Liquid Crystals and Displays, 36, 1121-1127(2021).

[19] LI K. Development of automatically laminating equipment for touch-screen[J]. Machine Tool & Hydraulics, 46, 143-148(2018).

[20] PEN H M, WANG L, NI N et al. Finite element simulation in micromachining nanosized silicon carbide particles reinforced composite materials based on cohesive zone model[C], 1-8(2017).

[21] HU N, ZEMBA Y, FUKUNAGA H. Simulations of delamination propagation in composite laminates under static and low-velocity impact transverse loads using a new cohesive model[J]. Advanced Materials Research, 32, 137-140(2008).

[22] WANG N, LIU Y Q, WANG B et al. Failure analysis of the coating of transmission mechanism based on cohesive zone model[J]. Journal of Mechanical Strength, 41, 1188-1193(2019).

[23] YANG Z J, HUANG Y J, YAO F et al. Three-dimensional meso-scale cohesive fracture modeling of concrete using a python script in abaqus[J]. Engineering Mechanics, 37, 158-166(2020).

[24] PARK K, CHOI H, PAULINO G H. Assessment of cohesive traction-separation relationships in ABAQUS: a comparative study[J]. Mechanics Research Communications, 78, 71-78(2016).

[25] RAMAMURTHI M, KIM Y S. Delamination characterization of bonded interface using surface based cohesive model[C], 289-296(2012).

[26] LIU M, LI X. The finite element formulation for a 2D quadratic cohesive element and its program implementation of UEL in ABAQUS[J]. Chinese Journal of Computational Mechanics, 36, 693-698(2019).

[27] ZHOU P, FANG C P, WANG G L et al. Debonding analysis of adhesive interface in SRM based on complex stress-state cohesive zone model[J]. Journal of Solid Rocket Technology, 43, 554-559(2020).

[28] ZHANG Y J, GENG X L, GAN J et al. Experiment and simulations of stiffened panel buckling with composite damage and interfacial delamination[J]. Chinese Journal of Applied Mechanics, 30, 19-24(2013).

[29] SU X T, YANG Z J, LIU G H. Finite element modelling of complex 3D static and dynamic crack propagation by embedding cohesive elements in Abaqus[J]. Acta Mechanica Solida Sinica, 23, 271-282(2010).

[30] ZHU W L, LUO D M. The application of the cohesive zone model on the analysis of mechanical properties of carbon nano-tube composites with debonding interface[C], 153-156(2011).