Optimization of Performance of Bamboo Mat Corrugated Sheets Using Response Surface Methodology


  • Li Gao
  • Shupin Luo
  • Wenjing Guo


In this study, a bamboo composite with a corrugated structure, bamboo mat corrugated sheets (BMCS), was manufactured. As subset of the response surface methodology, Box–Behnken design was used for designing experiments, statistically modeling the processing conditions–properties relationships, and for identification of the potentially optimum conditions for BMCS. Three variables (MC, pressing temperature, and pressing time) at three levels were studied. Results showed that all the tested properties (deformation ratio, failing load, bending strength, and impact strength) were best described by quadratic regression models. Keeping MC at higher level significantly decreased the deformation ratio. All the three factors and interactions between any two of them were significant model terms for failing load. Pressing temperature, pressing time, and their interactions were significant model terms for bending strength. The interaction effect of MC and the other two factors was significant for impact strength. The best optimized conditions were determined using a desirability function approach to be MC 12.3%, pressing temperature 146.2°C, and pressing time 12.8 min that optimized 1.8% for deformation ratio, 542 N for failing load, 185.7 MPa for bending strength, and 36.5 kJ/m2 for impact strength of BMCS.



Bansal AK, Zoolagud SS (2002) Bamboo composites:

Material of the future. J Bamboo Rattan 1(2):119-130.

Carlborn K, Matuana LM (2006) Modeling and optimization

of formaldehyde-free wood composites using a Box-

Behnken design. Polym Compos 27(5):497-503.

Chen F, Jiang Z, Wang G, Shi SQ, Liu X (2013a) Bamboo

bundle corrugated laminated composites (BCLC). Part I.

Three-dimensional stability in response to corrugating

effect. J Adhes 89(3):225-238.

Chen N, Lin Q, Zeng Q, Rao J (2013b) Optimization of

preparation conditions of soy flour adhesive for plywood by

response surface methodology. Ind Crops Prod 51:267-273.

Dayyani I, Shaw AD, Saavedra Flores EI, Friswell MI (2015)

The mechanics of composite corrugated structures: A

review with applications in morphing aircraft. Compos

Struct 133:358-380.

Gao L, Guo W, Luo S (2018) Investigation of changes in

compressed moso bamboo (Phyllostachys pubescens) after

hot-press molding. J Wood Sci 64(5):557-565.

Islam MA, Alam MR, Hannan MO (2012) Multiresponse

optimization based on statistical response surface methodology

and desirability function for the production of

particleboard. Compos Part B Eng 43(3):861-868.Islam MA, Nikoloutsou Z, Sakkas V, Papatheodorou M,

Albanis T (2010) Statistical optimisation by combination

of response surface methodology and desirability function

for removal of azo dye from aqueous solution. Int J Environ

Anal Chem 90(3-6):497-509.

Jiang Z, Chen F, Wang G, Liu XE, Shi SQ, Yu Z, Cheng HT

(2013) Bamboo bundle corrugated laminated composites

(BCLC). Part II. Damage analysis under low velocity

impact loading. BioResources 8(1):923-932.

Kumar A, Sharma KV, Gupta A, Tywoniak J, Hajek P (2016)

Optimization of processing parameters of medium density

fiberboard using response surface methodology for

multiwalled carbon nanotubes as a nanofiller. Eur J

Wood Wood Prod 75(2):203-213.Monteiro S, Martins J, Magalhães FD, Carvalho L (2018)

Lightweight wood composites: Challenges, production and

performance. Pages 293-322 in S Kalia, ed. Lignocellulosic

Composite Materials. Springer, Cham, Switzerland.

Nakhaei MR, Mostafapour A, Naderi G (2017) Optimization

of mechanical properties of PP/EPDM/clay nanocomposite

fabricated by friction stir processing with

response surface methodology and neural networks. Polym

Compos 38:E421-E432.

Park KJ, Jung K, Kim YW (2016) Evaluation of homogenized

effective properties for corrugated composite panels.

Compos Struct 140:644-654.

Toupe JL, Trokourey A, Rodrigue D (2014) Simultaneous

optimization of the mechanical properties of postconsumer

natural fiber/plastic composites: Phase compatibilization

and quality/cost ratio. Polym Compos 35(4):730-746.

Yaghoobi H, Fereidoon A (2018a) An experimental investigation

and optimization on the impact strength of

kenaf fiber biocomposite: Application of response surface

methodology. Polym Bull 75(8):3283-3309.

Yaghoobi H, Fereidoon A (2018b) Modeling and optimization

of tensile strength and modulus of polypropylene/

kenaf fiber biocomposites using Box-Behnken response

surface method. Polym Compos 39:E463-E479.

Yaghoobi H, Fereidoon A (2018c) Thermal analysis, statistical

predicting, and optimization of the flexural properties

of natural fiber biocomposites using Box–Behnken

experimental design. J Nat Fibers, 1-19.

Yang F, Fei B,Wu Z, Peng L, Yu Y (2014) Selected properties

of corrugated particleboards made from bamboo waste

(Phyllostachys edulis) laminated with medium-density fiberboard panels. BioResources 9(1):1085-1096.

Yu YS, Ni CY, Yu T, Wan H (2015) Optimization of mechanical

properties of bamboo plywood. Wood Fiber Sci


Zhang YM, Yu YL, Yu WJ (2012) Effect of thermal

treatment on the physical and mechanical properties of

Phyllostachys pubescens bamboo. Eur J Wood Wood

Prod 71(1):61-67.

Zhao J, Wang XM, Chang JM, Zheng K (2008) Optimization

of processing variables in wood-rubber composite panel

manufacturing technology. Biores Technol 99(7):2384-2391.





Research Contributions