Optimizing Refining Conditions of Pinus massoniana Cellulose Fibers for Improving the Mechanical Properties of Ultra-Low Density Plant Fiber Composite (ULD_PFC)

Response surface methodology was used to optimize the refining conditions of Pinus massoniana cellulose fiber and to improve the mechanical properties of ultra-low density plant fiber composite (ULD_PFC). The effects and interactions of the pulp consistency (X1), the number of passes (X2), and the b...

Full description

Bibliographic Details
Main Authors: Tingjie Chen, Zhenzeng Wu, Wei Wei, Yongqun Xie, Qihua Wei, Xiaodong (Alice) Wang, Olle Hagman, Olov Karlsson
Format: Article
Language:English
Published: North Carolina State University 2016-11-01
Series:BioResources
Subjects:
Online Access:http://ojs.cnr.ncsu.edu/index.php/BioRes/article/view/BioRes_12_1_8_Chen_Optimizing_Refining_Conditions_Pinus
_version_ 1819022780801220608
author Tingjie Chen
Zhenzeng Wu
Wei Wei
Yongqun Xie
Qihua Wei
Xiaodong (Alice) Wang
Olle Hagman
Olov Karlsson
author_facet Tingjie Chen
Zhenzeng Wu
Wei Wei
Yongqun Xie
Qihua Wei
Xiaodong (Alice) Wang
Olle Hagman
Olov Karlsson
author_sort Tingjie Chen
collection DOAJ
description Response surface methodology was used to optimize the refining conditions of Pinus massoniana cellulose fiber and to improve the mechanical properties of ultra-low density plant fiber composite (ULD_PFC). The effects and interactions of the pulp consistency (X1), the number of passes (X2), and the beating gap (X3) on the internal bond strength of ULD_PFC were investigated. The results showed that the optimum internal bond strength (91.72 ± 2.28 kPa) was obtained under the conditions of 8.0% pulp consistency, two passes through the refiner, and a 30.0 μm beating gap. Analysis of the physical properties of the fibers and handsheets showed that the fibrillation of fibers with optimum refining conditions was improved. Also, the tear index of the optimal specimen was 13.9% and 24.5% higher than specimen-1 with a lowest beating degree of 24 oSR and specimen-6 with a highest beating degree of 73 oSR, respectively. Consequently, the optimal refining conditions of the fibers are valid for preparing ULD_PFCs.
first_indexed 2024-12-21T04:28:26Z
format Article
id doaj.art-0cb9f17ba4354c85a3aec54ed1fe84fe
institution Directory Open Access Journal
issn 1930-2126
1930-2126
language English
last_indexed 2024-12-21T04:28:26Z
publishDate 2016-11-01
publisher North Carolina State University
record_format Article
series BioResources
spelling doaj.art-0cb9f17ba4354c85a3aec54ed1fe84fe2022-12-21T19:15:59ZengNorth Carolina State UniversityBioResources1930-21261930-21262016-11-0112181810.15376/biores.12.1.8-18Optimizing Refining Conditions of Pinus massoniana Cellulose Fibers for Improving the Mechanical Properties of Ultra-Low Density Plant Fiber Composite (ULD_PFC)Tingjie Chen0Zhenzeng Wu1Wei Wei2Yongqun Xie3Qihua Wei4Xiaodong (Alice) Wang5Olle Hagman6Olov Karlsson7College of Material Engineering, Fujian Agriculture and Forestry University, 350002, Fuzhou, Fujian; Division of Wood Technology and Engineering, Luleå University of Technology, 93187, Forskargatan 1, Skellefteå, Sweden; ChinaCollege of Material Engineering, Fujian Agriculture and Forestry University, 350002, Fuzhou, Fujian; ChinaCollege of Material Engineering, Fujian Agriculture and Forestry University, 350002, Fuzhou, Fujian; ChinaCollege of Material Engineering, Fujian Agriculture and Forestry University, 350002, Fuzhou, Fujian; ChinaCollege of Material Engineering, Fujian Agriculture and Forestry University, 350002, Fuzhou, Fujian; ChinaDivision of Wood Technology and Engineering, Luleå University of Technology, 93187, Forskargatan 1, Skellefteå, Sweden; SwedenDivision of Wood Technology and Engineering, Luleå University of Technology, 93187, Forskargatan 1, Skellefteå, Sweden; SwedenDivision of Wood Technology and Engineering, Luleå University of Technology, 93187, Forskargatan 1, Skellefteå, Sweden; SwedenResponse surface methodology was used to optimize the refining conditions of Pinus massoniana cellulose fiber and to improve the mechanical properties of ultra-low density plant fiber composite (ULD_PFC). The effects and interactions of the pulp consistency (X1), the number of passes (X2), and the beating gap (X3) on the internal bond strength of ULD_PFC were investigated. The results showed that the optimum internal bond strength (91.72 ± 2.28 kPa) was obtained under the conditions of 8.0% pulp consistency, two passes through the refiner, and a 30.0 μm beating gap. Analysis of the physical properties of the fibers and handsheets showed that the fibrillation of fibers with optimum refining conditions was improved. Also, the tear index of the optimal specimen was 13.9% and 24.5% higher than specimen-1 with a lowest beating degree of 24 oSR and specimen-6 with a highest beating degree of 73 oSR, respectively. Consequently, the optimal refining conditions of the fibers are valid for preparing ULD_PFCs.http://ojs.cnr.ncsu.edu/index.php/BioRes/article/view/BioRes_12_1_8_Chen_Optimizing_Refining_Conditions_PinusRefiningHandsheetPhysical propertiesOptimizationInternal bond strength
spellingShingle Tingjie Chen
Zhenzeng Wu
Wei Wei
Yongqun Xie
Qihua Wei
Xiaodong (Alice) Wang
Olle Hagman
Olov Karlsson
Optimizing Refining Conditions of Pinus massoniana Cellulose Fibers for Improving the Mechanical Properties of Ultra-Low Density Plant Fiber Composite (ULD_PFC)
BioResources
Refining
Handsheet
Physical properties
Optimization
Internal bond strength
title Optimizing Refining Conditions of Pinus massoniana Cellulose Fibers for Improving the Mechanical Properties of Ultra-Low Density Plant Fiber Composite (ULD_PFC)
title_full Optimizing Refining Conditions of Pinus massoniana Cellulose Fibers for Improving the Mechanical Properties of Ultra-Low Density Plant Fiber Composite (ULD_PFC)
title_fullStr Optimizing Refining Conditions of Pinus massoniana Cellulose Fibers for Improving the Mechanical Properties of Ultra-Low Density Plant Fiber Composite (ULD_PFC)
title_full_unstemmed Optimizing Refining Conditions of Pinus massoniana Cellulose Fibers for Improving the Mechanical Properties of Ultra-Low Density Plant Fiber Composite (ULD_PFC)
title_short Optimizing Refining Conditions of Pinus massoniana Cellulose Fibers for Improving the Mechanical Properties of Ultra-Low Density Plant Fiber Composite (ULD_PFC)
title_sort optimizing refining conditions of pinus massoniana cellulose fibers for improving the mechanical properties of ultra low density plant fiber composite uld pfc
topic Refining
Handsheet
Physical properties
Optimization
Internal bond strength
url http://ojs.cnr.ncsu.edu/index.php/BioRes/article/view/BioRes_12_1_8_Chen_Optimizing_Refining_Conditions_Pinus
work_keys_str_mv AT tingjiechen optimizingrefiningconditionsofpinusmassonianacellulosefibersforimprovingthemechanicalpropertiesofultralowdensityplantfibercompositeuldpfc
AT zhenzengwu optimizingrefiningconditionsofpinusmassonianacellulosefibersforimprovingthemechanicalpropertiesofultralowdensityplantfibercompositeuldpfc
AT weiwei optimizingrefiningconditionsofpinusmassonianacellulosefibersforimprovingthemechanicalpropertiesofultralowdensityplantfibercompositeuldpfc
AT yongqunxie optimizingrefiningconditionsofpinusmassonianacellulosefibersforimprovingthemechanicalpropertiesofultralowdensityplantfibercompositeuldpfc
AT qihuawei optimizingrefiningconditionsofpinusmassonianacellulosefibersforimprovingthemechanicalpropertiesofultralowdensityplantfibercompositeuldpfc
AT xiaodongalicewang optimizingrefiningconditionsofpinusmassonianacellulosefibersforimprovingthemechanicalpropertiesofultralowdensityplantfibercompositeuldpfc
AT ollehagman optimizingrefiningconditionsofpinusmassonianacellulosefibersforimprovingthemechanicalpropertiesofultralowdensityplantfibercompositeuldpfc
AT olovkarlsson optimizingrefiningconditionsofpinusmassonianacellulosefibersforimprovingthemechanicalpropertiesofultralowdensityplantfibercompositeuldpfc