Improving reinforcement of natural rubber latex by introducing poly‐zinc dimethacrylate and sulfur vulcanizing system

In this work, zinc dimethacrylate (ZDMA) was employed to reinforce natural rubber latex (NRL) and a new process was introduced. Polymethacrylic acid was prepared by emulsion polymerization of methacrylic acid (MAA), then mixed with ZnO in a different mole ratio (ZnO/MAA) and the mixture was noted as...

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Veröffentlicht in:Polymer engineering and science 2022-05, Vol.62 (5), p.1549-1561
Hauptverfasser: Chen, Jing, Liao, Lusheng, Zhang, Fuquan, Gao, Tiaoming, Gao, Lijun, Ma, Lin, Ma, Xiaocong
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container_end_page 1561
container_issue 5
container_start_page 1549
container_title Polymer engineering and science
container_volume 62
creator Chen, Jing
Liao, Lusheng
Zhang, Fuquan
Gao, Tiaoming
Gao, Lijun
Ma, Lin
Ma, Xiaocong
description In this work, zinc dimethacrylate (ZDMA) was employed to reinforce natural rubber latex (NRL) and a new process was introduced. Polymethacrylic acid was prepared by emulsion polymerization of methacrylic acid (MAA), then mixed with ZnO in a different mole ratio (ZnO/MAA) and the mixture was noted as PZDMA. It was added to NRL and a traditional sulfur vulcanizing system was adopted simultaneously. The mechanical test results show that compared with the sample “NR,” the tensile and tear strength are significantly improved by the addition of PZDMA. When 7 phr ZnO (NR‐7A) are loaded, it can reach 25.1 MPa and 62.8 N/mm, which are higher than “NR” by 52.0% and 104.6%, respectively. While the strength of the NRL film reinforced only with PZDMA is quite limited. Detailed analysis by Fourier‐transforms infrared spectroscopy, X‐ray diffractometers, scanning electron microscopy, thermogravimetric, and dynamic mechanical analysis revealed that PZDMA is successfully formed and dispersed uniformly in NRL, PZDMA acts as a nanoparticle and ionic cross‐linking agent, and the covalent cross‐linking network is formed by a sulfur vulcanizing agent. The dual cross‐linking network shows a synergistic effect on the reinforcement of NRL. The present work provides a process to reinforce NRL with adjustable mechanical properties. PZDMA acts as a nanoparticle and ionic cross‐linking agent, and the covalent cross‐linking network is formed by a sulfur vulcanizing agent. The dual cross‐linking network shows a synergistic effect on the reinforcement of NRL.
doi_str_mv 10.1002/pen.25943
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Polymethacrylic acid was prepared by emulsion polymerization of methacrylic acid (MAA), then mixed with ZnO in a different mole ratio (ZnO/MAA) and the mixture was noted as PZDMA. It was added to NRL and a traditional sulfur vulcanizing system was adopted simultaneously. The mechanical test results show that compared with the sample “NR,” the tensile and tear strength are significantly improved by the addition of PZDMA. When 7 phr ZnO (NR‐7A) are loaded, it can reach 25.1 MPa and 62.8 N/mm, which are higher than “NR” by 52.0% and 104.6%, respectively. While the strength of the NRL film reinforced only with PZDMA is quite limited. Detailed analysis by Fourier‐transforms infrared spectroscopy, X‐ray diffractometers, scanning electron microscopy, thermogravimetric, and dynamic mechanical analysis revealed that PZDMA is successfully formed and dispersed uniformly in NRL, PZDMA acts as a nanoparticle and ionic cross‐linking agent, and the covalent cross‐linking network is formed by a sulfur vulcanizing agent. The dual cross‐linking network shows a synergistic effect on the reinforcement of NRL. The present work provides a process to reinforce NRL with adjustable mechanical properties. PZDMA acts as a nanoparticle and ionic cross‐linking agent, and the covalent cross‐linking network is formed by a sulfur vulcanizing agent. 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source Wiley Online Library Journals Frontfile Complete
subjects Analysis
Diffraction
Diffractometers
Dynamic mechanical analysis
Emulsion polymerization
Fourier transform infrared spectroscopy
Identification and classification
Infrared analysis
Latex
Mechanical properties
Mechanical tests
Methods
Nanoparticles
Natural rubber
natural rubber latex
Polymerization
Polymethacrylic acid
poly‐zinc dimethacrylate
reinforcement
Scanning microscopy
Structure
Sulfur
Synergistic effect
Tear strength
Thermogravimetry
Vulcanization
X-rays
Zinc
Zinc oxide
title Improving reinforcement of natural rubber latex by introducing poly‐zinc dimethacrylate and sulfur vulcanizing system
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