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Original Articles

On the characterisation of carbon black from tire pyrolysis

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Pages 368-376 | Received 20 Oct 2019, Accepted 23 Oct 2019, Published online: 01 Nov 2019

Keep up to date with the latest research on this topic with citation updates for this article.

Read on this site (3)

Shangpeng Zhai, Xiangyu Kong, Liang Xie, Yanfeng Li, Xin Song, Jianguo Wang & Shengwei Deng. (2023) Activation of waste tire pyrolysis carbon black by simulated fuel gas. Fullerenes, Nanotubes and Carbon Nanostructures 31:8, pages 766-774.
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Franco Cataldo. (2021) Pyrolytic carbon black from truck tires: some new analytical approaches. Fullerenes, Nanotubes and Carbon Nanostructures 29:4, pages 304-314.
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Franco Cataldo. (2020) Further insight into some properties of pyrolytic carbon black obtained from scrap truck tires. Fullerenes, Nanotubes and Carbon Nanostructures 28:12, pages 995-1001.
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Articles from other publishers (16)

Mohammad Abdul Sattar. (2023) Surface Activated Pyrolytic Carbon Black: A Dual Functional Sustainable Filler for Natural Rubber Composites. ChemSusChem.
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Xincong Feng, Hailing Dong, Huiru Yang, Huidan Yao, Shanjun Hu, Hongying Zhao, Shugao Zhao & Chong Sun. (2023) Application of plasma modified pyrolytic carbon black in improving mechanical properties of natural rubber composite. Journal of Applied Polymer Science 140:29.
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Sangit Paul, Manjur Rahaman, Suman Kumar Ghosh, Palash Das, Ankur Katheria, Trisita Ghosh & Narayan Chandra Das. (2023) Effects of tire‐derived pyrolytic carbon black and pyrolytic heavy oil on the curing and mechanical properties of styrene‐butadiene rubber composites. Polymer Engineering & Science.
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A.J. Bowles, Á. Nievas & G.D. Fowler. (2023) Consecutive recovery of recovered carbon black and limonene from waste tyres by thermal pyrolysis in a rotary kiln. Sustainable Chemistry and Pharmacy 32, pages 100972.
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Tao Li, Shuai Wang, Wangyang Chen, Jiahui Niu, Jinlong Li, Fengbin Zhang, Yi Feng, Yaqun He & Tao Zhang. (2022) Desulfurisation and ash reduction of pyrolysis carbon black from waste tires by combined Fe3+ oxidation-flotation. Journal of Cleaner Production, pages 135489.
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Yaxin Lan, Shuangling Jin, Jitong Wang, Xiaorui Wang, Rui Zhang, Licheng Ling & Minglin Jin. (2022) Effects of S and Mineral Elements (Ca, Al, Si and Fe) on Thermochemical Behaviors of Zn during Co-Pyrolysis of Coal and Waste Tire: A Combined Experimental and Thermodynamic Simulation Study. Processes 10:8, pages 1635.
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Yongjie Ma, Hongying Zhao, Xinjin Zhang, Chunyan Fan, Tao Zhuang, Chong Sun & Shugao Zhao. (2022) Structure optimization of pyrolysis carbon black from waste tire and its application in natural rubber composites. Applied Surface Science 593, pages 153389.
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Leonel J. R. Nunes, Laura Guimarães, Miguel Oliveira, Peter Kille & Nuno G. C. Ferreira. (2022) Thermochemical Conversion Processes as a Path for Sustainability of the Tire Industry: Carbon Black Recovery Potential in a Circular Economy Approach. Clean Technologies 4:3, pages 653-668.
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Muhammad Atif, Hafiz Zeshan Haider, Roberta Bongiovanni, Maria Fayyaz, Tayyaba Razzaq & Sara Gul. (2022) Physisorption and chemisorption trends in surface modification of carbon black. Surfaces and Interfaces 31, pages 102080.
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A.J. Bowles & G.D. Fowler. (2022) Assessing the impacts of feedstock and process control on pyrolysis outputs for tyre recycling. Resources, Conservation and Recycling 182, pages 106277.
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Fan Yang, Shuai Liang, Haipeng Wu, Chengyu Yue, Hengyu Yan, Hao Wu, Xiaoyan Chen, Jianming Zhang, Shouke Yan & Yongxin Duan. (2022) Upgrading the Pyrolysis Carbon Black from Waste Tire by Hybridization with Cellulose. Industrial & Engineering Chemistry Research 61:19, pages 6512-6520.
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Sebastião M. R. Costa, David Fowler, Germano A. Carreira, Inês Portugal & Carlos M. Silva. (2022) Production and Upgrading of Recovered Carbon Black from the Pyrolysis of End-of-Life Tires. Materials 15:6, pages 2030.
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Junqing Xu, Jiaxue Yu, Wenzhi He, Juwen Huang, Junshi Xu & Guangming Li. (2021) Replacing commercial carbon black by pyrolytic residue from waste tire for tire processing: Technically feasible and economically reasonable. Science of The Total Environment 793, pages 148597.
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Qijing Wu, Shuai Leng, Qianqian Zhang & Jun Xiao. (2021) Resource and environmental assessment of pyrolysis-based high-value utilization of waste passenger tires. Waste Management 126, pages 201-208.
Crossref
. 2021. Tire Waste and Recycling. Tire Waste and Recycling 165 224 .
Yaxin Lan, Shuangling Jin, Jitong Wang, Xiaorui Wang, Rui Zhang, Licheng Ling & Minglin Jin. (2022) Effects of Sulfur and Mineral Elements (Ca, Al, Si and Fe) on Thermochemical Behaviors of Zinc During Co-Pyrolysis of Coal and Waste Tire: A Combined Experimental and Thermodynamic Simulation Study. SSRN Electronic Journal.
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