Advances in Tar Steam Reforming Catalysts: A Review Focusing on Natural Minerals and Ni-Based Catalysts

Biomass gasification technology is a crucial pathway for obtaining clean syngas and achieving efficient utilization of carbon resources. However, tar is one of the main factors restricting the industrialization of biomass gasification technology. Among various solutions, catalytic steam reforming is regarded as the most promising solution. Currently, natural minerals and Ni-based catalysts have been demonstrated to be effective and economically viable for tar removal, which are widely used in industrial fluidized beds. Therefore, the basic reaction principles of tar steam reforming were briefly introduced. The development of tar steam reforming catalysts, focusing mainly on natural minerals and Ni-based catalysts, have been studied in this review. The catalytic cracking mechanisms of natural minerals such as dolomite and limestone, as well as the steam reforming mechanism of Ni-based catalysts, have been thoroughly summarized. In addition, the active sites of the catalysts, reaction pathways, and the essence of catalyst deactivation are discussed. Based on this, the catalytic effect of these two catalysts for steam reforming of tar in the fluidized bed was summarized. Further, the engineering challenges (such as mass transfer, wear, and continuous regeneration) and the corresponding process optimization measures were comprehensively reviewed, and future perspectives are discussed.

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Publication Details

Journal
Catalysts
Published
2026-05-02
DOI
https://doi.org/10.3390/catal16050411
Primary Topic
Thermochemical Biomass Conversion Processes
Type
article
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article

Advances in Tar Steam Reforming Catalysts: A Review Focusing on Natural Minerals and Ni-Based Catalysts

Xiaofei Sun, Dongwang Zhang, Rushan Bie, Man Zhang
Catalysts
Thermochemical Biomass Conversion Processes
article

Advances in Tar Steam Reforming Catalysts: A Review Focusing on Natural Minerals and Ni-Based Catalysts

Xiaofei Sun, Dongwang Zhang, Rushan Bie, Man Zhang
article en

Abstract

Biomass gasification technology is a crucial pathway for obtaining clean syngas and achieving efficient utilization of carbon resources. However, tar is one of the main factors restricting the industrialization of biomass gasification technology. Among various solutions, catalytic steam reforming is regarded as the most promising solution. Currently, natural minerals and Ni-based catalysts have been demonstrated to be effective and economically viable for tar removal, which are widely used in industrial fluidized beds. Therefore, the basic reaction principles of tar steam reforming were briefly introduced. The development of tar steam reforming catalysts, focusing mainly on natural minerals and Ni-based catalysts, have been studied in this review. The catalytic cracking mechanisms of natural minerals such as dolomite and limestone, as well as the steam reforming mechanism of Ni-based catalysts, have been thoroughly summarized. In addition, the active sites of the catalysts, reaction pathways, and the essence of catalyst deactivation are discussed. Based on this, the catalytic effect of these two catalysts for steam reforming of tar in the fluidized bed was summarized. Further, the engineering challenges (such as mass transfer, wear, and continuous regeneration) and the corresponding process optimization measures were comprehensively reviewed, and future perspectives are discussed.

CatalystsVol. 16(5)
Harbin Institute of Technology (CN), Tsinghua University (CN)
Industry, innovation and infrastructure
Openalex Percentile: Top 12%
Thermochemical Biomass Conversion Processes
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