Atomic‐Level Insights into Thermal Carbonization of Ethynyl‐Containing Boron Compounds

This study reports the design, synthesis, and characterization of boron-doped carbon (BDC) derived from a triethynylborane-pyridine complex. Triethynylborane is stabilized by coordination with pyridine, facilitating its synthesis and handling in ambient conditions. The complex is subjected to thermal treatment at various temperatures to form BDC. Powder XRD and single-crystal XRD analyses reveal that BDC prepared at 200 °C retains an ordered structure, while higher temperatures induce alkyne structural changes without significant weight or surface area alterations. Coin cells are assembled using BDC as the anode, demonstrating unique Li-ion and Na-ion storage properties distinct from graphite. These results suggest that the BDC reflects the precursor's crystal structure, enabling novel electrochemical behavior. These findings offer insight into the development of advanced BDC materials for energy storage applications.

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Publication Details

Journal
Small
Published
2025-12-03
DOI
https://doi.org/10.1002/smll.202513537
Primary Topic
Hydrogen Storage and Materials
Type
article
Field-Weighted Citation Impact
0.00

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article

Atomic‐Level Insights into Thermal Carbonization of Ethynyl‐Containing Boron Compounds

Yuta Nishina, Ken Yamazaki, Jun Kano, Kentaro Ohkura et al.
Small
Hydrogen Storage and Materials
article

Atomic‐Level Insights into Thermal Carbonization of Ethynyl‐Containing Boron Compounds

Yuta Nishina, Ken Yamazaki, Jun Kano, Kentaro Ohkura, Satoshi Hayakawa, Naoki Takahashi
article en

Abstract

This study reports the design, synthesis, and characterization of boron-doped carbon (BDC) derived from a triethynylborane-pyridine complex. Triethynylborane is stabilized by coordination with pyridine, facilitating its synthesis and handling in ambient conditions. The complex is subjected to thermal treatment at various temperatures to form BDC. Powder XRD and single-crystal XRD analyses reveal that BDC prepared at 200 °C retains an ordered structure, while higher temperatures induce alkyne structural changes without significant weight or surface area alterations. Coin cells are assembled using BDC as the anode, demonstrating unique Li-ion and Na-ion storage properties distinct from graphite. These results suggest that the BDC reflects the precursor's crystal structure, enabling novel electrochemical behavior. These findings offer insight into the development of advanced BDC materials for energy storage applications.

SmallVol. 22(6)
Okayama University of Science (JP), Okayama University (JP)
Core Research for Evolutional Science and Technology
Openalex Percentile: Top 68%
Hydrogen Storage and Materials
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Atomic‐Level Insights into Thermal Carbonization of Ethynyl‐Containing Boron Compounds — Yuta Nishina, Ken Yamazaki, et al. · Small (2025) | TGRS Research Map | TGRS