Accelerated/decelerated dynamics of the electric double layer at hydrogen-terminated diamond/Li+ solid electrolyte interface

Accelerated/decelerated dynamics of the electric double layer at hydrogen-terminated diamond/Li+ solid electrolyte interface
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氢封端金刚石/锂固体电解质界面双电层的加速/减速动力学

DOI:
10.1016/j.mtphys.2023.101006
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发表时间:
2023
影响因子:
11.5
通讯作者:
Terabe Kazuya
Terabe Kazuya
中科院分区:
材料科学2区
文献类型:
--
作者:
Takayanagi Makoto;Tsuchiya Takashi;Nishioka Daiki;Imura Masataka;Koide Yasuo;Higuchi Tohru;Terabe Kazuya

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在氢封端的金刚石(H-金刚石)和Li+传导固体电解质之间的界面处的双电层(EDL)效应的电响应[即,采用全固态H型金刚石基EDL晶体管(EDLT)对LiNbO 3和Li 3 PO 4]进行了研究。在H-金刚石和Li-Si-Zr-O(700 nm)Li+固体电解质之间插入5 nm厚的LiNbO 3或Li 3 PO 4夹层。我们进行了霍尔测量和脉冲响应测量,以研究所表现出的EDL充电特性。霍尔测量表明,所有的EDLT都表现出了电洞密度调制效应,在缺Li+区(负VG侧),其电洞电容(CEDL)高达15 μF/cm 2。另一方面,在脉冲响应测量中,LiNbO 3或Li 3 PO 4夹层的插入引起开关响应速度的显著加速/减速,范围从τ= 61.4 ms到229 μs?在LiNbO 3/H-金刚石和Li 3 PO 4/H-金刚石界面处,特别是在Li+富集侧的CEDL被指示为决定开关响应速度。结果表明,非常薄的EDL(即,即使当使用无机固体电解质代替液体电解质时,也可以在固体/固体电解质界面处形成CEDL,并且固体/固体电解质处的CEDL可以通过电解质组合物控制在距界面几μ m的厚度内。
The electrical response of the electric double layer (EDL) effect at the interface between a hydrogen-terminated diamond (H-diamond) and a Li+-conducting solid electrolyte [i.e., LiNbO3and Li3PO4] was investigated by using an all-solid-state H-diamond-based EDL transistor (EDLT). A 5-nm-thick LiNbO3or Li3PO4interlayer was inserted between a H-diamond and a Li–Si–Zr–O (700 nm) Li+solid electrolyte. We performed Hall measurements and pulse response measurements to investigate the EDL charging characteristics exhibited. The Hall measurements evidenced that all EDLTs exhibited EDL-induced hole density modulation, with a large EDL capacitance (CEDL) to 15 μF/cm2in the Li+-deficient region (negativeVGside). On the other hand, in the pulse response measurement, insertion of an LiNbO3or Li3PO4interlayer caused significant acceleration/deceleration of the switching response speed, ranging fromτ= 61.4 ms to 229 μs?CEDLat the LiNbO3/H-diamond and Li3PO4/H-diamond interface, particularly on the Li+rich side, was indicated as determining the switching response speed. The results indicate that the very thin EDL (i.e., 5 Å) can be formed at the solid/solid electrolyte interface, even when inorganic solid electrolytes are used instead of liquid electrolytes, andCEDLat the solid/solid electrolyte can be controlled by electrolyte compositions within a thickness of several Å from the interface.
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期刊: Transactions of the Materials Research Society of Japan
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