Enhanced dielectric performances of strontium barium titanate nanorod composites via improved interfacial compatibility

Benefiting from the improved interfacial compatibility, rearrangement of CPEN@BSTNR and orientation of PEN, the simultaneously enhancement up to 300 % of dielectric energy storage properties of PEN through the incorporating of carboxylated PEN modified CPEN@BSTNR and hot-stretching is achieved. [Dis...

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Veröffentlicht in:Journal of colloid and interface science 2025-02, Vol.680 (Pt B), p.85-95
Hauptverfasser: Liu, Yongxian, Tang, Bo, Wang, Zaixing, Jiao, Yayao, Hou, Qingqing, Dang, Zhangting, Hua, Xiufu, Wei, Liping, Wang, Lingling, Wei, Renbo
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container_end_page 95
container_issue Pt B
container_start_page 85
container_title Journal of colloid and interface science
container_volume 680
creator Liu, Yongxian
Tang, Bo
Wang, Zaixing
Jiao, Yayao
Hou, Qingqing
Dang, Zhangting
Hua, Xiufu
Wei, Liping
Wang, Lingling
Wei, Renbo
description Benefiting from the improved interfacial compatibility, rearrangement of CPEN@BSTNR and orientation of PEN, the simultaneously enhancement up to 300 % of dielectric energy storage properties of PEN through the incorporating of carboxylated PEN modified CPEN@BSTNR and hot-stretching is achieved. [Display omitted] •CPEN@BSTNR are fabricated via the functionalization of carboxylated PEN.•CPEN@BSTNR possess superior interfacial compatibility in PEN.•CPEN@BSTNR/PEN possess outstanding energy storage properties.•Up to 300 % boosting of energy storage density is achieved. High performance film capacitor has attracted widespread attention due to their increasing applications in electronic devices. However, the insufficient dielectric properties of dielectrics in capacitors severely restrict their practical application. In this work, the dielectric performances of polyarylene ether nitrile (PEN) are effectively enhanced by the synthesizing and employing of carboxylated PEN (CPEN) modified one-dimensional (1D) strontium barium titanate nanorod (BSTNR) (CPEN@BSTNR), as well as applying of hot stretching technique. CPEN@BSTNR is prepared via the synthesizing of BSTNR, modifying with γ-Aminopropyl triethoxysilane (KH550), and grafting by CPEN. Deriving from the 1D structure of BSTNR and the peripheral modification by CPEN, compatibility of CPEN@BSTNR in PEN has been significantly improved. Moreover, CPEN@BSTNR orients in the polymer matrix attributing to the hot stretching. Consequently, the hot stretched 16 wt% CPEN@BSTNR/PEN film exhibits an increased dielectric constant of 17.30 and maintained a breakdown strength of 204.1 kV/mm. As a result, this stretched composite film demonstrates an energy density up to 3.19 J/cm3, with a 300 % improvement over pure PEN. This enhanced dielectric properties of PEN presents a promising avenue for the fabrication of high performance film capacitors.
doi_str_mv 10.1016/j.jcis.2024.11.088
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[Display omitted] •CPEN@BSTNR are fabricated via the functionalization of carboxylated PEN.•CPEN@BSTNR possess superior interfacial compatibility in PEN.•CPEN@BSTNR/PEN possess outstanding energy storage properties.•Up to 300 % boosting of energy storage density is achieved. High performance film capacitor has attracted widespread attention due to their increasing applications in electronic devices. However, the insufficient dielectric properties of dielectrics in capacitors severely restrict their practical application. In this work, the dielectric performances of polyarylene ether nitrile (PEN) are effectively enhanced by the synthesizing and employing of carboxylated PEN (CPEN) modified one-dimensional (1D) strontium barium titanate nanorod (BSTNR) (CPEN@BSTNR), as well as applying of hot stretching technique. CPEN@BSTNR is prepared via the synthesizing of BSTNR, modifying with γ-Aminopropyl triethoxysilane (KH550), and grafting by CPEN. Deriving from the 1D structure of BSTNR and the peripheral modification by CPEN, compatibility of CPEN@BSTNR in PEN has been significantly improved. Moreover, CPEN@BSTNR orients in the polymer matrix attributing to the hot stretching. Consequently, the hot stretched 16 wt% CPEN@BSTNR/PEN film exhibits an increased dielectric constant of 17.30 and maintained a breakdown strength of 204.1 kV/mm. As a result, this stretched composite film demonstrates an energy density up to 3.19 J/cm3, with a 300 % improvement over pure PEN. 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[Display omitted] •CPEN@BSTNR are fabricated via the functionalization of carboxylated PEN.•CPEN@BSTNR possess superior interfacial compatibility in PEN.•CPEN@BSTNR/PEN possess outstanding energy storage properties.•Up to 300 % boosting of energy storage density is achieved. High performance film capacitor has attracted widespread attention due to their increasing applications in electronic devices. However, the insufficient dielectric properties of dielectrics in capacitors severely restrict their practical application. In this work, the dielectric performances of polyarylene ether nitrile (PEN) are effectively enhanced by the synthesizing and employing of carboxylated PEN (CPEN) modified one-dimensional (1D) strontium barium titanate nanorod (BSTNR) (CPEN@BSTNR), as well as applying of hot stretching technique. CPEN@BSTNR is prepared via the synthesizing of BSTNR, modifying with γ-Aminopropyl triethoxysilane (KH550), and grafting by CPEN. Deriving from the 1D structure of BSTNR and the peripheral modification by CPEN, compatibility of CPEN@BSTNR in PEN has been significantly improved. Moreover, CPEN@BSTNR orients in the polymer matrix attributing to the hot stretching. Consequently, the hot stretched 16 wt% CPEN@BSTNR/PEN film exhibits an increased dielectric constant of 17.30 and maintained a breakdown strength of 204.1 kV/mm. As a result, this stretched composite film demonstrates an energy density up to 3.19 J/cm3, with a 300 % improvement over pure PEN. 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[Display omitted] •CPEN@BSTNR are fabricated via the functionalization of carboxylated PEN.•CPEN@BSTNR possess superior interfacial compatibility in PEN.•CPEN@BSTNR/PEN possess outstanding energy storage properties.•Up to 300 % boosting of energy storage density is achieved. High performance film capacitor has attracted widespread attention due to their increasing applications in electronic devices. However, the insufficient dielectric properties of dielectrics in capacitors severely restrict their practical application. In this work, the dielectric performances of polyarylene ether nitrile (PEN) are effectively enhanced by the synthesizing and employing of carboxylated PEN (CPEN) modified one-dimensional (1D) strontium barium titanate nanorod (BSTNR) (CPEN@BSTNR), as well as applying of hot stretching technique. CPEN@BSTNR is prepared via the synthesizing of BSTNR, modifying with γ-Aminopropyl triethoxysilane (KH550), and grafting by CPEN. Deriving from the 1D structure of BSTNR and the peripheral modification by CPEN, compatibility of CPEN@BSTNR in PEN has been significantly improved. Moreover, CPEN@BSTNR orients in the polymer matrix attributing to the hot stretching. Consequently, the hot stretched 16 wt% CPEN@BSTNR/PEN film exhibits an increased dielectric constant of 17.30 and maintained a breakdown strength of 204.1 kV/mm. As a result, this stretched composite film demonstrates an energy density up to 3.19 J/cm3, with a 300 % improvement over pure PEN. This enhanced dielectric properties of PEN presents a promising avenue for the fabrication of high performance film capacitors.</abstract><cop>United States</cop><pub>Elsevier Inc</pub><pmid>39550856</pmid><doi>10.1016/j.jcis.2024.11.088</doi><tpages>11</tpages></addata></record>
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source Elsevier ScienceDirect Journals
subjects barium titanate
capacitors
carboxylation
composite films
Dielectric constant
dielectric properties
Energy density
Hot stretching
nanorods
Polymer dielectrics
polymers
strontium
Strontium barium titanate
title Enhanced dielectric performances of strontium barium titanate nanorod composites via improved interfacial compatibility
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