Enhancing Photocurrent of Radially Polarized Ferroelectric BaTiO3 Materials by Ferro-PyroPhototronic Effect;Enhancing Photocurrent of Radially Polarized Ferroelectric BaTiO3 Materials by Ferro-PyroPhototronic Effect;Enhancing Photocurrent of Radially Polarized Ferroelectric BaTiO3 Materials by Ferro-PyroPhototronic Effect;Enhancing Photocurrent of Radially Polarized Ferroelectric BaTiO3 Materials by Ferro-PyroPhototronic Effect;Enhancing Photocurrent of Radially Polarized Ferroelectric BaTiO3 Materials by Ferro-PyroPhototronic Effect;Enhancing Photocurrent of Radially Polarized Ferroelectric BaTiO3 Materials by Ferro-PyroPhototronic Effect;Enhancing Photocurrent of Radially Polarized Ferroelectric BaTiO3 Materials by Ferro-PyroPhototronic Effect;Enhancing Photocurrent of Radially Polarized Ferroelectric BaTiO3 Materials by Ferro-PyroPhototronic Effect;Enhancing Photocurrent of Radially Polarized Ferroelectric BaTiO3 Materials by Ferro-PyroPhototronic Effect;Enhancing Photocurrent of Radially Polarized Ferroelectric BaTiO3 Materials by Ferro-PyroPhototronic Effect;Enhancing Photocurrent of Radially Polarized Ferroelectric BaTiO3 Materials by Ferro-PyroPhototronic Effect;Enhancing Photocurrent of Radially Polarized Ferroelectric BaTiO3 Materials by Ferro-PyroPhototronic Effect | |
Kun Zhao1,2; Bangsen Ouyang1,2; Ya Yang1,2 | |
刊名 | iScience;iScience;iScience;iScience;iScience;iScience;iScience;iScience;iScience;iScience;iScience;iScience
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2018 | |
期号 | 3;3;3;3;3;3;3;3;3;3;3;3页码:208–216;208–216;208–216;208–216;208–216;208–216;208–216;208–216;208–216;208–216;208–216;208–216 |
英文摘要 | The pyro-phototronic effect has been utilized to modulate photoexcited carriers, to enhance the photocurrent in semiconducting nanomaterials. However, most of these materials have low pyroelectric performances. Using radially polarized ferroelectric BaTiO3 materials with a pyroelectric coefficient of about 16 nC/cm2K, we report a dramatic photocurrent enhancement due to ferro-pyrophototronic effect. The fabricated device enables a fast sensing of 365-nm light illumination with a response time of 0.5 s at the rising edge, where the output current-time curve displays a sharp peak followed by a stable plateau. By applying a heating temperature variation, the output current peak can be enhanced by more than 30 times under a light intensity of 0.6 mW/cm2. Moreover, the stable current plateau can be enhanced by 23% after utilizing a cooling temperature variation, which can be well explained by ferro-pyro-phototronic-effect-induced energy band bending. The pyro-phototronic effect has been utilized to modulate photoexcited carriers, to enhance the photocurrent in semiconducting nanomaterials. However, most of these materials have low pyroelectric performances. Using radially polarized ferroelectric BaTiO3 materials with a pyroelectric coefficient of about 16 nC/cm2K, we report a dramatic photocurrent enhancement due to ferro-pyrophototronic effect. The fabricated device enables a fast sensing of 365-nm light illumination with a response time of 0.5 s at the rising edge, where the output current-time curve displays a sharp peak followed by a stable plateau. By applying a heating temperature variation, the output current peak can be enhanced by more than 30 times under a light intensity of 0.6 mW/cm2. Moreover, the stable current plateau can be enhanced by 23% after utilizing a cooling temperature variation, which can be well explained by ferro-pyro-phototronic-effect-induced energy band bending. The pyro-phototronic effect has been utilized to modulate photoexcited carriers, to enhance the photocurrent in semiconducting nanomaterials. However, most of these materials have low pyroelectric performances. Using radially polarized ferroelectric BaTiO3 materials with a pyroelectric coefficient of about 16 nC/cm2K, we report a dramatic photocurrent enhancement due to ferro-pyrophototronic effect. The fabricated device enables a fast sensing of 365-nm light illumination with a response time of 0.5 s at the rising edge, where the output current-time curve displays a sharp peak followed by a stable plateau. By applying a heating temperature variation, the output current peak can be enhanced by more than 30 times under a light intensity of 0.6 mW/cm2. Moreover, the stable current plateau can be enhanced by 23% after utilizing a cooling temperature variation, which can be well explained by ferro-pyro-phototronic-effect-induced energy band bending. The pyro-phototronic effect has been utilized to modulate photoexcited carriers, to enhance the photocurrent in semiconducting nanomaterials. However, most of these materials have low pyroelectric performances. Using radially polarized ferroelectric BaTiO3 materials with a pyroelectric coefficient of about 16 nC/cm2K, we report a dramatic photocurrent enhancement due to ferro-pyrophototronic effect. The fabricated device enables a fast sensing of 365-nm light illumination with a response time of 0.5 s at the rising edge, where the output current-time curve displays a sharp peak followed by a stable plateau. By applying a heating temperature variation, the output current peak can be enhanced by more than 30 times under a light intensity of 0.6 mW/cm2. Moreover, the stable current plateau can be enhanced by 23% after utilizing a cooling temperature variation, which can be well explained by ferro-pyro-phototronic-effect-induced energy band bending. The pyro-phototronic effect has been utilized to modulate photoexcited carriers, to enhance the photocurrent in semiconducting nanomaterials. However, most of these materials have low pyroelectric performances. Using radially polarized ferroelectric BaTiO3 materials with a pyroelectric coefficient of about 16 nC/cm2K, we report a dramatic photocurrent enhancement due to ferro-pyrophototronic effect. The fabricated device enables a fast sensing of 365-nm light illumination with a response time of 0.5 s at the rising edge, where the output current-time curve displays a sharp peak followed by a stable plateau. By applying a heating temperature variation, the output current peak can be enhanced by more than 30 times under a light intensity of 0.6 mW/cm2. Moreover, the stable current plateau can be enhanced by 23% after utilizing a cooling temperature variation, which can be well explained by ferro-pyro-phototronic-effect-induced energy band bending. The pyro-phototronic effect has been utilized to modulate photoexcited carriers, to enhance the photocurrent in semiconducting nanomaterials. However, most of these materials have low pyroelectric performances. Using radially polarized ferroelectric BaTiO3 materials with a pyroelectric coefficient of about 16 nC/cm2K, we report a dramatic photocurrent enhancement due to ferro-pyrophototronic effect. The fabricated device enables a fast sensing of 365-nm light illumination with a response time of 0.5 s at the rising edge, where the output current-time curve displays a sharp peak followed by a stable plateau. By applying a heating temperature variation, the output current peak can be enhanced by more than 30 times under a light intensity of 0.6 mW/cm2. Moreover, the stable current plateau can be enhanced by 23% after utilizing a cooling temperature variation, which can be well explained by ferro-pyro-phototronic-effect-induced energy band bending. The pyro-phototronic effect has been utilized to modulate photoexcited carriers, to enhance the photocurrent in semiconducting nanomaterials. However, most of these materials have low pyroelectric performances. Using radially polarized ferroelectric BaTiO3 materials with a pyroelectric coefficient of about 16 nC/cm2K, we report a dramatic photocurrent enhancement due to ferro-pyrophototronic effect. The fabricated device enables a fast sensing of 365-nm light illumination with a response time of 0.5 s at the rising edge, where the output current-time curve displays a sharp peak followed by a stable plateau. By applying a heating temperature variation, the output current peak can be enhanced by more than 30 times under a light intensity of 0.6 mW/cm2. Moreover, the stable current plateau can be enhanced by 23% after utilizing a cooling temperature variation, which can be well explained by ferro-pyro-phototronic-effect-induced energy band bending. The pyro-phototronic effect has been utilized to modulate photoexcited carriers, to enhance the photocurrent in semiconducting nanomaterials. However, most of these materials have low pyroelectric performances. Using radially polarized ferroelectric BaTiO3 materials with a pyroelectric coefficient of about 16 nC/cm2K, we report a dramatic photocurrent enhancement due to ferro-pyrophototronic effect. The fabricated device enables a fast sensing of 365-nm light illumination with a response time of 0.5 s at the rising edge, where the output current-time curve displays a sharp peak followed by a stable plateau. By applying a heating temperature variation, the output current peak can be enhanced by more than 30 times under a light intensity of 0.6 mW/cm2. Moreover, the stable current plateau can be enhanced by 23% after utilizing a cooling temperature variation, which can be well explained by ferro-pyro-phototronic-effect-induced energy band bending. The pyro-phototronic effect has been utilized to modulate photoexcited carriers, to enhance the photocurrent in semiconducting nanomaterials. However, most of these materials have low pyroelectric performances. Using radially polarized ferroelectric BaTiO3 materials with a pyroelectric coefficient of about 16 nC/cm2K, we report a dramatic photocurrent enhancement due to ferro-pyrophototronic effect. The fabricated device enables a fast sensing of 365-nm light illumination with a response time of 0.5 s at the rising edge, where the output current-time curve displays a sharp peak followed by a stable plateau. By applying a heating temperature variation, the output current peak can be enhanced by more than 30 times under a light intensity of 0.6 mW/cm2. Moreover, the stable current plateau can be enhanced by 23% after utilizing a cooling temperature variation, which can be well explained by ferro-pyro-phototronic-effect-induced energy band bending. The pyro-phototronic effect has been utilized to modulate photoexcited carriers, to enhance the photocurrent in semiconducting nanomaterials. However, most of these materials have low pyroelectric performances. Using radially polarized ferroelectric BaTiO3 materials with a pyroelectric coefficient of about 16 nC/cm2K, we report a dramatic photocurrent enhancement due to ferro-pyrophototronic effect. The fabricated device enables a fast sensing of 365-nm light illumination with a response time of 0.5 s at the rising edge, where the output current-time curve displays a sharp peak followed by a stable plateau. By applying a heating temperature variation, the output current peak can be enhanced by more than 30 times under a light intensity of 0.6 mW/cm2. Moreover, the stable current plateau can be enhanced by 23% after utilizing a cooling temperature variation, which can be well explained by ferro-pyro-phototronic-effect-induced energy band bending. The pyro-phototronic effect has been utilized to modulate photoexcited carriers, to enhance the photocurrent in semiconducting nanomaterials. However, most of these materials have low pyroelectric performances. Using radially polarized ferroelectric BaTiO3 materials with a pyroelectric coefficient of about 16 nC/cm2K, we report a dramatic photocurrent enhancement due to ferro-pyrophototronic effect. The fabricated device enables a fast sensing of 365-nm light illumination with a response time of 0.5 s at the rising edge, where the output current-time curve displays a sharp peak followed by a stable plateau. By applying a heating temperature variation, the output current peak can be enhanced by more than 30 times under a light intensity of 0.6 mW/cm2. Moreover, the stable current plateau can be enhanced by 23% after utilizing a cooling temperature variation, which can be well explained by ferro-pyro-phototronic-effect-induced energy band bending. The pyro-phototronic effect has been utilized to modulate photoexcited carriers, to enhance the photocurrent in semiconducting nanomaterials. However, most of these materials have low pyroelectric performances. Using radially polarized ferroelectric BaTiO3 materials with a pyroelectric coefficient of about 16 nC/cm2K, we report a dramatic photocurrent enhancement due to ferro-pyrophototronic effect. The fabricated device enables a fast sensing of 365-nm light illumination with a response time of 0.5 s at the rising edge, where the output current-time curve displays a sharp peak followed by a stable plateau. By applying a heating temperature variation, the output current peak can be enhanced by more than 30 times under a light intensity of 0.6 mW/cm2. Moreover, the stable current plateau can be enhanced by 23% after utilizing a cooling temperature variation, which can be well explained by ferro-pyro-phototronic-effect-induced energy band bending. |
语种 | 英语;英语;英语;英语;英语;英语;英语;英语;英语;英语;英语;英语 |
内容类型 | 期刊论文 |
源URL | [http://ir.lut.edu.cn/handle/2XXMBERH/156488] ![]() |
专题 | 兰州理工大学 |
通讯作者 | Ya Yang |
作者单位 | 1.School of Nanoscience and Technology, University of Chinese Academy of Sciences, Beijing 100049, P. R. China 2.CAS Center for Excellence in Nanoscience, Beijing Institute of Nanoenergy and Nanosystems, Chinese Academy of Sciences, Beijing 100083, P. R. China; |
推荐引用方式 GB/T 7714 | Kun Zhao,Bangsen Ouyang,Ya Yang. Enhancing Photocurrent of Radially Polarized Ferroelectric BaTiO3 Materials by Ferro-PyroPhototronic Effect;Enhancing Photocurrent of Radially Polarized Ferroelectric BaTiO3 Materials by Ferro-PyroPhototronic Effect;Enhancing Photocurrent of Radially Polarized Ferroelectric BaTiO3 Materials by Ferro-PyroPhototronic Effect;Enhancing Photocurrent of Radially Polarized Ferroelectric BaTiO3 Materials by Ferro-PyroPhototronic Effect;Enhancing Photocurrent of Radially Polarized Ferroelectric BaTiO3 Materials by Ferro-PyroPhototronic Effect;Enhancing Photocurrent of Radially Polarized Ferroelectric BaTiO3 Materials by Ferro-PyroPhototronic Effect;Enhancing Photocurrent of Radially Polarized Ferroelectric BaTiO3 Materials by Ferro-PyroPhototronic Effect;Enhancing Photocurrent of Radially Polarized Ferroelectric BaTiO3 Materials by Ferro-PyroPhototronic Effect;Enhancing Photocurrent of Radially Polarized Ferroelectric BaTiO3 Materials by Ferro-PyroPhototronic Effect;Enhancing Photocurrent of Radially Polarized Ferroelectric BaTiO3 Materials by Ferro-PyroPhototronic Effect;Enhancing Photocurrent of Radially Polarized Ferroelectric BaTiO3 Materials by Ferro-PyroPhototronic Effect;Enhancing Photocurrent of Radially Polarized Ferroelectric BaTiO3 Materials by Ferro-PyroPhototronic Effect[J]. iScience;iScience;iScience;iScience;iScience;iScience;iScience;iScience;iScience;iScience;iScience;iScience,2018(3;3;3;3;3;3;3;3;3;3;3;3):208–216;208–216;208–216;208–216;208–216;208–216;208–216;208–216;208–216;208–216;208–216;208–216. |
APA | Kun Zhao,Bangsen Ouyang,&Ya Yang.(2018).Enhancing Photocurrent of Radially Polarized Ferroelectric BaTiO3 Materials by Ferro-PyroPhototronic Effect;Enhancing Photocurrent of Radially Polarized Ferroelectric BaTiO3 Materials by Ferro-PyroPhototronic Effect;Enhancing Photocurrent of Radially Polarized Ferroelectric BaTiO3 Materials by Ferro-PyroPhototronic Effect;Enhancing Photocurrent of Radially Polarized Ferroelectric BaTiO3 Materials by Ferro-PyroPhototronic Effect;Enhancing Photocurrent of Radially Polarized Ferroelectric BaTiO3 Materials by Ferro-PyroPhototronic Effect;Enhancing Photocurrent of Radially Polarized Ferroelectric BaTiO3 Materials by Ferro-PyroPhototronic Effect;Enhancing Photocurrent of Radially Polarized Ferroelectric BaTiO3 Materials by Ferro-PyroPhototronic Effect;Enhancing Photocurrent of Radially Polarized Ferroelectric BaTiO3 Materials by Ferro-PyroPhototronic Effect;Enhancing Photocurrent of Radially Polarized Ferroelectric BaTiO3 Materials by Ferro-PyroPhototronic Effect;Enhancing Photocurrent of Radially Polarized Ferroelectric BaTiO3 Materials by Ferro-PyroPhototronic Effect;Enhancing Photocurrent of Radially Polarized Ferroelectric BaTiO3 Materials by Ferro-PyroPhototronic Effect;Enhancing Photocurrent of Radially Polarized Ferroelectric BaTiO3 Materials by Ferro-PyroPhototronic Effect.iScience;iScience;iScience;iScience;iScience;iScience;iScience;iScience;iScience;iScience;iScience;iScience(3;3;3;3;3;3;3;3;3;3;3;3),208–216;208–216;208–216;208–216;208–216;208–216;208–216;208–216;208–216;208–216;208–216;208–216. |
MLA | Kun Zhao,et al."Enhancing Photocurrent of Radially Polarized Ferroelectric BaTiO3 Materials by Ferro-PyroPhototronic Effect;Enhancing Photocurrent of Radially Polarized Ferroelectric BaTiO3 Materials by Ferro-PyroPhototronic Effect;Enhancing Photocurrent of Radially Polarized Ferroelectric BaTiO3 Materials by Ferro-PyroPhototronic Effect;Enhancing Photocurrent of Radially Polarized Ferroelectric BaTiO3 Materials by Ferro-PyroPhototronic Effect;Enhancing Photocurrent of Radially Polarized Ferroelectric BaTiO3 Materials by Ferro-PyroPhototronic Effect;Enhancing Photocurrent of Radially Polarized Ferroelectric BaTiO3 Materials by Ferro-PyroPhototronic Effect;Enhancing Photocurrent of Radially Polarized Ferroelectric BaTiO3 Materials by Ferro-PyroPhototronic Effect;Enhancing Photocurrent of Radially Polarized Ferroelectric BaTiO3 Materials by Ferro-PyroPhototronic Effect;Enhancing Photocurrent of Radially Polarized Ferroelectric BaTiO3 Materials by Ferro-PyroPhototronic Effect;Enhancing Photocurrent of Radially Polarized Ferroelectric BaTiO3 Materials by Ferro-PyroPhototronic Effect;Enhancing Photocurrent of Radially Polarized Ferroelectric BaTiO3 Materials by Ferro-PyroPhototronic Effect;Enhancing Photocurrent of Radially Polarized Ferroelectric BaTiO3 Materials by Ferro-PyroPhototronic Effect".iScience;iScience;iScience;iScience;iScience;iScience;iScience;iScience;iScience;iScience;iScience;iScience .3;3;3;3;3;3;3;3;3;3;3;3(2018):208–216;208–216;208–216;208–216;208–216;208–216;208–216;208–216;208–216;208–216;208–216;208–216. |
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