• Photonics Research
  • Vol. 8, Issue 9, 1496 (2020)
Yifan Gu1、†, Tingting Hou2、3、†, Peng Chen1, Jinxin Cao1, Chongxiang Pan2、4, Weiguo Hu2、3、4, Bo-Ru Yang1、6、*, Xiong Pu2、3、4、7、*, and Zhong Lin Wang2、3、4、5、8、*
Author Affiliations
  • 1State Key Laboratory of Optoelectronic Materials and Technologies, Guangdong Province Key Laboratory of Display Material and Technology, and School of Electronics and Information Technology, Sun Yat-sen University, Guangzhou 510006, China
  • 2CAS Center for Excellence in Nanoscience, Beijing Key Laboratory of Micro-Nano Energy and Sensor, Beijing Institute of Nanoenergy and Nanosystems, Chinese Academy of Sciences, Beijing 100083, China
  • 3School of Nanoscience and Technology, University of Chinese Academy of Sciences, Beijing 100049, China
  • 4Center on Nanoenergy Research, School of Physical Science and Technology, Guangxi University, Nanning 530004, China
  • 5School of Materials Science and Engineering, Georgia Institute of Technology, Atlanta, Georgia 30332, USA
  • 6e-mail: yangboru@mail.sysu.edu.cn
  • 7e-mail: puxiong@binn.cas.cn
  • 8e-mail: zlwang@gatech.edu
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    DOI: 10.1364/PRJ.394044 Cite this Article Set citation alerts
    Yifan Gu, Tingting Hou, Peng Chen, Jinxin Cao, Chongxiang Pan, Weiguo Hu, Bo-Ru Yang, Xiong Pu, Zhong Lin Wang. Self-powered electronic paper with energy supplies and information inputs solely from mechanical motions[J]. Photonics Research, 2020, 8(9): 1496 Copy Citation Text show less
    Concept of self-powered E-paper (SPEP). (a) Schematical illustration of an SPEP with handwriting input and its structure in a pixel. (b) Prototype of the chromatic type SPEP before and after one-time color changing. (c) Possible applications of the SPEP in various fields.
    Fig. 1. Concept of self-powered E-paper (SPEP). (a) Schematical illustration of an SPEP with handwriting input and its structure in a pixel. (b) Prototype of the chromatic type SPEP before and after one-time color changing. (c) Possible applications of the SPEP in various fields.
    Operational characteristics of a monochromic E-paper under the voltage pulse mode. (a) Profiles of driving current, equivalent impedance, and intensity of reflective light during each driving process by a constant voltage. (b) Schematic diagrams of the identified five stages and in situ optical microscopy photos of an individual microcapsule. Profiles of (c) current and (d) equivalent impedance of the E-paper driven by different voltages.
    Fig. 2. Operational characteristics of a monochromic E-paper under the voltage pulse mode. (a) Profiles of driving current, equivalent impedance, and intensity of reflective light during each driving process by a constant voltage. (b) Schematic diagrams of the identified five stages and in situ optical microscopy photos of an individual microcapsule. Profiles of (c) current and (d) equivalent impedance of the E-paper driven by different voltages.
    Comparison of the E-paper driven by constant current and voltage sources. V-t and I-t plots of various sizes of E-papers under (a) current source mode and (b) voltage source mode, respectively. The inset photos show their correspondent grayscales. Equivalent electrical circuits and schematic diagrams of the E-paper driven by (c) a constant current source and (d) a constant voltage source are illustrated, respectively.
    Fig. 3. Comparison of the E-paper driven by constant current and voltage sources. V-t and I-t plots of various sizes of E-papers under (a) current source mode and (b) voltage source mode, respectively. The inset photos show their correspondent grayscales. Equivalent electrical circuits and schematic diagrams of the E-paper driven by (c) a constant current source and (d) a constant voltage source are illustrated, respectively.
    Characteristics of the sliding-mode TENG and typical responses of the E-paper driven by the TENG. (a) Working mechanism of the sliding-mode TENG and its photo. (b) The output short-circuit current of a TENG. (c) The summarized maximum amplitude of a short-circuit current of TENG with different structural parameters and sliding speeds. (d) The peak current of the TENG at different external loading resistance. (e) The rectified short-circuit current of the TENG. (f) Peak output power of a TENG (w=2 mm and v=0.5 m/s) at different external loading resistance. (g)‒(i) Current (inset is the peak current), voltage (inset is the valley value of voltage), and grayscale change (insets are photos of E-papers) of an E-paper driven by the TENG, respectively. Other than (c), all are measured with TENG parameters of w=2 mm and v=0.5 m/s.
    Fig. 4. Characteristics of the sliding-mode TENG and typical responses of the E-paper driven by the TENG. (a) Working mechanism of the sliding-mode TENG and its photo. (b) The output short-circuit current of a TENG. (c) The summarized maximum amplitude of a short-circuit current of TENG with different structural parameters and sliding speeds. (d) The peak current of the TENG at different external loading resistance. (e) The rectified short-circuit current of the TENG. (f) Peak output power of a TENG (w=2  mm and v=0.5  m/s) at different external loading resistance. (g)‒(i) Current (inset is the peak current), voltage (inset is the valley value of voltage), and grayscale change (insets are photos of E-papers) of an E-paper driven by the TENG, respectively. Other than (c), all are measured with TENG parameters of w=2  mm and v=0.5  m/s.
    Influential parameters for driving E-papers with the TENG. (a) Grayscale changes of the E-paper driven by TENGs with different electrode widths (v=0.25 m/s, A=12 cm2). (b) Grayscale changes of the E-paper driven by TENGs at different sliding speeds (w=1 mm, A=16 cm2). (c) Grayscale changes of the E-paper with different sizes (w=1 mm, v=0.25 m/s). (d) Photos of grayscale changing of monochromic and chromatic E-papers (A=12 cm2) along with sliding motion times of the TENG.
    Fig. 5. Influential parameters for driving E-papers with the TENG. (a) Grayscale changes of the E-paper driven by TENGs with different electrode widths (v=0.25  m/s, A=12  cm2). (b) Grayscale changes of the E-paper driven by TENGs at different sliding speeds (w=1  mm, A=16  cm2). (c) Grayscale changes of the E-paper with different sizes (w=1  mm, v=0.25  m/s). (d) Photos of grayscale changing of monochromic and chromatic E-papers (A=12  cm2) along with sliding motion times of the TENG.
    Self-powered E-paper (SPEP) integrated with a transparent TENG. (a) Schematic illustration of an all-in-one SPEP with a transparent TENG on the top. (b) The rectified short-circuit current of the TENG with hand sliding (w=1 mm). (c) Transmittance and photos (inset) of the transparent TENG. (d) The grayscale changes and inset photos of the SPEP driven by hand sliding. (e) The grayscale of the E-paper before and after bending.
    Fig. 6. Self-powered E-paper (SPEP) integrated with a transparent TENG. (a) Schematic illustration of an all-in-one SPEP with a transparent TENG on the top. (b) The rectified short-circuit current of the TENG with hand sliding (w=1  mm). (c) Transmittance and photos (inset) of the transparent TENG. (d) The grayscale changes and inset photos of the SPEP driven by hand sliding. (e) The grayscale of the E-paper before and after bending.
    Yifan Gu, Tingting Hou, Peng Chen, Jinxin Cao, Chongxiang Pan, Weiguo Hu, Bo-Ru Yang, Xiong Pu, Zhong Lin Wang. Self-powered electronic paper with energy supplies and information inputs solely from mechanical motions[J]. Photonics Research, 2020, 8(9): 1496
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