• DocumentCode
    1685024
  • Title

    Qucs-based development of an energy harvester compact model

  • Author

    Tomaszewski, Daniel ; Domanski, Krzysztof ; Prokaryn, Piotr

  • Author_Institution
    Div. of Silicon Microsyst. & Nanostruct. Technol., Inst. Technol. Elektron. (ITE), Piaseczno, Poland
  • fYear
    2015
  • Firstpage
    198
  • Lastpage
    203
  • Abstract
    In the paper a simple compact model of a transfer of a mechanical energy into an electrical energy is presented. The mechanical energy is stored in a vibrating bimetallic membrane with an electret layer. The membrane vibrations are forced by a set-up consisting of a cold and hot surfaces. During the vibrations this set-up acts as a variable capacitor with one of the electrodes being constantly charged. The charge stored on the other plate of this capacitor varies periodically and is transferred to the external storage capacitor via a simple Graetz circuit. Acompact model of this mechanism has been derived and implemented in an open-source Quite Universal Circuit Simulator (Qucs) program as a circuit including a specific Equation-Defined Device component. The simulation data have been compared with experimental ones, demonstrating promising features of the proposed approach.
  • Keywords
    capacitor storage; electrets; energy harvesting; mechanical energy storage; membranes; vibrations; Graetz circuit; Qucs-based development; electret layer; energy harvester compact model; equation-defined device component; mechanical energy storage; membrane vibration; open-source quite universal circuit simulator program; storage capacitor; variable capacitor; vibrating bimetallic membrane; Capacitors; Cooling; Electrets; Heating; Integrated circuit modeling; Mathematical model; Transducers; Bimetal; Compact modeling; Electret; Energy harvesting; Qucs;
  • fLanguage
    English
  • Publisher
    ieee
  • Conference_Titel
    Mixed Design of Integrated Circuits & Systems (MIXDES), 2015 22nd International Conference
  • Conference_Location
    Torun
  • Print_ISBN
    978-8-3635-7806-0
  • Type

    conf

  • DOI
    10.1109/MIXDES.2015.7208510
  • Filename
    7208510