Shared more. Cited more. Safe forever.
    • advanced search
    • submit works
    • about
    • help
    • contact us
    • login
    View Item 
    •   MOspace Home
    • University of Missouri-Columbia
    • Graduate School - MU Theses and Dissertations (MU)
    • Theses and Dissertations (MU)
    • Theses (MU)
    • 2016 Theses (MU)
    • 2016 MU theses - Access restricted to UM
    • View Item
    •   MOspace Home
    • University of Missouri-Columbia
    • Graduate School - MU Theses and Dissertations (MU)
    • Theses and Dissertations (MU)
    • Theses (MU)
    • 2016 Theses (MU)
    • 2016 MU theses - Access restricted to UM
    • View Item
    JavaScript is disabled for your browser. Some features of this site may not work without it.
    advanced searchsubmit worksabouthelpcontact us

    Browse

    All of MOspaceCommunities & CollectionsDate IssuedAuthor/ContributorTitleIdentifierThesis DepartmentThesis AdvisorThesis SemesterThis CollectionDate IssuedAuthor/ContributorTitleIdentifierThesis DepartmentThesis AdvisorThesis Semester

    Statistics

    Most Popular ItemsStatistics by CountryMost Popular AuthorsStatistics by Referrer

    On-plane flexible and solid-state rechargeable lithium-MnO2 microbatteries from laser induced graphene

    Katailiha, Anand
    View/Open
    [PDF] public.pdf (1.862Kb)
    [PDF] research.pdf (3.044Mb)
    [PDF] short.pdf (28.25Kb)
    Date
    2016
    Format
    Thesis
    Metadata
    [+] Show full item record
    Abstract
    [ACCESS RESTRICTED TO THE UNIVERSITY OF MISSOURI AT REQUEST OF AUTHOR.] The thesis presents a flexible and solid state Li-MnO2 microbattery based on laser induced graphene (LIG) produced from commercial polyimide. To achieve this, interdigitated on-plane LIG electrodes were fabricated on commercial, flexible polyimide films. Then, Li and MnO2 were electrochemically deposited on LIG electrodes as anode and cathode materials respectively. Li-ion gel electrolyte was used to fabricate all solid-state, rechargeable flexible lithium-MnO2 microbattery. The first reversible capacity of the battery is 0.032 mAh/cm2 at 0.05 mA/cm2 and maintains about 80% of this value after 40 cycles while maintaining ~98% coulombic efficiency. The porous structure of LIG is thought to accommodate the volume change of active materials during charging / discharging thereby resulting in achieving the reversible capacity of the microbattery device. These devices show benefits of cost-effectiveness in manufacturing and promise of being used to power microelectronics.
    URI
    https://hdl.handle.net/10355/57621
    https://doi.org/10.32469/10355/57621
    Degree
    M.S.
    Thesis Department
    Mechanical and aerospace engineering (MU)
    Rights
    Access is limited to the campuses of the University of Missouri.
    Collections
    • 2016 MU theses - Access restricted to UM
    • Mechanical and Aerospace Engineering electronic theses and dissertations (MU)

    Send Feedback
    hosted by University of Missouri Library Systems
     

     


    Send Feedback
    hosted by University of Missouri Library Systems