• New organic material unlocks faster and

    From ScienceDaily@1337:3/111 to All on Wed Jul 15 21:30:24 2020
    New organic material unlocks faster and more flexible electronic devices


    Date:
    July 15, 2020
    Source:
    Australian National University
    Summary:
    Mobile phones and other electronic devices made from an organic
    material that is thin, bendable and more powerful are now a
    step closer.



    FULL STORY ========================================================================== Mobile phones and other electronic devices made from an organic material
    that is thin, bendable and more powerful are now a step closer thanks
    to new research led by scientists at The Australian University (ANU).


    ==========================================================================
    Lead researchers Dr Ankur Sharma and Associate Professor Larry Lu say
    it would help create the next generation of ultra-fast electronic chips,
    which promise to be much faster than current electronic chips we use.

    "Conventional devices run on electricity -- but this material allows us
    to use light or photons, which travels much faster," Dr Sharma said.

    "The interesting properties we have observed in this material make it
    a contender for super-fast electronic processors and chips.

    "We now have the perfect building block, to achieve flexible next
    generation electronics." Associate Professor Lu said they observed
    interesting functions and capabilities in their organic material,
    previously unseen.



    ==========================================================================
    "The capabilities we observed in this material that can help us achieve
    ultra- fast electronic devices," said Associate Professor Lu.

    The team were able to control the growth of a novel organic semiconductor material -- stacking one molecule precisely over the other.

    "The material is just one carbon atom thick, a hundred times thinner
    than a human hair, which gives it the flexibility to be bent into any
    shape. This will lead to its application in flexible electronic devices."
    In 2018 the same team developed a material that combined both organic
    and inorganic elements.

    Now, they've been able to improve the organic part of the material,
    allowing them to completely remove the inorganic component.

    "It's made from just carbon and hydrogen, which would mean devices can be biodegradable or easily recyclable, thus avoiding the tonnes of e-waste generated by current generation electronic devices," Dr Sharma said.

    Dr Sharma says while the actual devices might still be some way off,
    this new study is an important next step, and a key demonstration of
    this new material's immense capabilities.


    ========================================================================== Story Source: Materials provided by Australian_National_University. Note: Content may be edited for style and length.


    ========================================================================== Journal Reference:
    1. Ankur Sharma, Linglong Zhang, Jonathan O. Tollerud, Miheng Dong,
    Yi Zhu,
    Robert Halbich, Tobias Vogl, Kun Liang, Hieu T. Nguyen, Fan Wang,
    Shilpa Sanwlani, Stuart K. Earl, Daniel Macdonald, Ping Koy Lam,
    Jeffrey A.

    Davis, Yuerui Lu. Supertransport of excitons in atomically thin
    organic semiconductors at the 2D quantum limit. Light: Science &
    Applications, 2020; 9 (1) DOI: 10.1038/s41377-020-00347-y ==========================================================================

    Link to news story: https://www.sciencedaily.com/releases/2020/07/200715095456.htm

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