Njengomunye wabameleli abajwayelekile kakhulu be-tin-based oxides, i-tin dioxide (SnO2) inezici ezifanele ze-n-type wide-bandgap semiconductors, futhi isetshenziswe emikhakheni eminingi efana nokuzwa igesi kanye ne-biotechnology.Ngasikhathi sinye, i-SnO2 inezinzuzo zezindawo eziningi ezigciniwe kanye nokuvikelwa kwemvelo okuluhlaza, futhi ithathwa njengenye yezinto ezithembisayo ze-anode zamabhethri e-lithium-ion.

I-Nano tin dioxide iphinde isetshenziswe kabanzi emkhakheni wamabhethri e-lithium ngenxa yokungena kwayo kahle ekukhanyeni okubonakalayo, ukuzinza okuhle kwamakhemikhali esixazululweni samanzi, kanye nokuhamba okuqondile nokubonakaliswa kwemisebe ye-infrared.

I-Nano stannic oxide iyinto entsha ye-anode yamabhethri e-lithium-ion.Ihlukile ezintweni zangaphambilini ze-carbon anode, iyisistimu ye-inorganic enezakhi zensimbi ngesikhathi esifanayo, futhi i-microstructure yakhiwe izinhlayiya ze-nano scale stannic anhydride.I-Nano tin oxide inezici zayo eziyingqayizivele ze-lithium intercalation, futhi indlela yayo ye-lithium intercalation ihluke kakhulu kuleyo ye-carbon materials.

Ucwaningo ngenqubo ye-lithium intercalation ye-tin dioxide nanoparticle lubonisa ukuthi ngenxa yokuthi izinhlayiya ze-SnO2 ziyi-nano-scale, futhi izikhala phakathi kwezinhlayiya zinosayizi we-nano-size, inikeza isiteshi esihle sokuhlanganisa i-nano-lithium kanye nokuhlangana ukuze kuhlanganiswe i-lithium ions.Ngakho-ke, i-tin oxide nano inomthamo omkhulu we-lithium intercalation kanye nokusebenza okuhle kwe-lithium intercalation, ikakhulukazi esimweni sokushaja okuphezulu kwamanje nokukhipha, isenamandla amakhulu okubuyisela emuva.I-tin dioxide nano material ihlongoza uhlelo olusha sha lwe-lithium ion anode material, olususa uhlelo lwangaphambili lwe-carbon materials, futhi ludonse ukunaka nokucwaninga okwengeziwe.