najoNanosystems: Physics, Chemistry, MathematicsНаносистемы: физика, химия, математика2220-80542305-7971Университет ИТМО10.17586/2220-8054-2016-7-4-604-608najo-1249Research ArticleСтатьиDynamic study of bismuth telluride quantum dot assisted titanium oxide for efficient photoelectrochemical performanceDynamic study of bismuth telluride quantum dot assisted titanium oxide for efficient photoelectrochemical performancePatilPallavi B.PatilPallavi B.

 

Materials Research Laboratory, Department of Chemistry

Kolhapur–416004

Materials Research Laboratory, Department of Chemistry

Kolhapur–416004

KondalkarVijay V.KondalkarVijay V.

Materials Research Laboratory, Department of Chemistry

Kolhapur–416004

Materials Research Laboratory, Department of Chemistry

Kolhapur–416004

KhotKishorkumar V.KhotKishorkumar V.

Materials Research Laboratory, Department of Chemistry

Kolhapur–416004

Materials Research Laboratory, Department of Chemistry

Kolhapur–416004

BagadeChaitali S.BagadeChaitali S.

Materials Research Laboratory, Department of Chemistry

Kolhapur–416004

Materials Research Laboratory, Department of Chemistry

Kolhapur–416004

ManeRahul M.ManeRahul M.

Materials Research Laboratory, Department of Chemistry

Kolhapur–416004

Materials Research Laboratory, Department of Chemistry

Kolhapur–416004

BhosaleP. N.BhosaleP. N.

Materials Research Laboratory, Department of Chemistry

Kolhapur–416004

 

Materials Research Laboratory, Department of Chemistry

Kolhapur–416004

p.n.bhosale@rediffmail.comShivaji UniversityShivaji University20162208202574604608Copyright © Patil P.B., Kondalkar V.V., Khot K.V., Bagade C.S., Mane R.M., Bhosale P.N., 20252025Patil P.B., Kondalkar V.V., Khot K.V., Bagade C.S., Mane R.M., Bhosale P.N.Patil P.B., Kondalkar V.V., Khot K.V., Bagade C.S., Mane R.M., Bhosale P.N.Данная работа распространяется под лицензией Creative Commons Attribution 4.0.This work is licensed under a Creative Commons Attribution 4.0 License.https://nanojournal.ifmo.ru/jour/article/view/1249

The 3D TiO2 microflowers, sensitized by Bi2Te3 nanoparticles, having novel architecture were generated employing a two-step synthetic strategy, including a hydrothermal process and a potentiostatic electrodeposition technique. The design and synthesis of quantum dots (QDs) for achieving high photoelectrochemical performance is an urgent need for high technology fields

The 3D TiO2 microflowers, sensitized by Bi2Te3 nanoparticles, having novel architecture were generated employing a two-step synthetic strategy, including a hydrothermal process and a potentiostatic electrodeposition technique. The design and synthesis of quantum dots (QDs) for achieving high photoelectrochemical performance is an urgent need for high technology fields

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The authors declare that there are no conflicts of interest present.