Help ?

IGMIN: あなたがここにいてくれて嬉しいです. お願いクリック '新しいクエリを作成してください' 当ウェブサイトへの初めてのご訪問で、さらに情報が必要な場合は.

すでに私たちのネットワークのメンバーで、すでに提出した質問に関する進展を追跡する必要がある場合は, クリック '私のクエリに連れて行ってください.'

科学、技術、工学、医学(STEM)分野に焦点を当てています | ISSN: 2995-8067  G o o g l e  Scholar

logo image

IgMin Research | マルチディシプリナリーオープンアクセスジャーナルは、科学、技術、工学、医学(STEM)の広範な分野における研究と知識の進展に貢献することを目的とした権威ある多分野のジャーナルです.

Abstract

要約 at IgMin Research

私たちの使命は、学際的な対話を促進し、広範な科学領域にわたる知識の進展を加速することです.

Engineering Group Research Article 記事ID: igmin193

Current Oscillations and Resonances in Nanocrystals of Narrow-gap Semiconductors

Semiconductor Technology Affiliation

Affiliation

    Limited Liability Company “NPP Volga”. Saratov, Russia

要約

In single colloidal nanocrystals of narrow-gap semiconductors PbS and InSb, current instability in the form of quasi-periodic spikes and current resonance peaks was studied by measuring on a scanning probe microscope and analyzing Current-Voltage Characteristics (CVC). The observed phenomena are explained in models of the wave de Broglie process and Bloch oscillations. Statistically, the percentages of such samples and the parameters of oscillations on the current-voltage characteristic are higher, the larger the size quantization parameter, determined by the de Broglie wavelength. A possible practical use is the generation and recording of terahertz radiation modulated by ultrashort pulses.

数字

参考文献

    1. Singh S, Battiato M. Effect of Strong Electric Fields on Material Responses: The Bloch Oscillation Resonance in High Field Conductivities. Materials. 2020; 13(5):1070. DOI:10.3390/ma13051070.
    2. Höller J, Alexandradinata A. Topological Bloch oscillations. Phys Rev B. 2018; 98(2):024310. DOI:10.1103/PhysRevB.98.024310.
    3. Sokolov VN, Iafrate GJ. Spontaneous emission of Bloch oscillation radiation under the competing influences of microcavity enhancement and inhomogeneous interface degradation. J Appl Phys. 2014; 115:054307. DOI:10.1063/1.4863599.
    4. Ivanov KA, Girshova EI, Kaliteevsky MA, Clark SJ, Gallant AJ. Anharmonic Bloch oscillations of electrons in electrically biased superlattices. Semiconductors. 2016; 50(11):1484. DOI:10.21883/ftp.2016.11.43778.10.
    5. Moravcova H, Voves J. Physica E. Bloch oscillations in superlattices: Monte-Carlo analysis using 2D scattering model. Low-dimensional Systems and Nanostructures. 2003; 17:307. DOI:10.1016/S1386-9477(02)00818-4.
    6. Dmitriev IA, Suris RA. Electron localization and bloch oscillations in quantum-dot superlattices under a constant electric field. Semiconductors. 2001; 35(2):219.
    7. Sapienza R, Toninelli C, Otonc CJ. Bloch oscillations and resonant Zener tunneling of light in optical superlattices. Proc SPIE. 2005;2:421. DOI:10.1117/12.608205.
    8. Geiger ZA, Fujiwara KM, Singh K. Observation and Uses of Position-Space Bloch Oscillations in an Ultracold Gas. Phys Rev Lett. 2018;120:213201. DOI:10.1103/PhysRevLett.120.213201.
    9. Ekimov AI, Onushchenko AA. Quantization of the energy spectrum of holes in the adiabatic potential of the electron. Lett J Theor Exp Phys. 1984; 40(8):337.
    10. Zhukov ND, Gavrikov MV. Tech Phys Lett. 2022; 48(8):18. DOI:0.21883/PJTF.2022.08.52361.19090.
    11. Dragunov VP, Unknown IG, Gridchin VA. The Influence of Different Type Irradiations on the Surface States Parameters of Si-SiO2 Structures. Fundamentals of Nanoelectronics. Moscow: Logos; 2006. p. 495.
    12. Martinez B, Livache C, Notemgnou LDM. Synthesis and properties of mercury selenide colloidal quantum dots. ACS Appl Mater Interfaces. 2017; 9(41):36173.
    13. Lesovik GB, Sadovsky IA. Scattering matrix approach to the description of quantum electron transport. Adv Phys Sci. 2011; 181(10):1041. DOI:10.3367/UFNr.0181.201110b.1041.
    14. Glinsky GF. A ​​simple numerical method for determining the energy spectrum of charge carriers in semiconductor heterostructures. Tech Phys Lett. 2018; 44(6):17. DOI:10.21883/PJTF.2018.06.45763.17113.
    15. Райх КВ. Adv Phys Sci. 2020; 190(10):1063.
    16. Kagan CR. Flexible colloidal nanocrystal electronics. Chem Soc Rev. 2019; 48:1626.
    17. Zhu J, Hersam MC. Assembly and Electronic Applications of Colloidal Nanomaterials. Adv Mater. 2017; 29:1603895.
    18. Diaconescu B, Padilha LA, Nagpal P, Swartzentruber BS, Klimov VI. Measurement of electronic states of PbS nanocrystal quantum dots using scanning tunneling spectroscopy: the role of parity selection rules in optical absorption. Phys Rev Lett. 2013; 110:127406. DOI:10.1103/PhysRevLett.110.127406.
    19. Gavrikov MV, Glukhovskoy EG, Zhukov ND. Quantum conductivity in single and coupled quantum-sized particles of narrow-gap semiconductors. Semiconductors. 2023; 57(5):338. DOI:10.21883/FTP.2023.05.56200.27k.
    20. Zhukov ND, Smirnova TD, Khazanov AA, Tsvetkova OYu, Shtykov SN. Properties of semiconductor colloidal quantum dots obtained under controlled synthesis conditions. Semiconductors. 2021; 55(12):1203. DOI:10.21883/FTP.2021.12.51706.9704.
    21. Zhukov ND, Tsvetkova OYu, Gavrikov MV, Rokah AG, Smirnova TD, Shtykov SN. Synthesis and properties of colloidal mercury selenide quantum dots. Semiconductors. 2022; 56(4):401. DOI:10.21883/FTP.2022.04.52195.9779.
    22. Krylsky DV, Zhukov ND. Synthesis, composition, photoluminescence, and stability of properties of colloidal InSb-based quantum dots. Tech Phys Lett. 2019; 45(16):10. DOI:10.21883/PJTF.2019.16.48147.17665.
    23. Chemical encyclopedia. http://xumuk.ru/encyklopedia
    24. Zhukov ND, Gavrikov MV. Int Scientific Res J. 2021; 8(110):19. DOI:https://doi.org/10.23670/IRJ.2021.110.8.004.
    25. Zhukov ND, Gavrikov MV, Shtykov SN. Electron-photon interactions in the conditions of dimensional conductivity restrictions in semiconductor single quantum-size particles in interelectrodic nanogapSemiconductors. 2022; 56(6):552. DOI:10.21883/FTP.2022.06.52588.9809.
    26. Bagraev NT, Buravlev AD, Klyachkin LE, Malyarenko AM, Gehlhoff V, Ivanov VK, Shelykh IA. Quantum Conductance Staircase of Edge Hole Channels in Silicon Quantum Wells. Semiconductors. 2002;36(4):462.
    27. Jacak L, Krasnyj J, Jacak W, Gonczarek R, Machnikowski P. Phys Rev B. 2005;72:245309.

類似の記事

Examining the Causal Connection between Lipid-lowering Medications and Malignant Meningiomas through Drug-target Mendelian Randomization Analysis
Liantai Song, Xiaoyan Guo, Wenhui Zhang, Mengjie Li, Xinyi Wu, Ziqian Kou, Yuxin Wang, Zigeng Ren and Qian Xu
DOI10.61927/igmin187
Peritoneal Carcinomatosis from Ovarian Cancer: A Case Report
Andrea González De Godos, Enrique Asensio Diaz, Pilar Pinto Fuentes, Baltasar Pérez Saborido and David Pacheco Sánchez
DOI10.61927/igmin181

ソーシャルアイコン

研究を公開する

私たちは、科学、技術、工学、医学に関する幅広い種類の記事を編集上の偏見なく公開しています。

提出する

見る 原稿のガイドライン 追加 論文処理料

IgMin 科目を探索する
グーグルスカラー
welcome Image

Google Scholarは2004年11月にベータ版が発表され、幅広い学術領域を航海する学術ナビゲーターとして機能します。それは査読付きジャーナル、書籍、会議論文、論文、博士論文、プレプリント、要約、技術報告書、裁判所の意見、特許をカバーしています。 IgMin の記事を検索