QUANTUM SIGNATURES IN 0D SYSTEMS

This book presents a comprehensive study of zero-dimensional (0D) quantum systems — including Quantum Dots (QDs), magneto-quantum MOSFETs, quantum well field-effect transistors (QWFETs), magneto size-quantized systems, magneto quantum well superlattices (SLs), magneto negative-ion potential islands (NIPIs), and quantum dot superlattices (QDSLs) — which are central to low-dimensional electronics, nanotechnology, and quantum device engineering. It investigates key properties such as Magneto Thermoelectric Power (MTP) in nanoscale thermoelectric conversion, Einstein's Photoemission (EP) in semiconductor nanostructures, Activity Coefficients (AC) in confined carrier systems, and carrier contributions to elastic constants (CEC) in advanced quantum materials.

The text covers a wide range of semiconductors and nanostructured compounds, including CdGeAs2, Cd3As2, III–V, II–VI materials, GaP, Ge, Te, PtSb2, HgTe, Pb(1-x)GexTe, GaSb, stressed n-InSb, Bi, IV–VI and II–V systems, Bi2Te3, Sb, Zn3P2, three-dimensional quantized NIPIs, strained superlattices with graded interfaces, and effective-mass engineered HgTe/CdTe SLs. We have investigated the quantum signatures for the said systems with respect to Quantum Capacitance, ID–VD equation, the relaxation time and the Raghi-Leduc coefficient respectively. We have derived the complex distribution function for HD materials which generate three new concepts We have also suggested experimental methods for the determination of Einstein's relation, the Elastic constants, and the Debye screening length together with the fact that the book covers 24 different applications in the field of quantized materials.

This book contains circa 250 multi-dimensional open research problems which form the integral part of the text and are useful for both PhD aspirants and researchers. It is written for post graduate students of various departments of different academic organizations, engineers and professionals in the fields of solid state electronics, materials science, solid state sciences, nano-science, nanotechnology and nano materials in general. This book will be invaluable to all those researching in academic and industrial laboratories in the said cases worldwide.

Contents:

• The Magneto Thermoelectric Power in Quantum Dots
• Einstein's Photoemission from Quantum Dots of Various Non-Parabolic Materials
• The Activity Coefficient in Doping Superlattices of Non-Parabolic Materials Under Magnetic Quantization
• The Carrier Contribution to the Elastic Constants in Doping Superlattices of Non-Parabolic Materials Under Magnetic Quantization
• The Quantum Capacitance in Quantized Transistors Under Magnetic to QQuantization
• The I_D–V_D Equation in Magneto MOSFETs
• The MTP in Quantum Dot Superlattices
• The Einstein's Photoemission from QWSLs Under Magnetic Quantization
• The Heat Capacity in QWSLs Under Magnetic Quantization
• The Carrier Contribution to the Elastic Constants in QWSLs Under Magnetic Quantization
• The CEC in Heavily Doped Quantum Dots
• Einstein's Photoemission from HDQD of Various Non-Parabolic Materials
• The Activity Coefficient in Heavily Doped of Doping Superlattices of Non-Parabolic Materials Under Magnetic Quantization
• The Heat Capacity in Doping Superlattices of HD Non-Parabolic Materials Under Magnetic Quantization
• The QC in Heavily Doped Quantized Transistors Under Magnetic Quantization
• The I_D–V_D Equation for Ballistic HDQWFETs Under Magnetic Quantization
• The MTP in HDQDSLs
• The EP in HDQWSLs Under Magnetic Quantization
• The Heavily Doped Non-Parabolic Materials Under Magneto-Size Quantization and the Righi–Leduc Coefficient
• The Landau's Dia (χ_d) and Pauli's Para (χ_p) Magnetic Susceptibilities in Quantized 0D Structures
• The Magneto Elastic Constants in 0D Systems Under Intense Light Waves
• The Acoustic Mode Scattering Under Intense Electric Field in HD Kane Type Materials
• The Generalized Distribution Function in Heavily Doped Materials
• The χ_d and χ_p in HD 0D Structures in the Presence of Magnetic Field
• Conclusion and Scope for Future Research

Readership: It is written for post graduate students of various departments of different academic organizations, engineers and professionals in the fields of solid-state electronics, materials science, solid state sciences, nanoscience, nanotechnology and nano materials in general. This book would also be invaluable to researchers in both academia and industry.