Fundamentals of CMOS Analog Integrated Circuits: Theory and LT Spice Verifications (Hardcover)

Electromagnetic Radiations : Exposure and Impact (Paperback)

1. Introduction. 2. Electromagnetic Emissions Basics. 3. Radiation in Real Life. 4. Environmental Impact. 5. Commercial Radiation. 6. Living Better. 7. Conclusion.

Signals and Systems : A Primer with MATLAB® (Paperback, 2 ed)

1. Basic Concepts 2. Convolution 3. The Laplace Transform 4. The Fourier Series 5. The Fourier Transform 6. Discrete Fourier Transform 7. z-Transform

Practical Antenna : Design, Analysis, and Applications (Paperback)

1. Dual-band Circularly Polarized MIMO Antenna Deploying a Dual-band Transmission Type Linear to Circular Polarization Converter. 2. Design and Optimization of Metasurface Antennas in Wireless Communication. 3. Wideband and Multi-band Circularly Polarized Planar Slot Antennas. 4.?Multi Input Multi Output Antennas. 5.?Exploring the Dynamics of Microstrip Monopole Antenna and Radiation Mechanism of Dipole Antennas. 6.?28/38GHz Millimetre Wave MIMO Antenna for 5G Wireless Communication Systems. 7. Pattern Synthesis of a Linear Antenna Array using Sooty Tern Optimization Algorithm. 8.?1-D and 2-D Beam-Switching Transmit Array Antennas for Millimetre Wave Base Stations and Vehicular Networks. 9. An Array of Highly-directive Printed Fractal Radiators for D2H Applications. 10.?Design of Microstrip Patch Array Antennas for IoT Applications.

Continuous-Time Signals and Systems : A MATLAB-Integrated Approach, Second Edition (Paperback, 2 ed)

Continuous-Time Signals and Systems. State-Space Analysis of Continuous-Time Systems. 6. Analysis and Design of Continuous-Time Filters. 7. Communications Application: Amplitude Modulation. Problems. MATLAB Problems, MATLAB Projects. Appendices. Index.

5G and Beyond Wireless Communications : Fundamentals, Applications, and Challenges (Paperback)

Chapter 1- A Comprehensive Research Look of Opportunities and Challenges in Advanced Wireless Communication

Chapter 2- Opportunities and Challenges in Advanced Wireless Communication

Chapter 3- Millimeter Wave for Next-Generation Networks: Opportunities, Challenges, and Possible Solutions

Chapter 4- Cognitive Radio: A Key Enabling Technology for 5G and Beyond Communication

Chapter 5- Device-to-Device Communication: Cooperative Device-to-Device Communication

Chapter 6- UAV-Assisted Communication: Unmanned Aerial Vehicles in Vehicle-To-Everything Communication Networks

Chapter 7- A Flight from 5G to 6G with UAV-Enabled Communications: A Case Study

Chapter 8- Development and Analysis of an RF-Powered Rechargeable Wireless Sensor Network for LR-WPAN

Chapter 9- Cooperative NOMA with Hybrid PTS-Based Energy Harvesting Relay

Chapter 10- Full-Duplex Energy Harvesting-Based Cooperative NOMA Network

Chapter 11- Design of Efficient Signal Detection Schemes for Large-Scale MU-MIMO System

Chapter 12- Flexible Antennas ? A New Frontier in 5G Technology: A Review

Chapter 13- Flexible MIMO Antennas for UWB applications

Chapter 14- Design of Inset-Fed Microstrip Patch Antenna Using Surrogate Model-Assisted Differential Evolution

Chapter 15- Millimetre Wave Antenna Design For 5G Applications

Chapter 16- Machine Learning Algorithms for Optimization and Intelligence in Wireless Networks: WSNs, MANETs, VANETs, and USNs

Chapter 17- An Efficient Localization for Resource Management in UAV-Assisted Wireless Networks Using Deep Learning

Chapter 18- A Smartphone Based Context-Aware Driver Rating System for Cities in Developing Economies

2D Semiconducting Materials for Electronic, Photonic, and Optoelectronic Devices (Paperback, 1)

1??????????? Fundamentals of 2D Semiconducting Materials

2??????????? Synthesis and Characterization of 2D-Semiconducting Materials

3??????????? Synthesis and Applications of Graphene Quantum Dots

4??????????? Wide Bandgap 2D Semiconductors and their Applications

5??????????? Interfacial Properties and Geometry of 2D Semiconducting Materials

6??????????? Molecular Orbital Delocalization and Stacking Effect on 2D Semiconducting Materials

7??????????? Properties of 2D Semiconducting Materials

8??????????? Optical, Electrical, Thermal, and Mechanical Properties of 2D Semiconducting Materials

9??????????? Metal-Oxide-Semiconductor Devices

10????????? Progresses in Two-dimensional Ferroelectrics and Potential Applications

11????????? Logic Devices based on 2D Semiconducting Materials

12????????? Memristors based on 2D Semiconducting Materials

13????????? Other Sensors based on 2D-SCMs (Light, Gas, Liquid, Pulse, etc.)

14????????? Telecommunications Devices based on 2D Semiconducting Materials

15????????? Chips based on 2D Semiconducting Materials

16????????? 2D Semiconductors for Electrochemical Energy Applications

17????????? Solar Rechargeable Energy Conversion/Storage Systems: Overview of 2D Nanomaterials

18????????? Energy Generation Devices based on 2D-SCM

19????????? Electrical Energy Storage Devices based on 2D Semiconducting Materials

20????????? Two-dimensional (2D) Semiconductors for Solar to Hydrogen Fuel

21????????? 2D Semiconductors for Next-Generation Thermoelectric Materials

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Handbook of Perovskite Solar Cells, Volume 3 : Critical Challenges and Opportunities in Commercialization (Paperback)

1. Lead Management in Perovskite Solar Cells, 2. Photon Management in Perovskite Solar Cells, 3. Encapsulation of Perovskite Solar Cells, 4. The Long-Term Stability of Perovskite Solar Cells, 5. Toward Perovskite Solar Cell Commercialization: Roadmap and Trends

Principles of Passive Intermodulation: Modeling and Simulation (Hardcover)

Theory and Technique for Low Earth Orbit Satellite Internet of Things (Hardcover)

Jitter and Spur Minimization in Fractional-N Digital Frequency Synthesizers: Modeling, Simulation, Analysis, and Design Methodologies (Hardcover)

RF & Microwave Multi-Mode and Tunable Filters (Hardcover)

Electromagnetic Communications (Hardcover, 2, Second 2026)

Mechanical Metamaterials for Engineering and Architectural Applications (Hardcover, 1)

1. Introduction to Mechanical Metamaterials 2. Design Principles and Fabrication Techniques 3. Mechanical Properties and Functional Behavior 4. Engineering Applications of Mechanical Metamaterials 5. Architectural Applications of Mechanical Metamaterials 6. Future Trends and Challenges in Mechanical Metamaterials

Low-Dimensional Quantum Materials : From Fundamentals to Frontiers (Hardcover)

Part I: Introduction to Low-Dimensional Quantum Materials.?1.???? Overview of Low-Dimensional Quantum Materials.?2.???? Preparation and Characterization of Low-Dimensional Quantum Materials.?3.???? Basic Physical Properties of Low-Dimensional Quantum Materials.?Part II: Major Systems of Low-Dimensional Quantum Materials.?4.???? Low-Dimensional Topological Materials.?5.???? Low-Dimensional Superconducting Materials.?6.???? Low-Dimensional Magnetic Materials.?Part III: Cutting-edge Research and Future Applications.?7.???? Quantum Computing.?8.???? Low-Dimensional Quantum Materials in Novel Electronic and Optoelectronic Devices.?9.???? Applications of Low-Dimensional Quantum Materials in Energy Conversion and Catalysis.

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Electromagnetic Waves: Theory and Applications: With a Special Focus on Circuit and Antenna Design (Hardcover, 2, Second 2026)

Cellular Radio Access Networks: RF Fundamentals and Protocols (Paperback)

Handbook of Two-Dimensional Quantum Materials and Energy Applications (Hardcover, 1)

Chapter 1. Introduction to Two-Dimensional Quantum Materials. Chapter 2. Synthesis and Advanced Characterization Techniques. Chapter 3. Electronic, Magnetic, Topological and Optical Properties. Chapter 4. Photophysics and Excited-State Dynamics of 2D Quantum Materials for Energy Conversion.?Chapter 5. Exciton Dynamics in 2D Quantum Material Heterostructures. Chapter 6. Two Dimensional Quantum Materials for Next-Generation Photovoltaics. Chapter 7. Thermoelectrics in 2D Quantum Materials: Harnessing Waste Heat. Chapter 8. Piezoelectric and Triboelectric Nanogenerators (Energy Harvesting Applications). Chapter 9. 2D Quantum Materials: Photodetectors and Optoelectronic Devices. Chapter 10. 2D Quantum Materials: Spin Optoelectronics/Topological Effects and Their Potential Energy Applications. Chapter 11. 2D Quantum Materials for Batteries: Lithium-ion, Sodium-ion and Beyond. Chapter 12. Two-Dimensional Quantum Materials for Energy Storage Supercapacitor Devices. Chapter 13. Spin-Valley Polarization in Transition Metal Dichalcogenides and Applications. Chapter 14. Hybrid and Heterostructure of 2D Quantum Materials. Chapter 15. Perspectives on 2D Quantum Materials for Energy Applications

Six-Dimensional Movable Antenna for Wireless Networks (Hardcover)

Smart Wearables, Nanofibers, and Textiles (Hardcover, 1)

0. Front Matter.? ?1. Challenges and Prospects of Smart Wearables for Energy Harvesting and Energy Storage.? ?2. Emergence and functionality of artificial intelligence (AI) and machine learning (ML) in smart wearables.? ?3. From eco-design to intelligent functionality: a chapter on modern smart wearables. 4. Conducting Yarn-based Smart Wearables: From Lab to Laundry. 5. Textile-Based Wearable Sensors: Advances in Multimodal Sensing for Continuous Human Health Monitoring.? ?6. Fluorescent and chromatic eco-friendly wearables.? ?7. Eco-friendly photonic wearables.? ?8. Synthetic Polymer Nanofibre Films with Smart and Active Agents for Food Packaging.? ?9. Smart Active Biopolymer Nanofibre Films: The Future of Food Packaging. 10. The Future of Diffusion is Green: Eco-Carriers as Functional Enablers in Sustainable Textile Processing.

Quantum Photonics: Quantum Non-Locality at Work (Hardcover, 3, Third 2026)

RF and Microwave Design : Circuits, Devices, and Systems (Hardcover)

Chapter 1. Fundamentals of RF and Microwave Device/Circuit Principles. 1.1 Introduction. 1.2 Low-Frequency vs RF and Microwave Device/Circuit Principles. References. Chapter 2. Basics of Scattering Matrix Useful for Characterizing RF/Microwave Circuits and Devices. 2.1 Introduction. 2.2 S-parameter Formulation of Microwave Network. 2.3 Properties of S-parameters. 2.4 S-matrix of Various Microwave Passive Circuit Components. 2.5 Signal Flow Graphs. 2.6 Application of Signal Flow Graph?RF/Microwave Amplifier Gain Formulation in Terms of S-parameters. References. Chapter 3. Fundamentals of Smith Chart and Stub Matching Design With Smith Chart. 3.1 Introduction. 3.2 Development of Smith Chart. 3.3 Smith and Jones Chart. 3.4 Compressed Smith Chart. 3.5 Stub Matching Design with Smith Chart. References. Chapter 4. Impedance Matching Circuits in Microwave Design. 4.1 Introduction. 4.2 Impedance Transformers. 4.3 Impedance Matching with Lumped-component/Planer Distributed-Line Reactive Elements. References. Chapter 5 . Microwave Filter Circuit Design: Low-pass, Band-pass, Band-stop, and Metamaterial-inspired Filter. 5.1 Introduction. 5.2 Insertion Loss Method for Low-pass Prototype Design. 5.3 Filter Transformations from Prototype. 5.4 Microwave Implementation. 5.5 Practical Microwave Filters?Analysis and Design. 5.6 Metamaterial-inspired Filter Design at Microwave Frequency. References. Chapter 6. Design of RF/Microwave Oscillators and Amplifiers. 6.1 Introduction. References. Chapter 7. Design of Microwave Power Combiners and Mixers. 7.1 Microwave Power Combiners. 7.2 Microwave Mixers. References. Chapter 8. Microwave Antenna Design. 8.1 Introduction. 8.2 Principle of Operation of Microstrip Patch Antenna. 8.3 Design of Conventional Microstrip Patch Antenna and Metamaterial-inspired Microstrip Patch Antenna. References. Chapter 9. RF and Microwave System Design. 9.1 Introduction. 9.2 Some Technical Aspects Related to Transmitter and Receiver. 9.3 Issues Related to R...


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Alm-Based Manifold Optimization for Wireless Beamforming (Paperback)

Quantum Mechanics : An Introduction for Devices Physicists and Electrical Engineers (Hardcover, 4 ed)

Chapter 1: Waves and Particles,?Chapter 2: The Schrodinger Equation, Chapter 3: Tunneling, Chapter 4: Periodic Potentials, Chapter 5: The Harmonic Oscillator, Chapter 6: Operators and Bases, Chapter 7: Stationary Perturbation Theory, Chapter 8: Time-Dependent Perturbation Theory, Chapter 9: Motion in a Centrally-Symmetric Potential, Chapter 10: Spin Angular Momentum, Chapter 11: An Introduction to Quantum Computing and Information

Quantum Mechanics : An Introduction for Devices Physicists and Electrical Engineers (Paperback, 4 ed)

Chapter 1: Waves and Particles,?Chapter 2: The Schrodinger Equation, Chapter 3: Tunneling, Chapter 4: Periodic Potentials, Chapter 5: The Harmonic Oscillator, Chapter 6: Operators and Bases, Chapter 7: Stationary Perturbation Theory, Chapter 8: Time-Dependent Perturbation Theory, Chapter 9: Motion in a Centrally-Symmetric Potential, Chapter 10: Spin Angular Momentum, Chapter 11: An Introduction to Quantum Computing and Information