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Low-Dimensional 2D Metal Oxides and their Integration into Conductometric Gas Sensors

  • Book

  • August 2025
  • Elsevier Science and Technology
  • ID: 6051665

Low-Dimensional 2D Metal Oxides and their Integration into Conductometric Gas Sensors provides a detailed description of the basic properties of 2D metal oxides before moving to a comparison of different low-dimensional MOXs and a discussion of synthesis and characterization methods. The book then investigates engineering and design, fundamental theories, mechanisms, properties, and analysis techniques of chemical gas sensors. Moreover, it describes materials and preparation methods for doping, decoration/functionalization, composite and heterostructure MOXs, which are useful in designing highly sensitive and selective sensing devices.

To provide sufficient knowledge to the readers about the actual gas sensing mechanism, in-situ characterization methods are included. Lastly, future directions of 2D MOXs such as sensor arrays, electronic noses, research expansion, and market expansion are described.

Table of Contents

PART 1 Introduction in low dimensional metal oxides and their application in gas sensors
1. Low dimensional 2D metal oxides and their properties
2. Size effect in low dimensional metal oxides
3. Advantages of low dimensional 2D metal oxides

PART 2 Synthesis of 2D metal oxides
4. Features of 2D nanomaterials synthesis
5. Bottom-up approach
6. Top-down approach
7. Liquid metal strategy

PART 3 Features of gas sensors based on low dimensional 2D MOXs
8. Advantages of 2D structures for gas sensor design
9. Features of the fabrication of 2D based gas sensors
10. Features of gas sensing effect in 2D structures

PART 4 Progress of gas sensors based on low dimensional 2D MOXs
11. Progress of 2D MOXs in conductometric chemical gas sensing
12. Engineering of gas sensors based on 2D MOXs

PART 5 Gas sensors based on porous 2D metal oxides
13. Advantages of porous 2D structures for gas sensor design
14. Synthesis of porous 2D metal oxides
15. The role of holes in the surface reactivity of 2D metal oxides
16. Performances of gas sensors based on porous 2D metal oxides

PART 6 Gas sensors based on 3D agglomerated nanoflakes and nanosheets
17. Synthesis and characterization of 3D structures
18. Features of gas sensing effect
19. Performances of gas sensors based
20. Advantages and disadvantages of application in gas sensors

PART 7 Hybrid structures based on 2D materials in conductometric gas sensors
21. Conductometric gas sensors and sensing mechanisms
22. Metal oxides 2D graphene and reduced graphene oxide (rGO)
23. Metal oxides 2D transition metal dichalcogenides (TMDs)
24. Metal-organic frameworks
25. Challenges in hybrid material based gas sensing

Authors

Elisabetta Comini Professor in the SENSOR LAB, Department of Information Engineering, University of Brescia, Italy. Elisabetta Comini is a specialist in the growth of metal oxides, particularly nanowires, thin films and the measurement of their electronic, functional, and structural properties. She is the head of the SENSOR Laboratory at the University of Brescia. She serves as a reviewer for various international journals and is part of the technical program committee of several conferences in chemical sensing. W.G.C. Kumarage Senior lecturer, Department of Physics and Electronics, University of Kelaniya, Sri Lanka. W.G.C. Kumarage is a senior lecturer in the Department of Physics and Electronics at the University of Kelaniya, Sri Lanka. His research interests lie in nanoscience, semiconductor physics, and nanostructured magnetic gas sensors.