Semiconductor Gas Sensors 2nd Edition by Raivo Jaaniso, Ooi Kiang Tan ISBN 978-0081025598 0081025599

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ISBN 10:  0081025599

ISBN 13: 978-0081025598

Author: Raivo Jaaniso, Ooi Kiang Tan

Semiconductor Gas Sensors, Second Edition, summarizes recent research on basic principles, new materials and emerging technologies in this essential field. Chapters cover the foundation of the underlying principles and sensing mechanisms of gas sensors, include expanded content on gas sensing characteristics, such as response, sensitivity and cross-sensitivity, present an overview of the nanomaterials utilized for gas sensing, and review the latest applications for semiconductor gas sensors, including environmental monitoring, indoor monitoring, medical applications, CMOS integration and chemical warfare agents. This second edition has been completely updated, thus ensuring it reflects current literature and the latest materials systems and applications.

Includes an overview of key applications, with new chapters on indoor monitoring and medical applications
Reviews developments in gas sensors and sensing methods, including an expanded section on gas sensor theory
Discusses the use of nanomaterials in gas sensing, with new chapters on single-layer graphene sensors, graphene oxide sensors, printed sensors, and much more

Table of contents: 

1. Fundamentals of semiconductor gas sensors

Noboru Yamazoe and Kengo Shimanoe

1.1 Introduction

1.2 Classification of semiconductor gas sensors

1.3 Resistor-type sensors: empirical aspects

1.4 Resistor-type sensors: theoretical aspects

1.5 Future trends

References

2. Conduction mechanism in semiconducting metal oxide sensing films: impact on transduction

N. Barsan, M. Huebner and U. Weimar

2.1 Introduction

2.2 General discussion about sensing with semiconducting metal oxide gas sensors

2.3 Sensing and transduction for p- and n-type semiconducting metal oxides

2.4 Investigation of the conduction mechanism in semiconducting metal oxide sensing layers: studies in working conditions

2.5 Conduction mechanism switch for n-type SnO2-based sensors during operation in application-relevant conditions

2.6 Conclusion and future trends

References

3. The effect of electrode-oxide interfaces in gas sensor operation

Sung Pil Lee and Chowdhury Shaestagir

3.1 Introduction

3.2 Electrode materials for semiconductor gas sensors

3.3 Electrode-oxide semiconductor interfaces

3.4 Charge carrier transport in the electrode-oxide semiconductor interfaces

3.5 Gas/solid interactions in the electrode-oxide semiconductor interfaces

3.6 Conclusions

References

4. Introduction to semiconductor gas sensors: a block scheme description

Arnaldo D’Amico and Corrado Di Natale

4.1 Introduction

4.2 The sensor blocks

4.3 Metal oxide semiconductor capacitor: the case of the hydrogen gas sensitivity of Pd-SiO₂-Si

4.4 Light-addressable potentiometric sensor

4.5 Metal oxide semiconductor field-effect transistor

4.6 Metal oxide semiconductors

4.7 Conclusions

References

Part Two Materials

5. One-and two-dimensional metal oxide nanostructures for chemical sensing

E. Comini and D. Zappa

5.1 Introduction

5.2 Deposition techniques

5.3 Conductometric sensor

5.4 Transduction principles and related novel devices

5.5 Conclusion and future trends

References

6. Hybrid materials with carbon nanotubes for gas sensing

Thara Seesaard, Teerakiat Kerdcharoen and

Chatchawal Wongchoosuk

6.1 Introduction

6.2 Synthesis of carbon nanotube

6.3 Preparation of carbon nanotube-metal oxide sensing films

6.4 Sensor assembly

6.5 Characterization of carbon nanotube-metal oxide materials

6.6 Sensing mechanism of carbon nanotube-metal oxide gas sensors

6.7 Fabrication of electrodes and CNT/polymer nanocomposites for textile-based sensors

6.8 Sensor assembly for textile-based gas sensors

6.9 Characterization of CNT/polymer nanocomposites sensing materials on textile substrate

6.10 Sensing mechanism of CNT/polymer nanocomposites sensing materials on fabric substrate

6.11 Conclusion

Acknowledgments

References

7. Carbon nanomaterials functionalized with macrocyclic compounds for sensing vapors of aromatic VOCs

Pierrick Clément and Eduard Llobet

7.1 Introduction

7.2 Cyclodextrins

7.3 Calixarenes and derivatives

7.4 Deep cavitands

7.5 Conclusions

Acknowledgments

References

8. Luminescence probing of surface adsorption processes using InGaN/GaN nanowire heterostructure arrays

Konrad Maier, Andreas Helwig, Gerhard Muller and Martin Eickhoff

8.1 Adsorption-key to understanding semiconductor gas sensors

8.2 III-nitrides as an emerging semiconductor technology

8.3 Photoluminescent InGaN/GaN nanowire arrays

8.4 Optical probing of adsorption processes

8.5 Experimental observations of PL response

8.6 Analysis of adsorption phenomena

8.7 Molecular mechanism of adsorption

8.8 Conclusions and outlook

References

9. Rare earth-doped oxide materials for photoluminescence-based gas sensors

V. Kiisk and Raivo Jaaniso

9.1 Introduction

9.2 Sm³+:TiO₂

9.3 Eu³+ ZrO2

9.4 Tb³+:CePO4

9.5 Pr³+:(Kos Nao5)NbO3

9.6 Conclusion

References

Part Three Methods and integration

10. Recent progress in silicon carbide field effect gas sensors

M. Andersson, A. Lloyd Spetz and D. Puglisi

10.1 Introduction

10.2 Background: transduction and sensing mechanisms

10.3 Sensing layer development for improved selectivity of SiC gas sensors

10.4 Dynamic sensor operation and advanced data evaluation

10.5 Applications

10.6 Summary

Acknowledgments

References

11. Semiconducting direct thermoelectric gas sensors

F. Rettig and R. Moos

11.1 Introduction

11.2 Direct thermoelectric gas sensors

11.3 Conclusion and future trends

References

12. Dynamic operation of semiconductor sensors

Andreas Schutze and Tilman Sauerwald

12.1 Introduction

12.2 Dynamic operation of metal oxide semiconductor gas sensors

12.3 Dynamic operation of gas-sensitive field-effect transistors

12.4 Conclusion and outlook

References

13. Micromachined semiconductor gas sensors

D. Briand and J. Courbat

13.1 Introduction

13.2 A brief history of semiconductors as gas-sensitive devices

13.3 Microhotplate concept and technologies

13.4 Micromachined metal oxide gas sensors

13.5 Complementary metal oxide semiconductor-compatible metal oxide gas sensors

13.6 Micromachined field-effect gas sensors

13.7 Nanostructured gas sensing layers on microhotplates

13.8 Semiconductor gas sensors on polymeric foil and their additive manufacturing

13.9 Manufacturing, products, and applications

13.10 Conclusion

References

14. Integrated CMOS-based sensors for gas and odor detection

P.K. Guha, S. Santra and J.W. Gardner

14.1 Introduction

14.2 Microresistive complementary metal oxide semiconductor gas sensors

14.3 Microcalorimetric complementary metal oxide semiconductor gas sensor

14.4 Sensing materials and their deposition on complementary metal oxide semiconductor gas sensors

14.5 Interface circuitry and its integration

14.6 Integrated multisensor and sensor array systems

14.7 Conclusion and future trends

Useful web addresses

References

Index

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Tags: Raivo Jaaniso, Ooi Kiang Tan, Semiconductor Gas Sensors