Sensors for Marine Biosciences : Next-Generation Sensing Approaches.

Format:

Book

Author/Creator:

Pandey, Shyam S.

Contributor:

Kerry, Rout George.

Singh, Kshitij R. B.

Series:

IOP Series in Sensors and Sensor Systems Series

Language:

English

Physical Description:

1 online resource (284 pages)

Edition:

1st ed.

Place of Publication:

Bristol : Institute of Physics Publishing, 2025.

Summary:

The book explores cutting-edge sensor technologies for marine biosciences, emphasizing their applications in pollution monitoring, pathogen detection, and ecosystem sustainability.

Contents:

Intro

Acknowledgements

Editor biographies

Shyam S Pandey

Rout George Kerry

Kshitij RB Singh

List of contributors

Chapter Introduction to sensor in marine bioscience

1.1 Introduction

1.1.1 Fluorescent-based biosensors

1.1.2 Bioluminescent biosensor

1.1.3 Sodium channel-based biosensors

1.1.4 Enzyme inhibition-based biosensors

1.1.5 Aptamer-based biosensors

1.2 Benefits of microbial biosensors in the marine environments

1.2.1 Trace metals

1.2.2 Food safety

1.3 Recent advances in biosensor

1.4 Conclusion

References

Chapter Sensors for monitoring global deposition of pollutants in aquatic ecosystems

2.1 Introduction

2.1.1 Importance of monitoring aquatic ecosystems

2.1.2 Global significance of pollutant deposition

2.1.3 Role of sensors in environmental monitoring

2.2 Overview of pollutants and their impacts on aquatic ecosystems

2.2.1 Heavy metals

2.2.2 Agrochemicals

2.2.3 Nutrients

2.2.4 Sewage

2.2.5 Environmental impact of pollutant deposition

2.3 Need for real-time monitoring

2.3.1 Limitations of conventional sampling methods

2.3.2 Advantages of real-time monitoring

2.3.3 Case studies highlighting the importance of timely data

2.4 Sensor technologies for aquatic pollutant monitoring

2.4.1 Overview of sensor technologies

2.4.2 Selection criteria for sensor types

2.4.3 Emerging technologies

2.5 Design and operation of monitoring networks

2.5.1 Considerations for sensor placement

2.5.2 Establishing reliable communication networks

2.5.3 Data management and quality control

2.6 Chemical biosensor

2.6.1 Electrochemical sensors for metal ions detection

2.6.2 Optical sensors for organic pollutants

2.7 Physical sensors

2.7.1 pH sensors

2.7.2 Temperature sensors

2.7.3 Dissolved oxygen sensors.

2.7.4 Turbidity and suspended solid measurement

2.8 Biological sensors

2.8.1 Algal bioindicators for water quality assessment

2.8.2 Microbial sensors for detecting pollution indicators

2.8.3 Fish and invertebrate behavior as a pollution indicators

2.9 Remote sensing and GIS applications

2.9.1 Satellite-based monitoring of aquatic ecosystems

2.9.2 Geographic information systems (GIS) in pollutant mapping

2.9.3 Combining remote sensing data with sensor networks

2.10 Advanced data tools and techniques for monitoring aquatic ecosystems

2.10.1 Real-time data visualization and analysis tools

2.10.2 Statistical approaches for identifying trends and anomalies

2.10.3 Integration of multiple sensor data streams

2.11 Case studies and application

2.11.1 Global initiatives for aquatic pollutant monitoring

2.11.2 Regional studies highlighting sensor success

2.11.3 Industry and regulatory applications of monitoring data

2.12 Challenges and future directions

2.12.1 Calibration and maintenance of sensor networks

2.12.2 Maintenance

2.12.3 Addressing sensor drift and cross-sensitivity

2.13 Conclusion

2.13.1 Significance of sensor-based monitoring for environment protection

2.13.2 Collaborative efforts in global aquatic ecosystem monitoring

Chapter Sensors for detection of marine organic and inorganic pollutants

3.1 Introduction

3.2 Role of chemical/biosensors

3.3 Types of sensors used for water monitoring

3.3.1 Spaceborne sensors

3.3.2 Optical sensor

3.3.3 Magnetic sensors

3.3.4 Electrochemical sensors

3.3.5 Chip sensors

3.3.6 Remote sensing and GSI

3.4 Detection of marine pollutants

3.4.1 Methane

3.4.2 Radon

3.4.3 Carbon dioxide

3.4.4 Marine microorganism

3.4.5 Other marine pollutants

3.4.6 Detecting marine nutrients

3.5 Conclusions.

References

Chapter Polymeric matrix-based biosensors for the detection of pollutants in the marine ecosystem

4.1 Introduction

4.1.1 Pollutants that should be avoided for marine waters to have a healthy environment

4.2 Methods used to detect pollutants in marine waters

4.3 Polymeric matrix-based biosensors for marine determinants

4.4 Conclusions

4.5 Challenges and future perspectives

Chapter Remote sensing and satellite biological sensors for sustainability of the marine ecosystem

5.1 Introduction

5.2 Satellite remote sensing technology on the marine ecosystem

5.3 Important parameters used in monitoring of marine ecosystem health

5.3.1 Ocean color

5.3.2 Mapping studies

5.3.3 Determination of physical parameters and oil spills

5.4 Some of the limitations of remote sensing

5.5 Satellite remote sensor applications for environment safety

5.6 Determination of valuable ocean parameters via ocean color sensing

5.7 Conclusion and prospects

Chapter Artificial intelligence-, machine learning- and Internet of Things-based sensors for detection of marine pollutants

6.1 Introduction

6.2 Fundamentals of AI

6.2.1 Definition and concept

6.2.2 Types of AI

6.2.3 Application of AI in pollutant monitoring

6.3 Machine learning

6.3.1 Supervised learning

6.3.2 Unsupervised learning

6.3.3 Reinforcement learning

6.3.4 Ensemble learning

6.3.5 Hybrid approaches

6.4 IoT sensors

6.4.1 Introduction of IoT-based sensors

6.4.2 Types of IOT sensors for marine pollution detection

6.4.3 Data analysis and visualization for marine pollution assessment

6.5 Integration of AI, ML and IoT sensors

6.5.1 Data preprocessing and feature extraction

6.5.2 Training and testing dataset

6.5.3 Model selection and optimization

6.6 Case studies.

6.6.1 Application of AI, ML and IOT in remote and in situ sensor systems for oil spill response

6.6.2 Detection of harmful algal bloom using AI, ML and IoT sensors

6.6.3 Monitoring heavy metal ion concentration in marine ecosystems

6.7 Future direction and challenges

6.8 Conclusion

Chapter Biosensor-based detection of major aquatic pathogens in the marine ecosystem

7.1 Introduction

7.2 Marine ecosystem and causes of pollution

7.2.1 Agrochemicals

7.2.2 Emerging pollutants and heavy metals

7.2.3 Sewage and oil spills

7.3 Types of marine pollutants

7.3.1 Protozoan organisms

7.3.2 Bacterial organisms

7.3.3 Parasites

7.3.4 Viruses

7.3.5 Fungal zoonotic agent

7.4 Technique for the detection of pathogenic microbes in the marine ecosystem

7.5 Marine pollutants have ill effects on aquatic and human life

7.6 Conclusion and prospects

Chapter Advancement of sensors in preservation and packaging of marine products

8.1 Introduction

8.1.1 Sensors

8.1.2 Indicators

8.2 Intelligent packaging based on sensors

8.2.1 Oxygen- and carbon dioxide-based sensors

8.2.2 Sensors based on pH changes and specific chemicals

8.2.3 Sensors based on humidity

8.2.4 Sensors based on time and temperature (TTI)

8.2.5 Characteristics of optical sensors and others

8.3 Conclusion and prospects

Chapter Nucleic acid-based biosensor for detection of infectious pathogens in marine products

9.1 Introduction

9.2 Critical role of marine products in foodborne poisoning

9.3 Pathogens of major concern

9.3.1 Norovirus

9.3.2 Vibrio spp.

9.3.3 Salmonella

9.4 Pathogens of minor concern

9.4.1 Hepatitis A virus

9.4.2 Listeria monocytogenes

9.4.3 Shigella spp.

9.4.4 Clostridium botulinum

9.4.5 Staphylococcus aureus.

9.5 Traditional method for detection of pathogens in marine products

9.6 Nucleic acid-based method of detection of seafood pathogens

9.7 Drawbacks of using traditional nucleic acid-based detection method

9.8 Nucleic acid-based biosensor for seafood pathogen detection

9.9 Optical biosensor

9.9.1 Surface-enhanced Raman spectroscopy (SERS) biosensors

9.9.2 Fluorescence-based biosensor

9.9.3 Chemiluminescence-based sensor

9.10 Colorimetric based biosensor

9.11 Electrochemical biosensor

9.12 Piezoelectric biosensor

9.13 Conclusion and prospects

Chapter Proteomics and genomics-based innovation in biosensors for marine biology

10.1 Introduction

10.2 Various strategies for marine measurements

10.2.1 Key factors influencing measurements

10.3 Role of biosensors in marine biology

10.3.1 Sensors for detecting methane (CH4)

10.3.2 Ferrous ion (Fe2+) sensors

10.3.3 Sensors for detecting marine microorganisms

10.3.4 Sensors for carbon dioxide (CO2)

10.3.5 Sensors for seafood

10.3.6 Sensors for detection of marine pollutants

10.3.7 Sensors for detecting marine nutrients

10.4 Role of proteomics and genomics-based biosensors in marine biology

10.4.1 Genomics based biosensors

10.4.2 Proteomics based biosensors

10.5 Challenges and future directions

10.6 Conclusion

Acknowledgments

Chapter Commercial aspect of sensors in marine biosciences and its future prospects

11.1 Introduction

11.2 Classification of biosensors

11.2.1 Luminous microorganism biological detectors

11.2.2 Biologically luminescent microbiosensors

11.2.3 Sodium channel-based biological detectors

11.2.4 Biological detectors designed around enzyme inhibition

11.2.5 Methane (CH4) monitoring devices

11.2.6 Radon (RN) detection sensors.

11.2.7 Sensors for ferrous ions (FE2+).

Notes:

Description based on publisher supplied metadata and other sources.

ISBN:

9780750360012

0750360011