Continuously studied since its discovery, graphene offers truly unique opportunities, because unlike most semiconductor systems, its 2D electronic states are not buried deep under the surface and it can be easily accessed directly by tunneling or by other local probes. An in-depth analysis of recent advances in graphene research, Graphene-Based Materials: Science and Technology discusses synthesis, properties, and their important applications in several fields. It examines methods for synthesis of graphene as well as surface characterization, properties, and application in biosensors and energy storage.
The book begins with a brief review of the history of graphene and a discussion of its important properties. It then presents the different methods of graphene synthesis available and a brief overview of a few important characterization techniques that distinguishes graphene from its allotropes. The authors detail the applications of graphene in high-speed electronics, field-effect transistors, biosensors, gas-sensors, ultra-capacitors, photonics, optoelectronics, and drug delivery. They conclude with coverage of the toxicity properties of graphene and the future of graphene research.
Written by experts with more than a decade of experience in nanotechnology research, the book incorporates the latest literature and findings in the field. Its emphasis on applications, especially biomedical/electrochemical and energy storage applications, sets it apart from other books on this topic. It provides those working in graphene and related materials a resource that helps initiate new thinking.
Graphene: An Introduction
Graphene: History and Background
Alternatives to Mechanical Exfoliation
Surface Characterization of Graphene
Graphene-Based Materials in Gas Sensors
Graphene-Based Materials as Gas Sensors
Graphene as a Membrane for Gas Separation
Graphene-Based Materials in Biosensing and Energy Storage Applications
Electrochemical Biosensors Based on Graphene
Graphene for Energy Storage Applications
Graphene-Based Materials for Photonic and Optoelectronic Applications
Linear Optical Absorption
Flexible Smart Windows and Bistable Displays
Saturable Absorbers and Ultrafast Lasers
Optical Frequency Converters