Graphene has emerged as a potential candidate to replace traditional CMOS for a number of electronic applications; this book presents the latest advances in graphene nanoelectronics and the potential benefits of using graphene in a wide variety of electronic applications.?The book also provides details on? various methods to grow graphene, including epitaxial, CVD, and chemical methods. This book serves as a spring-board for anyone trying to start working on graphene. The book is also suitable to experts who wish to update themselves with the latest findings in the field.
Graphene Nanoelectronics describes how graphene can be used as a replacement for Silicon technology, in addition to the potential benefits of using graphene in a variety of electronic applications.?Readers will find recent advances in the field and various methods for graphene growth.
CMOS Performance Scaling.- Electronic Transport in Graphene.- Graphene Transistors.- Alternate State Variables for Graphene Transistors.- Transport of Novel State Variables.- Formation of Epitaxial Graphene.- Graphene Growth by CVD Methods.- Chemical Approaches to Produce Graphene Oxide and Related Materials.- Atomic Layer Deposition of Dielectrics on Graphene.
The rapid growth of the electronics industry can be attributed in large part to the scalability of the transistor. Continued scaling of transistor dimensions has enabled increased functionality with each new generation of integrated circuits. Historically, this scaling has followed Moores Law which became a self-fulfilling prophecy wherein the number of transistors on a chip is doubled every 18-24 months. However, a number of bottlenecks arise beyond c. 2020 that will impede this progress and this will lead to high heat dissipation in ICs, large power consumption, and low chip yield. Thus, beyond c. 2020, the electronics industry needs novel technologies that enable continued increases in chip l3<