Microplasmas ignited and sustained by microwaves

Microplasmas for nanomaterials synthesis

Microplasmas have attracted a tremendous amount of interest from the plasma community because of their small physical size, stable operation at atmospheric pressure, non-thermal characteristics, high electron densities and non-Maxwellian electron energy distributions. These properties make microplasmas suitable for a wide range of materials applications, including the synthesis of nanomaterials...

Ignited Minds

The strength of this book by Dr. Kalam is that it has been written in an easy to understand language, where he presents some of the most difficult issues our country is facing today in a very simple way. The book has been divided into nine short chapters, each one of them dealing with various themes. Each chapter begins with a quote and ends with a summary giving the reader something to think a...

Spectroscopic Characterization of Microplasmas

Microplasmas: A Review

In this paper, a review on microplasma discharges is conducted. The different types and configurations used in microplasmas such as the Cathode Boundary Layer (CBL), Dielectric Barrier Discharge (DBD), Capillary Plasma Electrode Discharge (CPED), Inverted Square Pyramid (ISP), Square Cross Sectional Cavities (SCSC), Radio Frequency Inductively Coupled Discharge (RFIC), Radio Frequency Capacitiv...

Applications of Microplasmas and Microreactor Technology

During the last decade a number of microcavity plasma devices have been developed. Examples are microhollow cathode (MHC) discharges and cathode boundary layer (CBL) discharges proposed by Schoenbach, capillary plasma electrode (CPE) discharges proposed by Kunhardt and Becker, and micro-structured electrode arrays (MSEs) introduced by Gericke and Penache. Arrays of microplasmas based on silicon...