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1Muons, Inc., Batavia, Illinois 60510, USA. vadim@muonsinc.com
This study presents a novel plasma generation system for efficient negative ion beam production. It utilizes secondary emission enhanced by cesium, improving ion beam applications.
Area of Science:
- Plasma Physics
- Surface Science
- Ion Beam Technology
Background:
- Negative ion formation in surface plasma sources relies on secondary emission from low work function surfaces.
- Cesium or similar low ionization potential substances significantly enhance negative ion emission.
- Existing systems face challenges in optimizing negative ion beam production and directed deposition.
Purpose of the Study:
- To propose and describe a novel plasma generation system for high current negative ion beam production.
- To detail the mechanism of negative ion formation and enhancement using secondary emission.
- To outline the system's capability for directed deposition using sputtered particles and negative ions.
Main Methods:
- Utilizing a Hall drift plasma accelerator to generate positive ions.
Main Results:
- The proposed system facilitates high current negative ion beam production.
- Directed deposition is achievable via flux of sputtered neutrals and negative ions.
- The design incorporates a Hall drift ion source with a specific configuration for ion and particle passage.
Conclusions:
- The developed plasma generation system offers an effective method for negative ion beam production.
- The system's design enhances negative ion emission through secondary processes.
- It holds potential for advanced applications in materials science and accelerator technology.

