SUMMARY
The discussion centers on the feasibility of designing a Bitter electromagnet capable of producing 25 Tesla (T) within a volume of approximately 500 cubic centimeters (cm³). It is established that while size does not limit the magnet's capability, the required current for such a magnet is substantial; for reference, a lab producing magnets between 20T and 45T indicates that their weakest DC field magnet operates at 17 megawatts (MW). The conversation highlights that increasing the dimensions of the magnet can maintain the same induction with the same electric power, emphasizing the importance of cooling in magnet design.
PREREQUISITES
- Understanding of Bitter electromagnet design principles
- Knowledge of Tesla (T) as a unit of magnetic flux density
- Familiarity with DC field magnet specifications and power requirements
- Basic concepts of electromagnetic induction and cooling mechanisms
NEXT STEPS
- Research the design specifications of Bitter electromagnets
- Explore the principles of magnetic flux density and its measurement
- Investigate cooling techniques for high-power electromagnets
- Examine the electrical power requirements for high-field magnets
USEFUL FOR
Engineers and physicists involved in magnet design, researchers in high-field magnet applications, and anyone interested in the technical specifications and challenges of producing high-Tesla electromagnets.