Experiments with Megagauss Targets at SLAC
- 1 June 1971
- journal article
- Published by Institute of Electrical and Electronics Engineers (IEEE) in IEEE Transactions on Nuclear Science
- Vol. 18 (3) , 809-813
- https://doi.org/10.1109/tns.1971.4326194
Abstract
The high pressures and current densities associated with MG fields limit their useful lifetime to 1 μsec or less. The pulse duration of the SLAC electron beam being of the same order of magnitude, a successful marriage of the two techniques was achieved in experiments that use transverse fields in the range 1 to 2 MG as targets for a 19 GeV electron beam. The fields were generated in volumes of dia. 3 to 5 mm by discharging a very fast capacitor bank into small single turn coils, or by flux compression with electromagnetically driven aluminum foils. The termination of the capacitor bank, designed to minimize the destructive effects of the exploding coils, permitted a repetition rate of one shot per hour. Magnetic bremsstrahlung emitted by the electrons was recorded on X-ray film and nuclear emulsions. In an additional experiment, nuclear emulsions mounted in the high field region survived the violent self-destruction of the coils. In these, the magnetic deflection by far exceeds the multiple scattering, which is normally the dominant effect in nuclear emulsions.Keywords
This publication has 8 references indexed in Scilit:
- Electromagnetically Driven Flux CompressionReview of Scientific Instruments, 1970
- Interaction of Capacitor-Bank-Produced Megagauss Magnetic Field with Small Single-Turn CoilJournal of Applied Physics, 1969
- Megagauss magnetic fieldsReports on Progress in Physics, 1968
- High-Energy Electromagnetic Conversion Processes in Intense Magnetic FieldsReviews of Modern Physics, 1966
- Magnetic Flux Compression by Magnetically Imploded Metallic FoilsJournal of Applied Physics, 1966
- Measurement of Synchrotron Radiation in the X-Ray RegionJournal of Applied Physics, 1966
- Wide Voltage Range High Energy Solid Dielectric SwitchReview of Scientific Instruments, 1964
- Production of Very High Magnetic Fields by ImplosionJournal of Applied Physics, 1960