knowledge should be freely accessible to all
Institute for Plasma Focus Studies
IPFS IBC DIY
Internet Course on Numerical Plasma Focus Experiments
This is a do-it-yourself course. You may do the following course at your leisure; and submit the exercises to firstname.lastname@example.org. When you have submitted all exercises satisfactorily, a customized e-certificate will be sent to you. The recommended course duration is 4-weeks.
Material & Program
The course material is contained in 4 folders:
1 Modules1-4 Numerical Experiments
3 Supplementary Papers (The supplementary papers are in the back section of the attached e-manual)
4 pinch current papers (The pinch current papers are in the back section of the attached e-manual)
Folder 1: contains the instructions for the 4 modules of the course
Folder 2: contains the Model code & Excel files needed for the course and referred to in the course instructions
Folder 3: contains the supplementary information referred to in the course instructions
Folder 4: contains additional recent papers on the role of pinch current in plasma focus numerical experiments
(a) Introduction to the Worksheet
(b) Configuring the Numerical Plasma Focus Laboratory (UPFL)
(c) Firing a shot in NX2
(d) Studying the results
(e) Exercise 1
(a) To configure the code for the PF1000 using trial model parameters
(b) To place a published PF1000 current waveform on Sheet 2.
(c) To place the computed current waveform on Sheet 2 in the same Chart
(d) To vary the model parameters until the two waveforms achieve the best match.
(e) Exercise 2: tabulate PF1000 results
(f) Self-fit Chilean PF400
(g) Exercise 3: comparative tabulation of PF400 vs PF1000. Discuss Physics.
The PF1000 parameters as originally published. Nominal Lo, no ro .
Fitting that case from scratch.
Exercise 4: Self fit DPF78 with nominal Lo and no ro .
Add DPF78 to comparative list.
Variation of neutron yield with pressure; case of PF1000-from short circuit (very high pressure), through optimum pressure to low pressure; Exercise 5
Variation of SXR with pressure; case of NX2- from short circuit (very high pressure, through optimum pressure to low pressure) Exercise 6
Circuit analysis: from short-circuit shot: given Co, measure T and reversal ratio f; derive Lo, ro; Exercise 7
Scaling laws through numerical experiments. General discussion
28 May 2008, IPFS, Melbourne
This activity is carried out in association with AAAPT and
Plasmas Groups of