date | time | location | What will happen? |
---|---|---|---|
18-mar-04 | 14:00 | NB 7/67 | Summary of present status and problems (given by JK) |
date | speaker | topic | files |
---|---|---|---|
26-Aug-01 | Jens Kleimann | Introduction to the solar wind | JK-IntroSW.doc, JK-ParkerEqs.ps: comes in two parts as MS Word 7.0 and PostScript. I'll merge them when I find the time. |
27-Sep-01 | Rainer Grauer | Numerical algorithms: CWENO | RG-cweno.pdf |
23-Oct-01 | Andreas Kopp | Resistive MHD simulations of the interaction of the solar wind with magnetized planets | AK-IntSwPlanet.pdf |
09-Nov-01 | Kai Germaschewski | Computational 'infrastructure' (CVS, makefiles, ...) | KG-Infra.html |
06-Dec-02 | Felix Spanier | "How to implement boundary conditions using the forcing method" (informal meeting). | -- |
18-Mar-04 | Jens Kleimann | current status and problems of sw3D" (informal meeting). /TD> | JK-sw3dInfo.pdf (requires some movies from here to be in ../Movies/ and this figure in ../Figures/ (at least if you want the yellow buttons to work properly...) ;-) |
author(s) [year] | title | description | file |
---|---|---|---|
Parker, E.N. [1958] | Dynamics of the interplanetary gas and magnetic fields | Existence and basic properties of the solar wind in a first, simple, analytic model | 1958ApJ...128..664P.ps |
Pneuman, G.W. & Kopp, R.A. [1971] | Gas-magnetic field interactions in the stellar corona | The first numerical model of the solar wind; uses axial symmetry and yields a realistic helmet streamer structure. | 1971SoPh...18..258P.pdf |
Tsurutani, B.T. [19??] | The JPL/NASA Solar Probe mission | Technical outline of a forthcoming satellite mission to the Sun | solar-probe.pdf |
Nessyahu, H. & Tadmor, E. [1990] | Non-oscillatory central differencing for hyperbolic conservation laws | (not yet) | Nes-Tad.JCP-90.pdf |
Kurganov, A. & Tadmor, E. [1999] | New high-resolution central schemes for non-linear conservation laws and convection-diffusion equations | (not yet) | Kur-Tad.JCP-00I.pdf | Kurganov, A. & Levy, D. [2000] | A third-order semidiscrete central scheme for conservation laws and convection-diffusion equations | Description of the CWENO algorithm, including basic idea and derivation of the relevant formulas | Kur-Lev_3rd_semid.pdf |
Dedner, A. et al. [2001] | Hyperbolic Divergence Cleaning for the MHD Equations | about a novel aproach to numerically satisfy the solenoidality condition div(B)=0 for arbitrary solvers | JCP2002.6961.pdf |
Fryx, B. et al. | FLASH: An Adaptive Mesh Hydrodynamics Code for Modeling Astrophysical Thermonuclear Flashes | (not yet) | flash_code.ps |
Fadlun, E.A. et al. [2000] | Combined Immersed-Boundary Finite-Difference Methods for Three-Dimensional Comlex Flow Simulations | discusses two forcing methods and three strategies of BC extrapolation from curved boundaries to grid points. With performance evaluation and comparison to experimental data. | JCP_immersed.pdf |
Keppens, R. & Goedbloed, J.P. [1999] | Numerical simulations of stellar winds: polytropic models | (not yet) | Kep-Goe_polytSw.pdf |
Keppens, R. & Goedbloed, J.P. [1999] | Stellar Winds, Dead Zones, and Coronal Mass Ejections | (not yet) | Kep-Goe_stellarCME.pdf |
file | description |
---|---|
cme-n0.mpg | A movie showing the first Sun-related simulation run: A 3D-density 'disturbance' expands outwards. Timescale is dt = RSun / vSound = 40 min, corresponding to T = 4 x 106 K. |
cme-nv.mpg | Same as above, this time also showing fluid velocity as arrow field. |
awings-v.mpg awings-p.mpg awings-b.mpg | Three animations showing the rise of Alfven wings emanating from an spherical obstacle embedded in a magnetized fluid flow in contours of velocity (v), plasma pressure (p), and as magnetic field lines (b). Wedges in the last frame indicate the wing direction as expected from theory. For a more detailed explanation see summary talk by JK (above). |
sedov3d.mpg | 3D contour plot of a sedov explosion simulated using adaptive mesh refinement. Was done as a test run and published in a joint CPC paper. |
rvp-cube.mpg | A three-dimensional visualization of solution paths in (r,v,p) space for a non-isothermal HD wind |
V_LTcme80-90deg-8.mpg lN_LTcme80-90deg-8.mpg B_LTcme80-90deg-8.mpg | MHD solar wind run showing convergence to stationary state (after a rather violent relaxation from an artificial and thus somewhat unphysical initial conditon). At t=8, an equatorial disturbance is launched via changing initial condition at the solar boundary. Shown: Velocity contours, logarithmic mass density, and magnetic field lines, respectively. Grid resolution is 803 grid points, all movies represent cuts along the poloidal plane. |
file | description |
---|---|
norm-eqs.ps | List of derived characteristic scales and our set of equations in dimensionless form. |
sw-plasparam.txt | Table summary of various plasma parameters for the solar wind. |